NETWORK DIAGNOSTICS USING LAMP COLOR OUTPUT

Abstract

The devices in a load control system can communicate with each other over a network. The load control system may include various control devices, such as load controllers, input devices, or other devices capable of communicating with each other to perform load control. These control devices may be able to provide feedback to a user, indicating different network information that can be used for network configuration and / or diagnostics. For example, a lighting control device may be able to provide feedback from a corresponding lighting load, indicating network information that can be used for network configuration and / or diagnostics.

Description

NETWORK DIAGNOSTICS USING LAMP COLOR OUTPUT CROSS-REFERENCE TO RELATED APPLICATIONS This application claims the benefit of U.S. Provisional Patent Application No. 63 / 002,968, filed March 31, 2020, entitled NETWORK DIAGNOSTICS USING COLOR OUTPUT OF LAMPS, the disclosure of which is incorporated herein by reference in its entirety. BACKGROUND Load control systems may include electrical loads (e.g., lighting loads, etc.) and load control devices (e.g., ballasts, light-emitting diode (LED) drivers, etc.) to control electrical power to the electrical loads. Load control devices may be controlled by messages from remote control devices or sensors (e.g., occupancy sensors, etc.) capable of sending instructions via messages to the load control devices to control the electrical loads. Typically, after the charge control system is installed in a location, such as a residence, office, or the like, the charge control system devices may be added to a network to enable communication between the devices. As devices are added to the network, whether devices that are part of the charge control system or other devices capable of communicating on the network, the quality of network communication may degrade. Additionally, changes to the physical space in which the charge control system is installed (e.g., the addition of walls, partitions, desks, etc.) may similarly degrade the quality of network communications. However, it may be difficult for a user to determine the information necessary to properly configure the network to improve network communications, particularly as the network or physical space changes. COMPENDIUM Devices in a control system, such as a load control system and / or a lighting control system, may provide feedback to a user indicating configuration or diagnostic information from which the control system can be configured. For example, the configuration or diagnostic information may comprise network information pertaining to the network (e.g., a mesh network) over which the devices can communicate. The control system may include different control devices, such as load control devices, input devices, or other devices capable of communicating with each other to perform load control. These control devices may be capable of providing feedback to a user indicating different network information that can be used for network configuration and / or diagnostics.For example, a lighting control device may be capable of providing feedback through a corresponding lighting load indicating network information that can be used in network configuration and / or diagnostics. The feedback may be provided in response to one or more messages transmitted to a control device. For example, messages may be transmitted to lighting control devices to activate a feedback mode to indicate configuration or diagnostic information to the at least one lighting control device. The lighting control device may provide feedback to a lighting control device by controlling an amount of power provided to at least one LED of the lighting control device to indicate configuration or diagnostic information associated with the lighting control device. The feedback may be indicated using a predefined color. The lighting control device may be one of a plurality of lighting control devices in a lighting control system. For example, the lighting control device may be a first lighting control device in the plurality of lighting control devices that meets certain predefined criteria in one or more messages for providing feedback within a corresponding first lighting load. A second lighting control device may not meet the predefined criteria for providing the feedback indicated in the message and may cause a corresponding second lighting load to emit light having a different color or a different combination of wavelengths than the light emitted by the lighting load corresponding to the first lighting control device.For example, the first lighting load and the second lighting load may emit light at a different intensity level within a predefined band of wavelengths. The first lighting control device may provide feedback by increasing an intensity level of at least one LED in the first lighting load above a predefined threshold to indicate feedback in the predefined band of wavelengths. The at least one LED used to indicate feedback may be a white LED in a red-green-blue-white (RGBW) LED light source. The non-white LEDs may be used to compensate for the increased intensity of the white LED to maintain the same color value of the total light output emitted by the plurality of LEDs. Although an RGBW LED light source may be provided as an example, any other light source comprising four or more LEDs may be implemented.Feedback can be identified within the predefined wavelength band using an optical filter. The optical filter is integrated into a lens in a mobile device or eyeglasses. The optical filter may comprise a notch filter configured to eliminate energy in the predefined wavelength band. In another example, the optical filter may comprise a band-pass filter configured to allow light emission in the predefined wavelength band. During network formation, different control devices can assume different network functions within the network. For example, each control device can assume the role of a leader device, a router device, or an end device. A feedback message can be sent to the lighting control devices to trigger the lighting control devices to provide feedback indicating their role within the network. The network function of control devices may include a master / slave function. Leader devices and router devices may be primary devices to which secondary end devices may connect to send and / or receive communications. A feedback message may be sent to lighting control devices to trigger the lighting control devices to provide feedback indicating their master / slave role in the network. Each end device may be connected to a single master device with which the end device can communicate directly (e.g., via unicast messages). Each end device may also be capable of receiving multicast messages from other master or auxiliary devices. As such, a feedback message may be sent to trigger the auxiliary master devices to provide feedback indicating their status as a auxiliary master. Control devices may be capable of providing feedback that identifies other network information. For example, control devices may be capable of providing feedback indicating the quality of communications on the network. Lighting control devices may be capable of providing feedback indicating the link quality for a direct communication link between two devices on the network. Similarly, lighting control devices may provide feedback indicating a path cost for communication between devices on a communication path on the network. Link quality and / or path cost may be determined as relative values ​​above a noise floor measured at the load control device. The noise floor may be an RSSI value for network-generated noise measured at the device. A feedback message may be sent to trigger a control device to provide an indication of the noise floor measured at the load control device. The feedback may be provided by one or more control devices in the charging control system. For example, the feedback may be provided by a plurality of lighting control devices in the charging control system. The plurality of lighting control devices may provide different types of feedback to identify different network information in the lighting control devices. The feedback may be provided as a feedback heat map indicating the network information in the space in which the charging control system is installed, for example. A plurality of charging control devices may provide feedback that identifies a path between control devices capable of communicating with each other in the charging control system.Feedback can identify the path between control devices that have different network functions in the network. For example, feedback can identify a path between an end device and a leader device in a network. BRIEF DESCRIPTION OF THE FIGURES FIG. 1 illustrates a representative load control system for configuring and / or controlling one or more control devices. FIG. 2A is a diagram of an example network that may allow communication between devices in the charging control system of FIG. 1. FIG. 2B is a diagram of example networks or network partitions (e.g., networks or subnets) that enable communication between devices in the charging control system of FIG. 1. FIGS. 20 and 2D are diagrams of another example of a network that allows communication between devices in the charging control system of FIG. 1. FIG. 2E is a diagram of another example network illustrating the cost and network overhead associated with communication between devices in the load control system of FIG. 1. FIG. 2F is a table illustrating examples of link costs that may correspond to different link qualities. FIG. 3 illustrates a representative charging control environment in which the charging control system shown in FIG. 1 may be implemented to configure and / or control one or more control devices communicating over a network. FIG. 4 is a block diagram illustrating an example of a device capable of processing and / or communicating in a charging control system, such as the charging control system of FIG. 1. FIG. 5 is a block diagram illustrating an example of a charging control device capable of operating in a charging control system, such as the charging control system of FIG. 1. FIG. 6 is a flowchart depicting an example procedure for providing feedback indicating diagnostic or configuration information to a charging control device. Q ! R ! Qn / zznz / q / YIL FIG. 7 is a flowchart illustrating an example procedure for identifying feedback indicated in predefined wavelength bands within a spectrum of light emitted by a lighting load. FIGS. 8A and 8B are graphs illustrating the effect of different optical filters on the emitted light in a visible light spectrum. FIGS. 9A-9J are graphs illustrating examples of how emitted light can be affected by an optical filter. FIG. 10A is a flowchart depicting an example procedure for identifying a function of a control device in a network. FIG. 10B is a flowchart depicting an example method for identifying a network function of a device and / or a link quality between devices on a network. FIG. 11A is a flowchart depicting an example procedure for identifying a primary or secondary function of a control device in a network. FIG. 11B is a flowchart depicting an example procedure for identifying a network function of a control device as a primary auxiliary to a secondary device on a network. FIGS. 12A and 12B are flowcharts depicting example procedures for identifying link quality between devices on a network. FIG. 12C is a flowchart depicting an example procedure for identifying a path cost between a control device and a leader device in a network. FIG. 12D is a flowchart depicting an example procedure for identifying background noise on a control device in a network. FIG. 13 is a flowchart depicting an example procedure for identifying a path cost between a control device and a leader device in a network. DETAILED DESCRIPTION FIG. 1 illustrates a representative load control system 100 for configuring and / or controlling one or more control devices in the load control system 100. The load control system 100 may include a lighting fixture 110 (e.g., a panel fixture) having one or more lighting loads 112 (e.g., light-emitting diode (LED) lighting engines). The lighting fixture 110 may also include a load control device 114 (e.g., an LED driver) for controlling an amount of power provided to the lighting loads 112 of the lighting fixture 110. The load control device 114 may be referred to as a lighting control device. Although a lighting control device may be referred to herein to perform certain functions, other load control devices may be similarly implemented. The lighting control device 114 may be installed within the lighting fixture 110, on an exterior surface of the lighting fixture 110, and / or adjacent to (e.g., external to) the lighting fixture 110. The lighting control device 114 of the lighting fixture 110 may operate to control the amount of power provided to the lighting loads 112 to control an intensity level of the lighting fixture 110 in response to messages received from one or more input devices. The load control system 100 may include a lighting fixture 120 (e.g., a downlight fixture) having a controllable light source 122 (e.g., a controllable LED lamp). The controllable light source 122 may include an integral lighting control device (e.g., an LED driver) for controlling an amount of power provided to an internal lighting load of the controllable light source 122. For example, the lighting control device may screw into a standard Edison socket of the lighting fixture 120. The lighting control device of the lighting fixture 120 may operate to control an intensity level of the lighting load of the controllable light source 122 in response to messages received from one or more input devices.Although the lighting control device 114 and the controllable light source 122 may be provided as exemplary load control devices, the load control system 100 may include other types of load control devices, such as a motorized window treatment, a temperature control device, and / or a plug-in load control device, for example. The lighting level of the lighting fixture 110 and / or the controllable light source 122 may be controlled in accordance with lighting control instructions received from an input device. An input device may be capable of communicating messages to a load control device via wired and / or wireless signals to control an electrical load (e.g., a lighting load).Example input devices in the load control system 100 may include an occupancy sensor 130, a remote control device 132, and / or other input device capable of communicating messages to the lighting control device 114 and / or the controllable light source 122 to perform control. The load control system 100 may also comprise a system controller 140 and a user device, such as a mobile device 150, which may also function as an input device. For example, the mobile device 150 may comprise a smartphone and / or a tablet. The amount of power supplied to the lighting loads 112 of the lighting fixture 110 and / or the controllable light source 122 may be controlled in response to lighting control instructions received from an input device (e.g., the occupancy sensor 130, the remote control device 132, the system controller 140, the mobile device 150, and / or another input device). The lighting level may be controlled according to operating settings stored in lighting control configuration information, such as preset settings, zone settings, occupancy settings, and / or time schedule configuration information that may be stored in the lighting control device 114, the controllable light source 122, the system controller 140, and / or the mobile device 150.The lighting control instructions may be transmitted over a wireless communication network (e.g., an Internet of Things (IoT) network, such as a THREAD network, an AMAZON Web Service (AWS) network, or other IoT network; a WIFI network; and / or other wireless communication network) via radio frequency (RF) communication signals 102. The occupancy sensor 130 may be an input device configured to detect occupancy and / or vacancy conditions in the space in which the load control system 100 is installed. The occupancy sensor 130 may transmit messages via the RF communication signals 102 in response to detecting the occupancy and / or vacancy conditions. The RF communication signals 102 may communicate messages via one or more protocols (e.g., standard communication protocols, such as WI-FI, WI-MAX, BLUETOOTH, NFC, ZIGBEE, THREAD; and / or proprietary communication protocols, such as CLEAR CONNECT, CLEAR CONNECT TOYX, Z-WAVE, or another proprietary communication protocol). Although FIG. 1 shows the occupancy sensor 130 communicating messages via RF communication signals 102, the occupancy sensor 130 may communicate via wired communication. The system controller 140 may be configured to turn the lighting load of one or more lighting devices, such as the lighting fixture 110 and / or the controllable light source 122, on and off in response to receiving an occupied signal and a vacant signal, respectively. The occupancy sensor 130 may function as a vacancy sensor such that a user may manually turn the lighting load of the lighting fixture 110 on and / or automatically turn it off in response to the sensor detecting a vacancy signal (e.g., the lighting load is not turned on in response to detecting an occupancy condition). Examples of load control systems having occupancy and vacancy sensors are described in greater detail in commonly assigned U.S. Pat.U.S. Patent No. 8,009,042, issued August 30, 2011, entitled "RADIO-FREQUENCY LIGHTING CONTROL SYSTEM WITH OCCUPANCY SENSING"; U.S. Patent No. 8,199,010, issued June 12, 2012, entitled "METHOD AND APPARATUS FOR CONFIGURING A WIRELESS SENSOR"; and U.S. Patent No. 8,228,184, issued July 24, 2012, entitled "BATTERY-POWERED OCCUPANCY SENSOR," the complete disclosures of which are incorporated herein by reference. or ¡ ri Qn / zznz / q / υιλι Although the occupancy sensor 130 may be shown as external to the lighting fixture 110, an occupancy sensor 134 may be incorporated into the lighting fixture 110 and / or in direct communication (e.g., wired or wireless) with the lighting control device of the lighting fixture 110 to control the lighting fixture 110. The occupancy sensor 134 may be configured to operate similarly to the occupancy sensor 130, but may be in direct communication with the lighting control device of the lighting fixture 110. For example, the lighting load of the lighting fixture 110 may be turned on and off in response to receiving an occupied signal and an unoccupied signal, respectively, from the occupancy sensor 134. The remote control device 132 may be an input device configured to transmit messages to the system controller 140 and / or directly to the lighting fixture 110 and / or the controllable light source 122 via the RF communication signals 102 in response to activation of one or more buttons of the remote control device 132. Although FIG. 1 shows the remote control device 132 communicating messages via the RF communication signals 102, the remote control device 132 may communicate via wired communication. The remote control device 132 may be a wall switch, a dimmer switch, or other remote control device for controlling an electrical load. The system controller 140 may also generate one or more messages in accordance with the operational settings for operating one or more load control devices in the load control system 100. The system controller 140 may be configured to transmit one or more messages to the lighting control device of the lighting fixture 110 in response to messages received from associated input devices, such as the remote control device 132, the occupancy sensor 130, the mobile device 150, and / or another input device. The messages may include control instructions that are generated in response to the operational settings for controlling the lighting control device of the lighting fixture 110 in response to messages received from the associated input devices.The system controller 140 may communicate with the lighting control device in the lighting fixture 110 via wired and / or wireless communication. For example, the system controller 140 may communicate with the lighting control device of the lighting fixture 110 via RF communication signals 102. The system controller 140 may communicate with other lighting control devices of lighting fixtures (e.g., a group of lighting control devices, etc.) in the load control system 100. The system controller 140 may communicate with the mobile device 150 directly via wired and / or wireless communications. The system controller 140 may communicate with the mobile device 140 via a network communication device 142. The mobile device 150 may communicate with the mobile device 140 via a network communication device 142. The mobile device 150 may communicate with the mobile device 140 via a network communication device 142. Q ! R ! Qn / 77n7 / q / YILI network communication 142 may be a wireless access point, such as a wireless router and / or modem for example. The network communication device 142 may communicate with the mobile device 150 via network communication signals 106 using one of the wireless communication protocols described herein to allow the mobile device 150 to communicate with other computing devices and / or networks (e.g., via the Internet). The system controller 140 may communicate with the network communication device 142 via a communication link 144, which may be a wired and / or wireless communication link.For example, the wireless communication link may allow the system controller 140 to communicate with the network communication device 142 wirelessly using a wireless communication protocol, such as one of the wireless communication protocols described herein. Although the system controller 140 and the network communication device 142 are shown as separate devices in FIG. 1 , the network communication device 142 may be included within the system controller 140. The network communication device 142 may also be configured to communicate with a user device, such as a processing device 160 (e.g., a personal computer and / or laptop computer), via a communication link 146, which may be a wired and / or wireless communication link. The mobile device 150 may be implemented to configure and / or control the load control system 100. For example, the mobile device 150 may be used to discover, control, and / or configure control devices (e.g., input devices and / or load control devices) in the load control system 100. The mobile device 150 may receive operational configurations for controlling load control devices, such as lighting control devices, in the load control system 100.The mobile device 150 may update operating settings of the load control devices and distribute the operating settings to the load control devices themselves and / or the system controller 140 to be stored therein to enable control of the load control devices in response to messages from the input devices in accordance with the updated operating settings. The mobile device 150 may be a cellular telephone (e.g., a smartphone), a tablet computer, a personal digital assistant, a personal computer, a laptop computer, a wearable computing device (e.g., eyeglasses, a watch, a wristband, etc.), or other mobile computing device. The load control devices may be controlled in accordance with operating settings stored in memory thereof and / or stored in the system controller 140. For example, the system controller 140 may be configured to transmit one or more messages to the lighting control device 114 of the lighting fixture 110 that include control instructions that are generated in response to the operating settings for controlling the lighting control device 114 of the lighting fixture 110. The control instructions may cause the lighting control device 114 to control an intensity and / or color (e.g., correlated color temperature (CCT) value or full color value) of light emitted by the lighting loads 115 when the lighting control device 114 is in an operating mode.The control instructions may cause the lighting control device of the controllable light source 122 to control an intensity and / or color (e.g., correlated color temperature (CCT) value or full color value) of the light emitted by the lighting load when the controllable light source 122 is in an operating mode. The load control devices may enter a feedback mode in response to a trigger event to activate the feedback mode. The feedback mode may be used to indicate diagnostic or configuration information to the load control devices. The trigger event may be the receipt of a message or the activation of a button on the load control device. Messages that function as the feedback mode trigger event may be received directly from the mobile device 150 and / or through another device (e.g., the remote control device 132, the system controller 140, or another device). For example, the trigger event may be a message from the mobile device 150, an occupancy condition received from the occupancy sensor 130, or another trigger event as described herein.The trigger event may comprise one or more predefined criteria for activating the feedback mode that may be sent in a feedback message to the load control devices. The predefined criteria may include a group identifier, such as a device type identifier, an area identifier, a zone identifier, a load control system identifier, a manufacturer identifier, or another identifier to identify a group of control devices. The device type identifier may identify different types of control devices, such as lighting control devices, motorized window treatments, or other control devices in the load control system. The area identifier may indicate a location or sub-location within the user's environment to group or organize devices according to their respective area (e.g.,, devices in a single room can be organized or grouped). Once devices are grouped or organized according to the area to which they are assigned in the user environment, devices can also be assigned to a specific zone within the area. For example, lighting devices in a specific area of ​​the user environment can be assigned a zone identifier based on their respective function. For example, lighting control devices that are intended to emit light onto a specific surface, such as a desk, and have the same type of electrical load and / or load control device to perform similar control can be grouped or organized into a Desk Area zone. The predefined criteria may include a threshold at which one or more messages will be received. For example, the predefined criteria may include a signal quality threshold (e.g., RSSI) at which the feedback message will be received at the load control device. The predefined criteria may include another signal quality threshold (e.g., RSSI) at which one or more messages will be received from an input device, the mobile device 150, the system controller 140, and / or another device in the load control system. The mobile device 150 may transmit a feedback message comprising one or more predefined criteria that may cause one or more load control devices to enter feedback mode. The message may be transmitted to the load control devices directly (e.g., via a mobile device beacon message) or indirectly (e.g., via the system controller or another device in the load control system 100). The mobile device beacon message may include, for example, a beacon identifier. For example, the beacon identifier may be a unique identifier that identifies the mobile device 150 (e.g., or an application executing on the mobile device 150) and / or a non-unique identifier, such as one of the group identifiers described herein.The mobile device beacon message may include a charging control device identifier of the charging control system 100. The mobile device beacon message may also include a received signal strength discovery threshold. The charging control devices may receive the mobile device beacon message and may compare a signal strength (e.g., a received signal strength indicator (RSSI)) at which the mobile device beacon message was received to the received signal strength discovery threshold. A charging control device may enter feedback mode if the signal strength at which the mobile device beacon was received is greater than or equal to the received signal strength discovery threshold (e.g., the control device is within discovery range of the mobile device 150). The load control devices may provide feedback to the user and / or the mobile device 150 upon entering the feedback mode. The feedback may include feedback indicated in a message. For example, the lighting control device 114 and / or the controllable light source 122 may be caused to flash and / or illuminate a color (e.g., color temperature or a full color value) of a corresponding light load in response to entering the feedback mode. The feedback may be provided by a color value of a total light output of the emitted light produced by the lighting load, or the Q t ! Qn / zznz / q / YIL feedback may be provided in one or more predefined wavelength bands, as described here. Different types of feedback may be indicated in the messages received by the control devices to cause the control devices to provide different types of feedback. As described herein, a lighting control device, such as lighting control device 114 and / or controllable light source 122, may control a lighting load (e.g., or a plurality of lighting loads), such as respective lighting loads 112 and lighting loads of controllable light source 122, where the lighting loads may include a plurality of different colored LEDs. In other words, the lighting loads 112 and the lighting load of controllable light source 122 may include in a single unit, for example, an array of different colored emitting LEDs and may be configured such that the chromaticity output of the LEDs mixes to produce light with varying chromaticity coordinates (i.e., color points) within a color gamut formed by the various LEDs comprising the light load.As an example, the lighting loads 112 and / or the lighting load of the controllable light source 122 may include one or more red LEDs, one or more green LEDs, one or more blue LEDs, and one or more white LEDs (which may be collectively referred to herein as an RGBW lighting load). The white LEDs may comprise substantially white LEDs (e.g., such as phosphor-coated yellow and / or mint green LEDs). Although the RGBW lighting load is described herein as having a combination of four LEDs of certain colors, other combinations of LEDs (e.g., more or fewer LEDs and / or LEDs of different colors) may be used. For example, another combination of four or more LEDs of other color combinations may be used. The lighting control device 114 and the controllable light source lighting control device 122 may adjust various settings of the corresponding lighting loads to adjust the light emitted by the lighting loads. For example, the lighting control device may adjust the intensity level (i.e., the lighting intensity level and / or brightness), color (e.g., correlated color temperature (CCT) value and / or full color value), value of a vibrancy parameter that affects color saturation, etc., which are described in more detail herein. Each lighting control device and the respective lighting load may be configured to produce white or near-white light of varying brightness / intensities within a range of color temperatures from warm white (e.g., approximately 2600 Kelvin (K) - 3700 K), to “neutral white” (e.g.,, 3700 K 5000 K) to “cool white” (e.g., 5000 K - 8300 K). For example, the lighting control device 114 and the respective lighting loads 112 may be configured to produce light in colors of different chromaticity coordinates that lie at or near the blackbody locus or curve. Similarly, the lighting control device and the corresponding lighting load of the controllable light source 122 may be configured to produce light in colors of varying chromaticity coordinates that lie along the blackbody locus or curve. As another example, such lighting control devices and their corresponding light loads may be further configured to produce any of a plurality of colors within the range of colors formed by the various LEDs that comprise the lighting load.Each lighting control device and its respective lighting load may be configured to increase and / or decrease the color saturation of objects in a load control environment. For example, the lighting control device 114 and / or the controllable light source 122 may control or respond to a vibrancy parameter that is configured to adjust the spectrum of light emitted by the lighting loads to control the color saturation of objects in the load control environment. The vibrancy parameter may allow the lighting control device 114 and / or the controllable light source 122 to adjust individual colors that produce light to a given color (e.g., color temperature or full color). The vibrancy parameter may allow the lighting control device 114 and / or the controllable light source 122 to control light saturation given chromaticity coordinates.The vibrancy parameter allows the lighting control device 114 and / or the controllable light source 122 to control the power provided to the LEDs of the corresponding lighting loads to adjust the overall spectral power distribution of the light source, which can affect the color of light (e.g., reflected light) on objects within the load control environment. Increases and decreases in the value of the vibrancy parameter can increase and / or decrease the color saturation of objects in the area without changing the color of the light emitted by the lighting loads when the occupant of the space looks directly at the lighting loads. In one example, the vibrancy parameter can be a value between zero and one hundred percent to increase and / or decrease the color saturation of objects in the load control environment.Changing the value of the vibrancy parameter may cause the lighting control device 114 and / or the controllable light source 122 to decrease or increase the intensity of one or more white LEDs (e.g., white or substantially white LEDs) that make up the respective lighting loads (e.g., the lighting loads 112 or the lighting load of the controllable light source 122). For example, increasing the value of the vibrancy parameter may decrease the intensity of one or more white LEDs that make up the respective lighting loads (e.g., the lighting loads 112 or the lighting load of the controllable light source 122), and therefore increase the color saturation of objects in the load control environment. Decreasing the value of the vibrancy parameter may thus increase the intensity of one or more white LEDs that make up the respective lighting loads (e.g.,, the lighting loads 112 or the lighting load of the controllable light source 122), and thereby decrease the color saturation of objects in the load control environment. Changing the vibrancy parameter value in this manner may also include changing the intensities of other LEDs (e.g., red, green, and / or blue LEDs) of the lighting loads (e.g., the lighting loads 112 or the lighting load of the controllable light source 122) to maintain the same color output and / or intensity level of the lighting loads (e.g., to maintain the same (or approximately the same within one or more MacAdam ellipses) chromaticity coordinates of the mixed color output of the lighting loads) and / or the same lumen output of the lighting loads.However, adjusting the vibrancy value may adjust a spectral energy distribution of the light, which may adjust the light reflected by objects in space. For example, as the vibrancy value increases, a spectral energy distribution curve (e.g., spectrum) of the emitted light (e.g., relative intensity versus wavelength) may become sharper and / or may make individual colors of objects appear more vibrant when light is reflected off them. An example of such a lighting control device and respective lighting load is described as lighting device 38 of U.S. Patent No. 10,237,945, issued March 19, 2019, entitled ILLUMINATION DEVICE, SYSTEM AND METHOD FOR MANUALLY ADJUSTING AUTOMATED PERIODIC CHANGES IN EMULATION OUTPUT , the contents of which are incorporated herein by reference in their entirety.It will be recognized that other examples of lighting control devices and respective lighting loads are possible. The mobile device 150 may discover control devices (e.g., input devices and / or charging control devices) by receiving control device beacons transmitted from the control devices. The control device beacons may be beacons transmitted from the control devices and include a unique identifier that identifies the corresponding control devices (e.g., input devices and / or charging control devices). For example, a control device beacon may include a serial number or other unique identifier that corresponds to a respective control device. The beacon may include an address (e.g., a network address), a unique identifier, and / or any other type of device identification data.Control device beacons may also, or alternatively, include a unique device type identifier for the corresponding control device. For example, control device beacons may include an identifier for lighting control devices, sensors (e.g., occupancy sensors, etc.), remote control devices, and / or other types of control devices. The control device beacons may be transmitted via RF communication signals 104 from control devices in the load control system 100. For example, the control device beacons may be transmitted from the lighting fixture 110, the controllable light source 120, the occupancy sensor 130, the remote control device 132, and / or another type of control device. Additionally, the control device beacons may be transmitted via RF communication signals 102. The RF communication signals 102 and the RF communication signals 104 may be wireless communication signals that communicate via the first wireless communication protocol. The RF communication signals 102 and the RF communication signals 104 may be of a different signal type (e.g., protocol, bandwidth, etc.).For example, the RF communication signals 104 may be communicated via a first wireless communication protocol, such as a short-range wireless communication protocol, while the RF communication signals 102 may be communicated via a second wireless communication protocol that is different from the first wireless communication protocol and that may be used for communications between control devices (e.g., load control devices and input devices). One of the RF communication signals (e.g., the RF communication signals 102) may be used to control electrical loads during operation of the load control system 100, and one of the RF communication signals (e.g., RF communication signals 104) may be used to discover control devices and start the load control system 100. The RF communication signals 102, 104 may be communicated via a communication circuit (e.g., a transceiver) in the respective control devices, or via a separate beacon transmitting device. Beacon transmitting devices for a control device may be included in or near the control device to indicate a relative location of the corresponding control device by transmitting beacons from the control device. The RF communication signals 102 may be communicated via the same communication circuit as the RF communication signal 104, or a different communication circuit. The load control system 100 may include one or more beacon transmitting devices which may be location beacon transmitting devices, such as a beacon transmitting device 180. The beacon transmitting device 180 (e.g., the location beacon transmitting device) may be located at a workstation 182. The location beacon transmitting device may communicate a beacon (e.g., a location beacon) via RF communication signals 102 and / or 104. The beacon transmitted by the location beacon transmitting device may include a beacon that communicates a unique identifier. The beacon may be associated with a location in which the location beacon transmitting device resides, such as the workstation 182, an office, a conference room, a portion of an office or conference room, or other location. The beacon transmitted by the location beacon transmitting device may include a unique identifier that the mobile device 150 and / or the system controller 140 may associate with a physical location where the location beacon transmitting device resides. If multiple location beacons are discovered, the user may associate the unique identifier of the beacon with the strongest signal strength with the nearest physical location. The physical location may also, or alternatively, be determined from the geolocation of the mobile device 150. The mobile device 150 may discover the beacon transmitted by the location beacon transmitting device to configure and / or control one or more control devices in the load control system. For example, the mobile device 150 may discover the beacon transmitted by the location beacon transmitting device and may associate the unique identifier of the beacon with the discovered unique identifier of one or more control device beacons (e.g., beacons transmitted by control devices). The control devices that are associated with the unique identifier of the beacon transmitted by the location beacon transmitting device may be collectively controlled when the mobile devices discover the location beacon transmitting device. The beacons may be transmitted from the control devices and / or the location beacon transmitting device periodically, or in response to a trigger event. The trigger event may be the receipt of a message. The trigger event may be sent in a message from the mobile device 150 or another device (e.g., the occupancy sensor 130, the remote control device 132, or another input device). The system controller 140 may automatically control communication of the beacons by communicating a message based on a periodic trigger event (e.g., the expiration of a timer). In response to a message, the control devices and / or the location beacon transmitting device may enter a configuration mode and begin transmitting beacons. The message may trigger a transmission of a beacon or a periodic transmission of beacons over a period of time. The transmission of the beacons may be triggered by a message transmitted on the same or different RF communication signals and / or protocol and / or channels. For devices capable of two-way communications on the RF communication signals 104, the mobile device 150 may send a message to the devices on the RF communication signals 104 that causes the devices to communicate beacons on the RF communication signals 102. Since the transmission of the beacons may be performed as a one-way communication from a controlling device, the transmission of the beacons may be triggered by a message sent on another communication protocol and / or using another communication signal. For example, the controlling devices may receive a message via the RF communication signals 102. Q f ! Qn / 77n7 / q / YΙΛΙ RF 102 which activates the transmission of beacons from the control devices in the load control system on RF 104 communication signals. The message triggering transmission of the beacons may be communicated to the control devices and / or the location beacon transmitting device directly or indirectly through another device. For example, the mobile device 150 may send a message to the system controller 140 to trigger transmission of the beacons from the control devices in the cargo control system. Another message may be sent from the system controller 140 using RF communication signals 102 to trigger transmission of the beacons from the control devices and / or the location beacon transmitting device. The control devices configured to receive the RF communication signals 102 may begin transmitting the beacons using the RF communication signals 104. The trigger event may be the activation of a button on a device. One-way communication devices and / or two-way communication devices may transmit beacons in response to the actuation of a button on the device. The device identifier (e.g., device identification data) received in the beacons from a device may be used to determine the device identifier for communicating with the device on another network or network protocol. For example, mobile device 150 may receive the beacon from lighting fixture 110 via RF communication signals 102 and the unique identifier in the beacon may correspond to the unique identifier for communicating with the lighting fixture on another network using RF communication signals 104. The unique identifier on each network or network protocol may have a different format, but may include a portion of the identifier (e.g., the primary identifier) ​​that is reused on each network to facilitate communication. The mobile device 150 may interpret the information received at the beacons and perform commissioning and / or control of the charging control system 100, or the mobile device 150 may send the information to another device to enable commissioning and / or control. For example, the mobile device 150 may send the information received at the beacons and / or user input received at the mobile device 150 to the system controller 140 to configure and / or control the charging control system 100. The mobile device 150 may discover the beacons and determine the beacon identifiers. The mobile device 150 and / or the system controller 140 may select the beacon identifiers to be configured and / or reviewed. Each of the discovered beacons may be selected for configuration and / or control, or beacons that are discovered above a received signal strength discovery threshold (e.g., RSSI) may be selected for configuration and / or control. The received signal strength discovery threshold may QJRJ Qn / zznz / q / YILI define a discovery range (e.g., an area around the mobile device 150 and / or system controller 140 in which control devices may be discovered). The mobile device 150 and / or system controller 140 may group the control devices identified through the beacons and associate the devices to enable charging control in the charging control system 100. The mobile device 150 and / or system controller 140 may automatically add the identifiers of the selected beacons to a group of control devices to associate them to enable charging control. The control devices of the charging control system 100 may communicate with each other over a communication link, which may comprise one or more network communication links via a wireless communication network. The control devices may join the network and / or connect to other devices on the network (e.g., to form a mesh network). When the devices are initially installed in the charging control system 100, the control devices in the system may join the network by exchanging credentials that may be used to establish network communication links with other devices on the network. The network credentials may be exchanged with a network commissioning device, such as the mobile device 150 and / or the system controller 140, during commissioning of the charging control system 100.Each of the control devices can attempt to connect to another device on the network to form the mesh network (e.g., mesh formation). FIG. 2A is an illustration of an exemplary network 200 that may enable communication between control devices in a charging control system (e.g., charging control system 100). Network 200 may include any network suitable for facilitating communications in a charging control system. For example, network 200 may be a mesh network in which control devices communicate using a mesh network wireless communication protocol (e.g., the THREAD protocol or other suitable protocol). The various control devices of charging control system 100 may communicate with each other via network 200. As shown in FIG. 2A, network 200 may comprise a single network partition. Furthermore, network 200 may be an example of a network partition (e.g., a subnet) within a larger network.For example, network 200 may be an example of a network partition within a larger network comprised of a plurality of network partitions. Network 200 is an example of a network, and the techniques described herein may be applied to other networks, for example, that include more or fewer control devices than network 200. The circular nodes of FIG. 2A may represent devices that are connected to other devices on the network 200 (e.g., the various control devices of the charging control system 100). A control device that is connected to at least one other control device on the network 200 may communicate with the other control devices (e.g., that are connected to Q ! RI Qn / 77n7 / q / YILI other control device on network 200). Communication within network 200 may be facilitated by network communication links (e.g., connections) established within network 200. Referring to FIG. 2A, the network communication links between devices may be indicated by lines (e.g., solid and dashed lines) connecting the respective control devices. Control devices that are connected to at least one other device in the network 200 may assume and / or be assigned a respective role in the network. For example, roles may include: a leader device (e.g., leader device 210), a router device (e.g., router devices 220a-220d), an end device (e.g., end devices 230a and 230b), a router-enabled end device (REED) (e.g., router-enabled end device 240), a primary device, a secondary device, and / or an idle end device (e.g., idle end device 250). The role of a control device may indicate the functions and / or capabilities of the control device with respect to the network 200.As described herein, end devices may include end devices (e.g., end devices 230a and 230b), router-enabled end devices (e.g., router-enabled end device 240), and / or idle end devices (e.g., idle end device 250). As illustrated in FIG. 2A , the network 200 may include a leader device 210 and one or more router devices 220a-220d. The leader device 210 may manage other control devices on the network 200. For example, the leader device 210 may assign and maintain router identifiers (e.g., router IDs) for each of the router devices 220. For example, each of the router devices 220a-220d may be assigned a unique router identifier. The leader device 210 may assign and maintain the functions of other devices. The leader device 210 may be configured as the gateway for the network 200. For example, the leader device may be a control device that facilitates communication (e.g., routes and receives messages to and from) between the network 200 and other networks or network partitions. Referring to FIG. 1, a system controller (e.g., the system controller 140 shown in FIG. 1) may be an example of a leader device 210. Furthermore, a control device within a load control system that may be assigned to the function of a router device may be assigned to the function of a leader device. The leader device 210 may support and be connected to multiple router devices (e.g., 64 router devices, 32 router devices, or another number of router devices may be defined for the network 200). The leader device 210 may function as a router device. The router devices 220a-220d in the network 200 (e.g., joined to the leader device 210 in the network 200) may be in communication with each other, e.g., to form a mesh network. The router devices 220a-220d may be in communication with each other via network communication links (e.g., as indicated by the solid lines connecting the router devices 220a-220d).The router devices 220a-220d may be in communication with the leader device 210, either directly or through one or more router devices (e.g., as indicated by the solid lines connecting the leader device 210 to the router devices 220a and 220c). The router devices 220a-220d may receive and route messages to other devices in the network 200 (e.g., the end devices 230a, 230b, the router-capable end device 240, and / or the idle end device 250). For example, the router devices 220a-220d may receive and / or transmit messages between devices, or with each other to communicate messages received from one connected device to another connected device to another router device.Referring now to the load control system 100, a device that, for example, is externally powered (e.g., a non-battery powered device) may be assigned the function of a router device, such as the lighting fixture 110, the lighting fixture 120, the occupancy sensor 130, and / or the system controller 140. The network 200 may include one or more end devices 230a, 230b (e.g., full or minimal end devices). The end devices 230a, 230b may be connected to another device (e.g., a parent device, such as the leader device 210 and / or the router devices 220a, 220b, 220c, 220d) in the network 200 and may transmit and / or receive messages through its connected parent device (e.g., leader device and / or router device). Although two end devices 230a, 210b are shown in FIG. 2A , and each is connected to different router devices, each router device 220a-220d may support multiple end devices (e.g., more than 500 end devices). The system controller 140, input devices, and / or load control devices may be examples of the end devices 230a, 230b. Referring again to FIG. 2A , the network 200 may include the router-capable end device 240. The router-capable end device 240 may be an end device capable (e.g., with capable hardware and / or capable software) of becoming a leader device and / or a router device. In certain situations, the role of the router-capable end device 240 may be upgraded to a leader device and / or a router device. For example, when the router-capable end device 240 identifies itself as being within range of an end device attempting to connect to the network 200, the router-capable end device 240 may be upgraded to the role of a router device. The router-capable end device 240 may transmit and / or receive messages through the connected router device 220d. As shown in FIG.2A, the router-capable end device 240 may be one of the end devices that is connected to the router device 220d. A control device that, for example, receives external power (e.g., a control device that is not battery-operated) may be assigned the function of a router-capable end device. The network 200 may include the idle end device 250. The idle end device 250 may include, or may be similar to, an end device. For example, the idle end device 250 may be an end device powered by a finite power source (e.g., a battery). The idle end device 250 may be aware of its role as an idle end device based on, for example, an indication that is stored in the idle end device 250. Communication with the idle end device 250 may be performed such that the finite power source is conserved and / or consumed efficiently. For example, the idle end device 250 may periodically disable its respective communication circuit(s) between message transmissions. The idle end device 250 may transmit and / or receive messages via a connected router device 220a. As shown in FIG.2A, the idle end device 250 may be one of the end devices that is connected to the router device 220a. Input devices (e.g., remote control device 170) and / or load control devices (e.g., motorized shades 150 when battery-operated) may be examples of the idle end device 250. Additionally, sensors and / or battery-operated devices may be examples of the idle end device 250. The leader device 210 may update the roles (e.g., or confirm role updates) of devices communicating within the network 200, for example, based on changes in the network 200. In one example, a controlling device may be assigned a certain role when the device connects to the network 200, and the leader device 210 may update the role of the device based on changes in network conditions. Changes in network conditions may include: increased message traffic, connection of other devices, changes in signal strength, etc. Updates to a controlling device's assigned role may be based on the capabilities of the device.For example, the leader device 210 may upgrade the function of a control device from a router-capable end device to a router device (e.g., as a router-capable end device is an end device that is capable of performing the function of a router device). The leader device 210 may upgrade the function of a control device to a router device by assigning a router ID to the device. As the leader device 210 updates the capabilities of the devices on the network 200, the leader device may maintain the number of router devices on the network 200 and / or the router IDs in use on the network 200. For example, the leader device 210 may store and / or maintain a bit map 217 that may be used to indicate the number of router devices and / or the router IDs in use on the network 200. The bit map Q f R ! Qn / zznz / q / YILI of bits 217 may include a number of bits, each of which corresponds to a different router identifier that is used in the network 200. In one example, the leader device 210 may support 64 router devices and the leader device 210 may store a 64-bit bitmap to track router identifiers in use in the network 200. Each bit in the bitmap may indicate whether the leader device 210 identifies a router identifier as being in use (e.g., with a value of 1) or unused (e.g., with a value of 0). The leader device 210 may determine that a device should be upgraded to a router device and, provided a router identifier is available, assign a router identifier to the router device. The leader device 210 may demote router devices (e.g., to end devices) or remove router devices from the network 200.As router devices are added or removed, bitmap 217 may be updated to indicate the number of router devices and / or router IDs that are in use on network 200. The leader device 210 may send the bitmap 217 to the other router devices in the network 200. Each router device, including the leader device 210, may maintain network information about each of the router devices identified as being used in the network 200. For example, each router device may maintain network information about each of the router devices in a router table, such as the router table 219. For example, the network information in the router table 219 may identify the router devices in the network 200 and the quality of communications that a corresponding router device has with the other router devices maintained in the router table stored locally thereon. Each router table, such as the router table 219, may include a row for each router identifier indicated in the bitmap 217.Each router device in the network, including the leader device 210, may conduct communications within the network 200 based on network information stored and maintained in a locally stored router table. For example, a router device, such as router devices 220a-220d and / or the leader device 210, may transmit messages differently within the network 200 based on the quality of its communications with corresponding router devices identified in a locally stored router table. The control devices connected to the network 200 may further function as master devices and / or slave devices. Leader devices (e.g., leader device 210) and router devices (e.g., router devices 220a-220d) that are connected to one or more end devices (e.g., end devices 230a, 230b, router-capable end device 240, and / or idle end device 250) may function as the master device. End devices (e.g., end devices 230a, 230b, router-capable end device 240, and / or idle end device 250) that are connected to a leader device (e.g., leader device 210) or a router device (e.g., one of router devices 220a-220d) may function as slave devices.As a parent device, the leader device 210 and the router devices 220a-220d may each be connected to one or more child devices (e.g., one or more of the end devices 230a, 230b, the router-capable end device 240, and / or the idle end device 250, as described herein). In addition, the leader device 210 and the router devices 220a-220d may store and / or relay messages that are sent by their respective attached child devices. For example, the leader device 210 and the router devices 220 may receive messages from their respective child devices and route the received messages to the intended recipient device (e.g., directly to the intended recipient device, via the intended recipient device's respective parent device, and / or to a router device or leader device that is along the path to the intended recipient).Similarly, the leader device 210 and the router devices 220a-220d may receive messages destined for their respective child devices and route the message to the appropriate child device. The parent of a respective dormant end device may schedule communications with the dormant end device when the dormant end device's communication circuit is enabled. As indicated in FIG. 2A, the relationship (e.g., connection) between a secondary device and a respective primary device may be indicated by dashed lines. For example, router device 220a may be configured as the primary device of end device 230a and idle end device 250. Similarly, router device 220b may be configured as the primary device of end device 230b. Router device 220a may receive messages destined for end device 230a and forward the message to end device 230a.Since the router device 220a is configured as the parent device of the end device 230a, the end device 230a may transmit messages to the router device 220a, and the router device 220a may route the message to the intended recipient. For example, when the end device 230a attempts to transmit a message to the end device 230b, the end device 230a may initially transmit the message to the router device 220a. The router device 220a may route the message to the router device 220b (e.g., the parent device of the end device 230b). For example, the router device 220a may route the message to the router device 220b through the router device 220c or the router device 220d, and the router device 220b may then forward the message to the end device 230b. Furthermore, as described herein and illustrated in FIG.2A, the router device 220a may route the message to the end device 230b via the router device 220c (e.g., the auxiliary host device of the router device 230b). Secondary devices may be configured to transmit unicast messages to their respective primary devices. A controlling device may transmit unicast messages to another controlling device on the network directly or by hopping through other devices on the network. Each unicast message may be individually addressed to another controlling device by including a unique identifier of the controlling device to which the unicast message is being transmitted. Controlling devices may generate separate unicast messages for each controlling device with which they communicate and address the unicast messages to each controlling device independently. The unicast messages may also include the unique identifier of the controlling device transmitting the unicast message.A controlling device may determine that it is the intended recipient of a unicast message by identifying its own unique identifier in the unicast message. Messages can be sent on the network using multicast messages and / or broadcast messages. Multicast messages can be sent to a group of control devices on the network. A multicast message can include a group identifier. Control devices that are members of the group can recognize the group identifier and process the message accordingly. Broadcast messages can be sent to each control device on the network capable of receiving the message. Broadcast messages can include an indication that the message is a broadcast message (e.g., a broadcast address). Each device that receives a broadcast message can process the message accordingly. A network can use either multicast messages or broadcast messages, and the two terms can be used in a manner that cannot be taught here. Messages transmitted by a secondary device to its respective primary device may include an indication (e.g., a unique identifier) ​​of the intended recipient, and the primary device may route the message accordingly. Referring again to FIG. 2A , end device 230a may transmit messages to router device 220a (e.g., the primary device of end device 230a), and router device 220a may route the message based on the intended recipient. For example, if end device 230a transmits a message intended for end device 230b, router device 220a may route the message to router device 220b (e.g., the primary device of router-capable end device 230b) via router device 220c or router device 220d.For example, if router device 220a routes the message through router device 220d, router device 220d may forward the message to router device 220b, which may forward the message to end device 230b. Router device 220a may identify that router device 220b is the primary device to which end device 230b is connected through a lookup table. As illustrated in FIG. 2A , multiple paths may exist for routing messages through network 200, and the router devices may identify the shortest path (e.g., lowest number of hops) for transmitting messages to a respective device. Child devices may be configured to communicate with an auxiliary parent device (e.g., configured to communicate with more than one parent device). Referring to FIG. 2A , for example, end device 230b may be configured to communicate with (e.g., transmit messages to and receive messages from) a parent device (e.g., a primary parent device), such as router device 220b. End device 230b may also be configured to communicate with (e.g., receive messages from) an auxiliary parent device, such as router device 220c (e.g., as illustrated by the long and short dashed lines in FIG. 2A ). A child device may receive unicast messages from its parent device (e.g., primary parent device). A child device may also receive multicast messages (e.g., and / or transmit messages) from its parent device (e.g.,, primary master device) and one or more auxiliary master devices, which may increase the efficiency and reliability of the secondary device receiving the messages. For example, the secondary device may receive advertising messages from the network through an auxiliary master device. The number of auxiliary master devices with which a secondary device synchronizes may be limited to a threshold number of auxiliary master devices (e.g., 3, 5, 10, etc.). A secondary device may connect to a single primary device and synchronize with one or more auxiliary primary devices. For example, the secondary device may send and / or receive unicast messages through the primary devices. Similarly, the secondary device may receive multicast messages through one or more synchronized auxiliary primary devices. The number of auxiliary primary devices with which a respective secondary device synchronizes may be limited to a threshold number of synchronized auxiliary primary devices, which may be predefined and / or configured. A secondary device may attempt to synchronize with an auxiliary primary device by transmitting a message (referred to herein as a link request message) to the auxiliary primary device. For example, with reference to FIG.2A , end device 230b may have transmitted a link request message to router 220c. The link request message may be used to request a network communication link between two devices. As described herein, messages may be communicated between devices that share a network communication link. In response to receiving the link request message, router device 220c may transmit a message (referred to herein as a link accept message) to end device 230b. The link accept message may include other information that allows the respective secondary device to decode messages from the auxiliary primary device (e.g., a frame counter).As described herein, when a secondary device synchronizes with an auxiliary primary device, the secondary device may receive multicast messages through the synchronized auxiliary primary device. For example, with reference to FIG. 2A , the end device 230b may receive multicast messages through both the primary device (e.g., router device 220b) and the auxiliary primary device (e.g., router device 220c), which may increase the efficiency and reliability of the secondary device 230b receiving multicast messages. A secondary device may receive advertising messages from a router device other than the primary device of the secondary device or a router device that is not an auxiliary primary device of the secondary device. For example, the router device may transmit advertising messages to allow other controlling devices to determine that a network has been formed and the device hearing the advertising message may attempt to connect to the router device (e.g., to communicate over the network). The devices may receive and track advertising messages transmitted by the router devices to determine whether the device can communicate over the network.Additionally, or alternatively, advertisement messages transmitted by a respective router device may provide other router devices with the ability to measure a communication quality metric of the communication signal (e.g., via a received signal strength indicator value) between the respective routers connected to the network (e.g., which the router devices may use to update their respective routing tables or routing information). As described herein, the secondary device may measure the received signal strength indicator (RSSI) or other communication quality metric of the received advertisement messages. Certain messages may be propagated and transmitted by multiple devices in the network 200, which may increase the likelihood that a respective secondary device will hear a message. For example, instead of sending multiple transmissions, multicast messages that are substantially similar may be broadcast (e.g., messages that include the same load control instructions that are sent to multiple load control devices). Referring again to the load control system 100, activating a button on the remote control device 170 may adjust the intensity of multiple lighting loads (e.g., lighting load 122 and plug-in lighting load 142), and a message may be transmitted to adjust the respective lighting loads. Furthermore, devices receiving the broadcast transmission may be configured to process and repeat (e.g.,, forward the message across the network or act as a repeater) the message in response to receiving the broadcast transmission. Secondary devices may create and maintain a secondary primary table. The secondary primary table may include a list of secondary primary devices with which a respective secondary device is configured to communicate (e.g., synchronized with and / or capable of receiving multicast messages). In addition, the secondary primary table may include an indication of received signal strength (e.g., an RSSI) for each of the secondary device's secondary primary devices. For example, the secondary primary table may include a moving average of the received signal strength indicators for each of the secondary device's secondary primary devices. Similarly, secondary devices may create and / or maintain a router table.The router table may include the router devices from which a respective secondary device has received messages (e.g., advertising messages). In addition, the router table may include an indication of the RSSI or other communication quality metric of the messages received from each of the router devices in the router table. Additionally, or alternatively, the secondary devices may maintain a generic router table. The router table may include each of the routers from which a respective secondary device has received messages and a received signal strength indicator for each of the respective router devices. The router table may also include an indication of whether a respective router device is a primary device with respect to the secondary device or an auxiliary primary device with respect to the secondary device.As used herein, the term primary auxiliary table may refer to a table separate from the router table or a subset of the router table that includes the router devices that are the synchronized primary auxiliary devices of the secondary device. As described herein, the network 200 may allow communication between devices in a charging control system (e.g., the charging control system 100 shown in FIG. 1 ). The end devices 230a, 230b may include charging control devices and / or gateway devices that communicate with other devices in the charging control system. For example, the end device 230a may communicate with another end device and / or a router device in the charging control system via RF communications. A control device may connect to another control device on a network or network partition (e.g., network 200 illustrated in FIG. 2A ) to allow the device to communicate (e.g., transmit and / or receive messages) across the network. A control device may initiate connection to another control device on a network by transmitting a primary solicitation message (e.g., a multicast primary solicitation message) to discover potential devices. Q t R ! Qn / zznz / q / YILI principals. A controlling device may broadcast a principal solicitation message to discover and / or connect to a principal device (e.g., router devices) and / or leader devices). A controlling device may broadcast the principal solicitation message as a multicast message, e.g., to identify devices that are connected to a network that may act as principal devices of the controlling device. Potential master devices (e.g., leader device 210 and / or router devices 220 of network 200) that receive a master request message (e.g., a multicast master request message) may respond by transmitting a master response message. For example, potential master devices that receive a multicast master request message may each transmit a master response message (e.g., as a unicast message) to the controlling device that transmitted the master request message. A master response message may indicate that the controlling device transmitting the master response message is available to act as a master device.Accordingly, a control device transmitting a primary request message may receive a plurality of responses to the primary request message and determine a primary to synchronize with based on the received primary response messages. The control device transmitting the primary request message may identify the received signal strength indicator (RSSI) associated with the response messages and attempt to attach it to the primary device having the largest received signal strength indicator for the response message. Because multiple control devices transmit primary request messages as multicast messages within the same time period, each of the primary devices may receive multiple primary request messages at the same time or within a short period of time. The number of primary request messages received by a primary device may prevent the primary devices from fully processing previously received connection request messages. In addition, the primary response messages transmitted by each of the primary devices that receive the primary request message may be transmitted at the same time or substantially at the same time.The number of leader request messages and leader response messages transmitted within the same time period may congest the network due to the number of devices on the network (for example, each leader device may support more than 30 router devices and each router device may support more than 500 end devices) and / or cause the messages to conflict with each other, which may result in one or more of the leader request messages or leader response messages not being received correctly. When a control device attempting to connect to another control device on the network does not receive a leader response message, the control device may fail to connect to the other control device on the network, which may increase the amount of time to complete network formation.When each of the devices in the load control system receives power, many control devices may attempt to connect to other control devices on the network by transmitting master request messages at the same time or within the same time period. A control device attempting to connect to another control device on a network may be configured to delay connecting to the network to allow other control devices to connect to the control devices on the network. As described herein, when control devices attempt to connect to another control device on a network, a plurality of messages may be transmitted at the same time or substantially at the same time, which may increase the likelihood of message conflicts on the network. Accordingly, a control device attempting to connect to another control device on the network may delay connecting to the network when the control device determines that another control device is attempting to connect to a control device on the network.For example, the control device may delay connecting to the network by adding time to a backoff timer, and when it expires, the control device may attempt to connect to a control device on the network. A control device may decrease the frequency at which the control device attempts to synchronize with a supporting host device and / or decrease the number of synchronized supporting hosts to improve the likelihood of connection and / or synchronization when sending requests. Similar to connecting to a network, when a control device attempts to synchronize with a supporting host device, a plurality of messages may be transmitted at the same time or substantially at the same time, which may increase the likelihood of message conflicts on the network. Accordingly, the control device may decrease the frequency with which the control device attempts to synchronize with a supporting host device (e.g., decrease the execution speed of a procedure to synchronize with a supporting host device), which may decrease the likelihood of message conflicts.In addition, the control device can reduce the number of synchronized master and slave devices, which can also reduce the likelihood of message conflicts. FIG. 2B is an illustrative example of a network 200a having a plurality of network partitions 201, 202, 203 (e.g., separate network partitions). As illustrated in FIG. 2B, the network partition 201 may include the following primary devices: a leader device 211 and router devices 221a, 221b, 221c, 221d. In addition, the network 201 may include secondary devices, such as: end devices 231a, 231b; router-friendly end device 241; and idle end device 251. For example, each of the router devices 221a-221d in the network partition 201 may be assigned a unique router identifier. The network partition 202 may include the following primary devices: a leader device 212 and router devices 222a, Q f R ! Qn / 77n7 / q / YΙΛΙ 222b, 222c, 222d. Additionally, network 202 may include secondary devices, such as: end devices 232a, 232b; router-friendly end device 242; and idle end device 252. For example, each of the router devices 222a-222d in network partition 202 may be assigned a unique router identifier. Network partition 203 may include a single primary device, leader device 213, and a single end device, end device 223. As illustrated in FIG. 2B, network partition 203 may include a leader device 213 and an end device 223. Network partition 203, however, may not include a router device. Rather, the leader device 213 may function as the only router device within the network partition 203. A leader device that is not connected or synchronized with a router device may be referred to as a singleton device.For example, leader device 213 may be a singleton device. As illustrated in FIG. 2B, a singleton device may be connected to one or more child devices (e.g., end device 223). Network partition 203 may be a singleton partition. As illustrated in FIG. 2B, a singleton partition may include a leader device (e.g., leader device 213). Furthermore, a singleton partition may include one or more end devices (e.g., end device 223). However, as illustrated in FIG. 2B, a singleton partition may not include a router device. Network 200a may enable communication between control devices in a load control system (e.g., load control system 100). In addition, network partitions 201, 202, 203 may be formed as a result of certain control devices being unable to connect to an already formed network partition. For example, as described herein, a control device may attempt to connect to another control device in a network partition by broadcasting a lead request message (e.g., a multicast lead request message). However, if the control device does not receive a response to the lead request message (e.g., because the control device is out of communication range of the router devices in an already formed network partition), the control device may attempt to form its own network partition (e.g., become a leader device of a new network partition). A control device that cannot connect to one network partition may form another network partition. For example, referring to FIG. 2B , the leader device 213 may have been unable to connect to a router device in the network partitions 201, 202 (e.g., because the leader device 213 was out of communication range of the router devices in the network partitions 201, 202). Accordingly, the leader device 213 may form the network partition 203, and the end device 223 may connect to the network partition 203. Similarly, the leader device 212 may have been unable to connect to the network partitions 201, 203 (e.g., because the leader device 213 was out of communication range of the router devices in the network partitions 201, 202). e.g., because the leader device 212 is out of the communication range of the router devices of the network partitions 201, 203) and forms the network partition 202. A network partition may be associated with a partition identifier (e.g., a partition ID). The partition identifier may be assigned randomly or pseudo-randomly (e.g., randomly assigned from a range or list of identifiers). For example, a priority of the respective network partition may be based on the partition identifier for the network partition. The partition identifier may be assigned by randomly selecting a number from a range of partition identifier values. The partition identifier may be selected on a leader device and broadcast in advertisement messages to other devices that may connect to the leader device. Referring now to FIG. 2B , network partitions 201, 202, 203 may each be associated with a respective partition identifier.For example, network partition 202 may be assigned a partition identifier of 1, network partition 203 may be assigned a partition identifier of 2, and network partition 201 may be assigned a partition identifier of 3. Although the partition identifiers of network partitions 201, 202, 203 are sequential (e.g., to provide a simplified explanation), the assignment of the partition identifiers to the network partition may be sequential, non-sequential, and / or random. As described herein, a partition identifier may also be an indication of a priority of the respective network partition 201, 202, 203. For example, the partition identifier may also be a priority value of the respective network partition 201, 202, 203 (for example, the respective priorities of the network partitions 201, 202, 203 may be 3, 1, and 2).A higher or lower partition identifier may indicate a higher priority value for the network partition priority (for example, then network partition 201 may be a higher priority network partition than network partitions 202, 203 depending on the partition identifier). A priority may be assigned to a respective network partition based on the controlling devices (e.g., router devices and / or end devices) in the network partition. For example, a network partition having at least one router device in addition to the leader device may receive a higher priority than a network partition having only one leader device and no other router devices. Referring to FIG. 2B , network partition 201 may have a higher priority than network partition 203 since network partition 201 has router devices 221a-221d and network partition 203 has no router devices besides the leader device. Additionally, a priority may be assigned to a respective network partition based on a plurality of controlling devices (e.g., router devices and / or end devices) in the network partition. Referring to FIG.2B , network partition 201 may have a higher priority than network partition 203 because network partition 201 may have a higher number of controlling devices in the network partition. Each controlling device in a network partition may have the number of controlling devices in the network partition stored locally. Network partitions having the same number of controlling devices may be given different priorities using different partition identifiers, as described herein. For example, as shown in FIG. 2B , network partition 201 and network partition 202 may have the same number of controlling devices (e.g., router devices and / or end devices). Network partition 201 may have a higher priority based on whether network partition 201 has a higher or lower partition identifier. As control devices are connected to each of the network partitions 201, 202, 203, the effective communication range of each of the network partitions may increase. Furthermore, control devices that were initially unable to connect to one or more of the network partitions 201, 202, 203 (e.g., because the control device was previously outside the communication ranges of all of the network partitions) may subsequently be able to connect to one of the network partitions 201, 202, 203. Furthermore, communication within a load control system may be better facilitated when a single network partition is formed (e.g., network 200 having a single network partition as illustrated in FIG. 2A) as compared to when multiple network partitions are formed (e.g., network 200a having multiple network partitions 201, 202, 203 as illustrated in FIG. 2B).For example, communication within a load control system may be better facilitated when a single network partition is formed because a device in one network partition may not be able to transmit messages to control devices connected to another network partition (e.g., a device in one network partition may not be able to communicate with other devices outside of the network partition). Accordingly, if a control device connected to a first network partition is also within communication range of a second network partition, the device may attempt to disconnect from the first network partition and connect to the second network partition. For example, a control device may disconnect from the first network partition and connect to a second network partition when the priority of the second network partition is higher than the priority of the first network partition. Each of the router devices connected to each of the network partitions 201, 202 may be associated with a communication range. The communication range of each of the respective router devices may be predefined and / or preconfigured. For example, the communication range of each of the respective router devices may be predefined and / or preconfigured based on the hardware components of each of the respective router devices. The effective communication range of a respective network or network partition may be based on the communication range of the router devices connected to the respective network (e.g., a sum of the communication range of each of the router devices connected to the respective network). As a result, the communication range of a respective network or network partition may increase as the number of router devices connected to the respective network increases.As described herein, control devices connected to a lower priority network partition may attempt to connect to a higher priority network partition. For example, control devices connected to network partition 202 may attempt to connect to network partition 201 (e.g., to the extent that network partition 201 has a priority value of 3 and network partition 202 has a priority value of 1). Router device 222a may receive an advertisement from a device connected to network partition 201 (e.g., from router device 221d). The advertisement may include an indication of the partition identifier of network 201 (e.g., 3) which may be greater than the partition identifier of network partition 202 and may indicate that network partition 201 is a higher priority network partition than network 202.The router device 222a may determine to connect to the network partition 201 (e.g., since the network partition 201 has a higher priority). The router device 222a may attempt to connect to the network partition 201 by transmitting a request to the leader device of the network partition 201 (e.g., the leader device 211). The request may include a request to connect to the network partition 201 as a router device, for example, requesting to connect to the network partition 201 and be assigned a certain router ID. For example, the router device 222a may request to connect to the network partition 201 and be assigned the router ID that the router device 222a has assigned in the network partition 202. In response, the leader device 211 may reject the request if another router device 212a-212d attached to the network partition 201 has already been assigned the requested router ID.The leader device 211 may accept the request if none of the router devices 212a-212d connected to the network partition 201 are assigned the requested router ID. If the router device 222a connects to the network partition 201 and is assigned the requested router ID, the child devices of the router device 222a (e.g., the end device 232a and the idle end device 252) may automatically connect to the network partition 201. For example, when the child devices communicate with the router device 222a using the router ID.If the leader device 211 of the network partition 201 assigns the router device 222a the requested identifier (e.g., the router identifier assigned in the network partition 202), the child devices may continue to communicate with the router device 222a using the same router identifier. FIGS. 2C and 2D are illustrations of an example network 200b as the network 200b progresses or advances in network formation. As illustrated in FIG. 2C, the network 200b may include a leader device 214 and an end device 234a. Since the network 200b is in the initial stages of network formation, the network 200b may not yet include a router device. The end device 234a may, as a result, connect to the leader device 214 (e.g., since no other router devices yet exist in the network 200b). However, the network communication link (e.g., the primary / secondary link) between the leader device 214 and the end device 234a may be weak (e.g., the received signal strength indicator of messages received by the end device 234a may be approximately -60 dB).For example, the network communication link between the leader device 214 and the end device 234a may be weak because the leader device 214 and the end device 234a are not located near each other. If the network communication link between the leader device 214 and the end device 234a is weak, the probability of message transmission and / or reception failures between the leader device 214 and the end device 234a may increase. FIG. 2D illustrates network 200b during a later stage of network formation than the network formation stage illustrated in FIG. 2C. As illustrated in FIG. 2D, network 200b may grow to include additional control devices as network formation progresses (e.g., as time progresses). For example, network 200b may grow to include router devices 224a, 224b. Furthermore, router devices 224a, 224b may be positioned near end device 234a (e.g., positioned closer to end device 234a than leader device 214).Furthermore, the received signal strength indicators of the messages transmitted by the router devices 224a, 224b and received by the end device 234a may be strong (e.g., stronger than the received signal strength indicators transmitted by the leader device 214 and received by the end device 234a, such as -35 dB and -30 dB, respectively). Therefore, the possible network communications links (e.g., possible parent / child links) between the router devices 224a, 224b and the end device 234a may be stronger than the network communications link between the leader device 214 and the end device 234a. Furthermore, as illustrated in FIG.2D, a potential network communications link between the router device 224b and the end device 234a may be stronger than a potential network communications link between the router device 224a and the end device 234a (e.g., since the router device 224b is placed closer to the end device 234a than the router device 224a). As network formation progresses or advances, additional devices may be connected to the network. As a result, end device 234a may experience improved communication over network 200b if end device 234a determines to disconnect from an initial parent device (e.g., leader device 214) and connect to an updated parent device (e.g., router device 224a or router device 224b). For example, as described herein, the updated parent device may be positioned closer to end device 234a than the initial parent device (e.g., so that the updated parent device and end device 234a may have a stronger network communication link), which may increase the likelihood of successful message transmission and / or reception.As a result, as network formation progresses, the end device may determine whether to connect to an updated primary device. Although FIGS. 2C and 2D are described using an example where the relative positioning of devices may increase or decrease the shared network communication link between two devices, other conditions may affect the shared network communication link between two devices {e.g., line of sight, interference, signal obstructions, etc.). To that extent, the hypothetical cases in FIGS. 2C and 2D are merely examples to illustrate that a network may change over time and that changes to the network may be considered to attempt to improve communications across the network. FIG. 2E is an illustration of an exemplary network 200c. As illustrated in FIG. 2E, network 200c may include a leader device 215 and router devices 225a, 225b, 225c, 225d, 225e, 225f. In network 200c, the router devices (e.g., leader device 215 and router devices 225a, 225b, 225c, 225d, 225e, 225f) may periodically transmit advertising messages that may be used to calculate the cost and / or quality of communications on network 200c. For example, router device 225c may send an advertising message that is received by leader device 215, and leader device 215 may send an advertising message that is received by router device 225c. Each router device may measure the received signal strength indicator (RSSI) of the received advertisement message and calculate a link quality at which the advertisement message is received {e.g., link quality in (LQI)). Each router device (e.g., leader device 215 and router devices 225a, 225b, 225c, 225d, 225e, 225f) may send an advertisement message as a multicast message. Advertisement messages broadcast by one router device may be received by neighboring router devices that share a one-hop network link with the router device broadcasting the advertisement messages. A one-hop network link may be capable of communicating messages from one router device via unicast and / or multicast communication directly to another router device. For example, router devices 225a, 225c may be neighboring devices that share a one-hop network link with leader device 215, since router devices 225a, 225c may send messages directly to and / or receive messages directly from leader device 215.The single-hop network link may be a network communication link on which devices (router device 225c), other routing devices may similarly calculate link quality for network communication links between neighboring routing devices. The LQI of the network communication links measured locally at each controlling device (e.g., leader device 215 and router device 225c) may be exchanged with the other device on the network communication link. For example, the LQI may be measured locally at each controlling device and transmitted to the other device via an advertisement message. The LQI measured by another router device (e.g., on the other side of the network communication link) and received at a router device may be stored as a link quality of output (LQO) for the network communication link.The LQI and / or LQO may be stored in a local router table on each routing device. For example, leader device 215 may store the LQI and / or LQO for the network communication link with each router device in network 200c in a router table 229. Similarly, router device 225c may store the LQI and LQO for communicating with each router device in network 200c in a router table 261. As described herein, each of the router tables 229, 261 may identify network information for communicating with each router in the network 200c from the perspective of the devices on which the router tables 229, 261 are stored. The number of router devices in the network 200c and / or the router IDs in use in the network 200c may be determined from a bitmap 227, as described herein. The bitmap 227 may be maintained by the leader device 215 and distributed to the other routing devices to locally maintain their router tables. For example, the router devices 225a, 225c may receive the bitmap 227 and update their local routing tables. Bitmap 227 may indicate the number of rows in the router tables (e.g., indicating the number of router devices identified on the network) and / or router identifiers to include in the router tables.The router devices may maintain updated network information for the router identifiers indicated in the router tables. The updated network information in the router tables may include the LQI and / or LQO for the network communication link between the router devices identified in bitmap 227. For example, router 225c may receive bitmap 227 from leader device 215 and update router table 261 to include the router devices in table 261 that are indicated in bitmap 277, or remove router devices in table 261 that are indicated in bitmap 277 that cannot be used on the network. The leader device 215 and the router devices 225a, 225b, 225c, 225d, 225e, 225f may each use LQI and LQO in their respective router tables to calculate a link cost for communicating on a network communication link with other router devices. The link quality for the network communication link between the two router devices may be the lower of a link quality value for messages being transmitted (e.g., LQO) and a link quality value for messages being received (e.g., LQI) on a single-hop communication link between the two devices. An LQO or LQI of zero may indicate that the router device does not have a direct network communication link to the router device listed in the router table. A link cost for sending communications between devices on a network link may directly correspond to the link quality of the communications on the network link. The link cost may indicate a relative cost or loss of communications on the network link. FIG. 2F is an example table 262 illustrating examples of link costs that may correspond to different link qualities. As shown in FIG. 2F, a higher link quality may correspond to a lower link cost for communications on the network communication link between two neighboring devices. The link cost for each network communication link may be used by a router device to calculate a path cost for communications between the router device and another device on the network 200c. The path cost may indicate the relative cost or loss of communications over an entire communication path that may include one or more router devices. The path cost for one communication path may be compared to another to determine a higher quality communication path for sending digital communications that may have a lower relative cost associated with message transmission. The path cost may indicate the total cost of communicating a message from a start router device to a stop router device. For example, the path cost may be calculated as the total of the link costs for each hop between the start router device from which a message may originate and the stop router device at which the message may be received on network 200c. Each router device may calculate the path cost to a neighboring device on a single-hop network link as if it were equal to the link cost and store the path cost in the locally stored router table. For example, router device 225c may set the path cost for communications with leader device 215 equal to the link cost (e.g., lower of LQI and LQO) on the network communication link and store the path cost in router table 261.Similarly, router device 225c may set the path cost for communications with router device 225b equal to the link cost (e.g., lower of LQI and LQO) on a network link and store the path cost in the router table. Each router device (e.g., leader device 215 and router devices 225a, 225b, 225c, 225d, 225e, 225f) may update the path cost for communicating messages to / from each router device in its respective router table based on path cost information received from another router device. For example, since router device 225b may not be able to directly communicate with leader device 215, router device 225b may receive path cost information for communicating messages through another router in network 200c. Router 225c may broadcast the path cost for communicating messages to / from leader device 215 (e.g., path cost = 2) in a multicast message that is received by other router devices. The multicast message may be an advertisement message, for example.The router device 225b may receive the path cost for communicating messages between the leader device 215 and the router device 225c (e.g., path cost = 2). To calculate the total path cost for communicating messages between the router device 225b and the leader device 215 via the router device 225c, the router device 225b may add the link cost for communications between the router device 225b and the router device 225c (e.g., link cost = 1) to the path cost received from the router device 225c (e.g., path cost = 1) to obtain a total path cost (e.g., path cost = 3).The link cost for communications between the router device 225b and the router device 225c may be determined from the network communication link quality between the router device 225b and the router device 225c, which may be the lower of LQI and LQO of the network communication link (e.g., link quality = 3). Each router device may send / broadcast an advertisement message including the path cost to one or more router devices in the network 200c. The router devices that receive the path cost information from the router device that sent the advertisement message may update their respective path cost information in their local router tables (e.g., by adding their link cost for communications with the router device that sent the advertisement message to the path cost in the received message). Each router device may use the locally stored path cost information to identify the path over which the messages may be communicated. For example, messages broadcast from router device 225b to leader device 215 may communicate via either router device 225a or router device 225c.The router device 225b may receive respective advertisement messages from the router device 225a and the router device 225c indicating that the path cost for communicating messages between the router device 225a and the leader device 215 is the same as the path cost for communicating messages between the router device 225c and the leader device 215 (e.g., path cost=2 on each network link). The router device 225b may add the calculated link cost for communicating messages between the router device 225b and the router device 225c (e.g., link cost=1) to the path cost information received in the advertisement message from the router 225c (e.g., path cost=2) to determine the total path cost for communicating with the leader device 215 via the router device 225c (e.g., total path cost=3).The router device 225b may similarly add the calculated link cost for communicating messages between the router 225b and the router 225a (e.g., link cost = 2) to the path cost information received in the advertisement message from the router 225a (e.g., path cost = 2) to determine the total path cost for communicating with the leader device 215 via the router device 225a (e.g., total path cost = 4). The router device 225b may update a locally stored router table with the lowest calculated path cost for communicating with the leader device 215 and / or the identifier of the router device through which the messages will be transmitted (e.g., router 225c). Each router device may similarly update its respective locally stored router table with the lowest calculated path cost for communicating with the other router devices in the network 200c.For example, as shown in FIG. 2E, the leader device 215 and the router device 225c may each calculate the lowest path cost for communicating with other router devices in the network 200c and store the path cost in respective router tables 229, 261. The routing tables 229, 261 may also have stored the next hop router identifier from the respective devices 215, 225c through which messages will be communicated to achieve the calculated path cost for communications to the destination router device. By periodically updating the link quality (e.g., LQI and / or LQO), link cost, and / or path cost and communicating the path cost to other router devices in periodic advertisement messages, each router device may have updated path cost information to communicate messages to other router devices in the network 200c. The router device may use the best communication path (e.g., the lowest cost path) to communicate messages to another device. This routing mechanism may allow router devices to detect when other router devices have disconnected from the network 200c, or if the path cost between routers has changed, and calculate the next lowest cost path to maintain connectivity with other router devices in the network 200c. In an effort to distinguish relatively older data being transmitted in the periodic advertisement messages from relatively newer data transmitted in the periodic advertisement messages, the advertisement messages may be communicated with a sequence number. The leader device, such as leader device 215, may be responsible for updating the sequence number and distributing the updated sequence number to the other router devices in the network (e.g., router devices 225a, 225b, 225c, 225d, 225e, 225f in network 200c). For example, leader device 215 may increment the sequence number periodically (e.g., after the transmission of one or more advertisement messages) and / or after Q f R ! Qn / zznz / q / YILI of adding a router device to the network. The sequence number may be updated to allow router devices in the network (e.g., leader device 215 and / or router devices 225a, 225b, 225c, 225d, 225e, 225f in network 200c) to identify updated network information transmitted in advertisement messages. For example, as router devices (e.g., leader device 215 and / or router devices 225a, 225b, 225c, 225d, 225e, 225f in network 200c) may be periodically communicating advertisement messages that include path cost information indicating the path cost to communicate with other router devices in the network, the sequence number may be updated to identify the updated path cost information. After the leader device 215 updates the sequence number, the leader device 215 may distribute the sequence number to other router devices in the network. For example, the leader device 215 may use the sequence number in its own advertising messages. After receiving the updated sequence number, each router device may use the updated sequence number for subsequent advertising messages transmitted from the router device in the network. Each sequence number transmitted from the leader device 215 to the other router devices may be used in advertising messages for the router devices until the leader device 215 distributes a subsequent sequence number. For example, the router device 225c may receive the sequence number directly from the leader device 215 and use the sequence number in subsequent advertising messages.The router device 225b may receive the sequence number in advertisement messages transmitted from the router device 225c and use the sequence number in subsequent advertisement messages transmitted from the router device 225b. Each of the routers may use the current sequence number until an updated sequence number is received originating from and distributed to the leader device 215. Each router device may update locally stored network information in the router table when the router device receives an advertisement message from a non-leader router device (e.g., router devices 225a, 225b, 225c, 225d, 225e, 225f) that has an updated sequence number.If a router device receives an advertisement message that has the same sequence number as a previously received advertisement message, and / or previously received from the same non-leader router device, the router device may fail to process the advertisement message. If a router device does not receive an updated sequence number within a predefined period of time (e.g., minutes, seconds, etc.), the router may assume that the leader device 215 is unavailable for communications (e.g., offline, powered off, drops from the network, changes role, or is unable to communicate with the router device) and attempt to form another network or network partition that has another leader device 215. FIG. 3 illustrates a representative load control environment 301 in which a load control system 300 (e.g., similar to load control system 100 shown in FIG. 1) may be implemented to configure and / or control one or more load control devices. The load control system 300 may include a plurality of lighting fixtures 310a-310d. Each of the lighting fixtures 310a-310d may comprise one or more lighting loads and a lighting control device for controlling the intensity and / or color of the lighting loads of the respective lighting fixture. Each of the lighting fixtures 310a-310d may comprise a controllable light source, such as the controllable light source 120 shown in FIG. 1. As described herein, the controllable light sources of the lighting fixtures 310a-310d may each comprise a plurality of different colored LEDs to enable the controllable light source to emit light of different colors (e.g., full color or color temperature values). Each controllable light source may be configured such that the chromaticity output of the LEDs is mixed to produce light with varying wavelength combinations and chromaticity coordinates (e.g., color points) within a color gamut formed by the various LEDs comprising the lighting load.For example, each of the controllable light source lighting loads may include one or more red LEDs, one or more green LEDs, one or more blue LEDs, and one or more white LEDs (which may be collectively referred to herein as an RGBW lighting load). Although the RGBW LED light source is described herein as having a combination of four LEDs of certain colors, other combinations of LEDs (e.g., more or fewer LEDs and / or LEDs of different colors) may be used. The lighting control devices of the lighting fixtures 310ad-310d may operate the respective lighting loads according to operating configurations in response to messages received from the input devices. The input devices of the load control system 300 may comprise a remote control device 332 and / or sensors 334a-334d (e.g., occupancy sensors, daylight sensors, visible light sensors, and / or other sensing devices) mounted on the respective lighting fixtures 310a-310d. A single sensor may also, or alternatively, communicate with the lighting control device on the respective lighting fixtures 310a-310d. The load control system 300 may also comprise a system controller 340 and / or a user device, such as a mobile device 350, which may also function as input devices.For example, mobile device 350 may comprise a smartphone and / or a tablet. The lighting control device of each of the lighting fixtures 31 Oa-31 Od may operate in different modes. For example, the lighting control devices of the lighting fixtures 310a-310d may operate in an operating mode to receive messages from the input devices and control the intensity and / or color of the emitted light of the corresponding electrical load according to the operating configuration defined therein (or defined in another device from which the control instructions are received). By controlling the color of the light emitted by the lighting loads of each of the lighting fixtures 31Oa-31 Od, the load control devices may adjust the lighting intensity level (i.e., brightness) of each of the LEDs to emit light in the color indicated in the operating configuration in response to the messages received from the input devices.As shown in FIG. 3, the lighting control device of the lighting fixtures 31 Oa-31 Od may provide feedback to an occupant 308 (e.g., an installer or other system user) of the load control environment 301. The feedback may be provided by the lighting control devices entering a feedback mode and controlling the respective lighting loads to flash and turn off or illuminate a color and / or intensity. The feedback may be provided by a lighting control device to indicate diagnostic or configuration information that may be stored in memory of the lighting control devices of the lighting fixtures 31 Oa-31 Od, the system controller 340, and / or other locations in the load control system 300.The feedback may be provided to indicate configuration or diagnostic information that may assist a user in configuring, troubleshooting, and diagnosing problems with the network on which the lighting fixtures 31 Oa-31 Od or other control devices in the load control system 300 may be operating. For example, the diagnostic or configuration information may include network information on which the lighting control devices of the lighting fixtures 31 Oa-31 Od may be operating on the network. The network information may include, for example, network data, system configurations, and / or device status data. For example, a command may be used to identify a set of devices in an area grouping, and / or to display any devices that have logged a particular fault condition. The lighting control devices in each of the lighting fixtures 31 Oa-31 Od may enter a feedback mode in response to a trigger event. The trigger event may be the receipt of a message or the activation of a button on the lighting control device. The trigger event may comprise one or more predefined criteria for activating the feedback mode that may be sent in a feedback message to the lighting control devices in each of the lighting fixtures 31 Oa-31 Od. The predefined criteria may include a group identifier, such as a device type identifier, an area identifier, a zone identifier, a load control system identifier, a manufacturer identifier, or other identifier for identifying a group of control devices, as described herein.The predefined criteria may include a threshold at which one or more messages will be received. For example, the predefined criteria may include a threshold (e.g., RSSI) at which the feedback message will be received at the load control device. The predefined criteria may include a threshold (e.g., RSSI) at which one or more different messages are received from an input device, the mobile device 350, the system controller 340, and / or another device in the load control system. Feedback messages including a feedback mode trigger event may be received directly from the mobile device 350 and / or through another device (e.g., remote control device 332, system controller 340, or other device). The feedback message may be transmitted via a first wireless communication protocol (e.g., RF communication signals 302) or a second wireless communication protocol (e.g., via RF communication signals 304). The RF communication signals 304 may be communicated via a short-range wireless communication protocol, such as BLUETOOTH or BLE, while the RF communication signals 302 may be communicated via another wireless communication protocol. The trigger event may be sent in a message in response to an occupant trigger 308 on the mobile device 350 (e.g.,, activation of a programmable button on a screen 352 of the mobile device to activate a type of feedback). As described herein, the system controller 340 may instruct the lighting control devices of the lighting fixtures 310a-310d to enter a feedback mode. The system controller 340 may instruct the lighting control devices of the lighting fixtures 310a-310d to enter a feedback mode in response to the trigger events described herein (e.g., pressing a button on the system controller or receiving a message from another device). The system controller 340 may instruct the lighting control devices of the lighting fixtures 310a-310d to enter a feedback mode in response to a feedback message from the mobile device 350, an occupancy sensor, or other control device.The system controller 340 and / or the mobile device 350 may send a message to lighting control devices of the lighting fixtures 310a-310d that are within communication range instructing the lighting control devices to enter feedback mode. The system controller 340 and / or the mobile device 350 may direct the feedback message to specific lighting control devices to instruct the specific lighting control devices to. Q ! RI Qn / 77n7 / q / YILI enter feedback mode. The feedback message may be transmitted as a unicast message that includes the unique identifier of one or more lighting control devices to which the feedback message is addressed, or a multicast message that includes a group identifier that identifies a group of lighting control devices to which the feedback message is addressed (e.g., devices in an area, such as a room, a floor, or other area). The occupant 308 may actuate a button on the mobile device 350 to cause the mobile device 350 to enter a feedback mode and / or to transmit (e.g., periodically transmit) a beacon message (e.g., a mobile device beacon message) that activates the feedback mode on one or more lighting control devices in the lighting fixtures 310a-310d. The mobile device 350 may transmit the mobile device beacon messages via the second wireless communication medium (e.g., RF communication signals 304 via a short-range wireless communication link). The mobile device beacon message may include, for example, a beacon identifier.For example, the beacon identifier may be a unique identifier that identifies the mobile device 350 (e.g., or an application running on the mobile device 350) and / or a non-unique identifier, such as an identifier for a group, area, building, load control system, and / or manufacturer of the mobile device. The beacon message from the mobile device may also include a received signal strength discovery threshold. The load control devices may receive the beacon message from the mobile device and may compare a signal strength (e.g., RSSI) at which the beacon message is received from the mobile device with the received signal strength discovery threshold.Each of the controlling devices may enter the feedback mode when it receives the particular beacon identifier from the mobile device and / or the signal strength of the received mobile device beacon message is greater than or equal to the received signal strength discovery threshold (e.g., the controlling device is within a discovery range of the mobile device 350). The particular beacon identifier may be predetermined and / or stored in the memory of the controlling devices. The mobile device 350 may adjust the received signal strength discovery threshold included in the mobile device beacon message to adjust the range of devices entering the feedback mode. As the occupant 308 moves around the load control environment 301 with the mobile device 350, lighting control devices of lighting fixtures 310a-310d that are within discovery range of the mobile device 350 may provide feedback. When the lighting control devices of the lighting fixtures 310a-310d begin receiving beacon messages from the mobile device as the occupant 308 moves, those lighting control devices may enter feedback mode and begin providing feedback to the occupant 308 and / or the mobile device 350. For example, the lighting control devices of the lighting fixtures 310a-310d may begin providing visual feedback to the occupant 308 (e.g., change a color, change an intensity level, and / or provide other feedback).Furthermore, when the lighting control devices of the lighting fixtures 310a-310d move out of the discovery range of the mobile device 350 and / or fall out of the wireless range of the mobile device 350 (e.g., they stop receiving the beacon message from the mobile device) as the user moves, those lighting control devices may exit feedback mode after a timeout period (e.g., one minute). As a result, those lighting control devices may stop providing visual feedback (e.g., turn off). Occupancy sensing techniques may be implemented to select control devices to enter a feedback mode. Sensors 334a-334d (e.g., occupancy sensors) in respective lighting fixtures 310a-310d may be used to select lighting fixtures 310a-310d to provide feedback. The lighting control devices of lighting fixtures 310a-310d may operate in a setup or commissioning mode and may receive wired or wireless signals from their respective sensors 334a-334d to trigger feedback to be provided in a feedback mode. When sensor 334a detects an occupancy condition, a signal may be sent from sensor 334a to the lighting control device of lighting fixture 310a.The signal indicating the occupancy condition may be used as a feedback message during the commissioning or configuration mode to cause the lighting fixtures 31 Oa-31 Od to ​​enter a feedback mode and provide feedback in response to the occupancy condition. For example, the lighting fixture 310a may provide feedback in response to the occupancy condition indicated by the sensor 334a. The occupancy sensors 334a-334d may identify different activity levels. For example, the occupancy sensors 334a-334d may identify major motion events (e.g., above a predefined high-end motion level) and minor motion events (e.g., below a predefined low-end motion level) within the viewable area of ​​the occupancy sensor. The occupancy sensor 334a-334d may detect an occupancy condition by identifying the defined occupancy state or the defined activity level. The occupant 308 may walk under the lighting fixture 310a and perform a major motion event (e.g., waving their hand faster or other movement above a predefined level). Q f R ! Qn / 77n7 / q / YILI a predefined threshold) to trigger an occupancy condition that may be identified by occupancy sensor 334a. Occupant 308 may walk beneath a group of lighting fixtures 310a-310d to be detected by corresponding occupancy sensors 334a-334d, and lighting fixtures that identify the user based on the user's occupancy in the walking path may be selected to enter a feedback mode. Lighting fixtures 310a-310d may provide feedback in response to corresponding occupancy sensors 334a-334d identifying the threshold level of activity of occupant 308. Lighting control devices that have been selected at corresponding lighting fixtures 310a-310d may provide feedback as described herein (e.g.,, feedback indicating device network roles, communications quality, background noise, etc.). The lighting control devices of lighting fixtures 31 Oa-31 Od may receive a feedback message from other control devices in the load control system 300. For example, the lighting control device of lighting fixture 310a may receive a feedback message from the lighting control device of lighting fixture 31 Od. The feedback message may indicate a type of feedback to be provided.For example, the lighting control device of lighting fixture 31 Od may be a secondary device of the lighting control device of lighting fixture 310a on the network and may send a feedback message to the lighting fixture 310a configured to cause the lighting control device of lighting fixture 310a to indicate its role as a primary device of the lighting control device of lighting fixture 31 Od. The lighting control device of lighting fixture 31 Od may send the feedback message in response to a beacon of mobile device 350, an occupancy condition, or other trigger event as described herein. After entering the feedback mode, the lighting control devices of the lighting fixtures 31 Oa-31 Od may provide feedback to the occupant 308 and / or the mobile device 350. For example, after entering the feedback mode (e.g., in response to receiving the beacon message from the mobile device or occupancy conditions), the lighting control devices of the lighting fixtures 31 Oa-31 Od may provide visual feedback to the occupant 308 and / or the mobile device 350. The visual feedback may correspond to a type of feedback requested in the messages from the mobile device 350, or the type of feedback may be pre-programmed into the lighting fixtures 31 Oa-31 Od. The visual feedback may be provided by changing a state of the lighting load on the respective lighting fixtures 31 Oa-31 Od. For Q ! R ! Qn / zznz / q / YILI example, the lighting fixture 310a may provide visual feedback by changing a color to indicate diagnostic or configuration information stored in the lighting fixture 310a to the occupant 308 and / or mobile device 350. Additionally, or alternatively, the visual feedback may be provided by turning the lighting load on and off, increasing and / or decreasing the intensity level of the lighting load, increasing and / or decreasing the color temperature of the lighting load, and / or providing other visual feedback to the occupant 308. The type of feedback may be indicated in the mobile device beacon message transmitted by the mobile device 350, in another message transmitted to the lighting control device of the lighting fixture 310a, and / or may be preprogrammed and stored in the lighting control device of the lighting fixture 310a. As shown in FIG. 3, lighting fixture 310a may be illuminated with a different color to provide a different type of feedback than the other lighting fixtures 310b-310d. The different types of feedback may indicate different network information for configuring, troubleshooting, and diagnosing problems on the network over which the lighting fixtures 310a-310d may be communicating. Visual feedback may also, or alternatively, be provided by turning the lighting load on and off, increasing and / or decreasing the intensity level of the lighting load, increasing and / or decreasing the color temperature of the lighting load, and / or providing other visual feedback for the occupant 308. The type of feedback may be indicated in messages from the mobile device 350, and / or may be pre-programmed and stored in the lighting fixtures 310a-310d.The occupant 308 may select the lighting control devices of the lighting fixtures 310a-310d to provide different types of feedback. For example, the feedback provided by the lighting fixtures 310a-310d may indicate different configuration or diagnostic information associated with the lighting fixtures 310a-310d. Feedback messages sent to the lighting fixtures 310a-310d may indicate the feedback to be provided, or the feedback may be pre-programmed based on receipt of a message or detection of occupancy conditions. The feedback may be provided using a color value of a total light output of the emitted light produced by the lighting load. For example, the lighting control device of the lighting fixture 310a may have the lighting load provide feedback via a color of the total light output emitted by the lighting fixture 310a. For example, the total light output of the lighting fixture 310a may be controlled to a given RGB value, a color temperature value, or chromaticity coordinates. In another example, the feedback may be provided in one or more predefined wavelength bands. As the occupant 308 may run diagnostics or perform configuration of the lighting control devices of the lighting fixtures 310a-310d while the space is occupied and / or being used by other occupants, controlling the total light output of the lighting fixtures 310a-310d to different colors (e.g., RGB colors) may be unacceptable or distracting to the other occupants in the load control environment 301. As such, the lighting control device of the lighting fixture 310a being in the feedback mode may control the lighting load to output light in one or more predefined wavelength bands to provide the feedback in a manner that is less distracting to the occupants. The spectral tunability of the lighting control devices and lighting loads in lighting fixtures 310a-310d may allow for the creation of metamers such that the combination of wavelengths in two different light spectra are visually the same to occupants of the load control environment 301. A lighting load that includes multiple LEDs or other light sources of different colors (e.g., three or more LEDs) may emit light of the same color (e.g., color temperature value or full color value) using a mixture of different wavelength combinations.As such, the lighting control device of lighting fixture 310a may be activated to enter a feedback mode that is configured to signal feedback in predefined bands of wavelengths of the emitted light to create differences in the light spectra emitted by the corresponding lighting load from the light spectra emitted by the lighting loads of lighting fixtures 310b-310d that are operating in accordance with other operating parameters to emit light. The differences in the light spectra emitted by the lighting load of lighting fixture 310a and the light spectra emitted by the lighting loads of each of lighting fixtures 310b-310d may not be perceptible to the occupant 308 since the lighting loads may be producing the same color (e.g., color temperature or overall color value) using different combinations of wavelengths.If the occupant 308 is diagnosing or configuring the devices in the load control system, the occupant may identify feedback signaling in predefined wavelength bands by using one or more optical filters to detect differences in light in the predefined wavelength bands. For example, the occupant 308 diagnosing or configuring the devices in the load control system may use a notch filter or a band-pass filter to filter out the light emitted by the lighting load of the lighting fixture 310a that is in feedback mode. The notch filter or band-pass filter may be integrated into a lens through which the occupant 308 can view the emitted light.For example, the notch filter or band-pass filter may be integrated into the lenses of a pair of eyeglasses 309 or a lens on a camera on the mobile device 350 through which the occupant 308 may view the light emitted by the lighting load of the lighting fixture 310a. The optical filter through which the occupant 308 views the light emitted by the lighting load of the lighting fixture 310a may be configured such that the filter is aligned with predefined wavelength bands through which feedback is signaled. The lighting loads of the other lighting fixtures 31 Ob-31 Od may provide light of the same color (e.g., color temperature or full color value) using a different wavelength combination that is relatively unaffected by the optical filter.As such, the occupant 308 may identify a visible difference in the lighting load of the lighting fixture 310a when the optical filter is applied to the emitted light and / or identify a visible difference in the light emitted by the lighting load of the lighting fixture 310a and the light emitted by the lighting loads of the lighting fixtures 31 Ob-31 Od when the optical filter is applied to each. The occupant 308 may identify the visual feedback provided. The occupant 308 may configure and / or reconfigure the load control system 100 using the mobile device in response to the feedback provided. For example, the occupant 308 may update operating settings utilizing one or more of the lighting control devices of the lighting fixtures 31 Oa-31 Od and transmit the operating settings to the load control devices and / or the system controller 340 to be stored therein to enable load control in response to the operating settings. The operating settings may include network information used by the lighting control devices to communicate over the network. One or more of the lighting fixtures 31 Oa-31 Od may enter feedback mode to provide feedback at a given time. The feedback may identify network information for configuring, troubleshooting, and / or diagnosing problems on the network over which the lighting fixtures 31 Oa-31 Od or other control devices in the load control system 300 may communicate. The network information that may be provided as feedback by the lighting fixtures 31 Oa-31 Od may include the different network functions that the lighting control devices of the lighting fixtures 31 Oa-31 Od are assigned on the network. The lighting control devices of the lighting fixtures 31 Oa-31 Od may be capable of providing feedback that identifies other network information.For example, lighting control devices in lighting fixtures 31 Oa-31 Od may be capable of providing feedback indicating the quality of communications on the network. Quality may be indicated by link quality on a given communication link or the path cost for a communication path. Q ! R ! Qn / 77n7 / q / YILI given. The lighting control devices of lighting fixtures 310a-310d may provide feedback indicating the background noise being measured at the respective control device. The feedback may be provided by one or more lighting control devices of the lighting fixtures 310a-310d in the load control system 300. For example, the feedback may be provided by each of the lighting control devices of the lighting fixtures 310a-310d. The feedback may be provided by each of the lighting fixtures 310a-310d to identify different network information at the lighting control devices. The feedback may be provided in response to a request in the feedback message transmitted to the one or more devices. For example, the predefined criteria may include a request for certain devices to provide feedback (e.g., devices that have certain network information stored, such as functions, link quality, etc.), so that the occupant can identify the devices.The feedback may be provided as a feedback heat map in the charging control system 300 indicating grid information in the space in which the charging control system is installed, for example. A heat map may be a scale from a first color to a second color. For example, the heat map may be a scale from green to red that includes different colors on the scale (e.g., red to indicate the lowest level of grid communication, orange to indicate the next best level of grid communication, yellow to indicate the next best level of grid communication, and green to indicate the best level of grid communication).In one example, to indicate background noise, the lighting control devices of the lighting fixtures 31 Oa-31 Od may illuminate a corresponding red lighting load where there may be a relatively high noise level to indicate that there may be communication errors and provide a scale for a green color in relatively noise-free environments. A similar type of scale may be used to indicate other types of network information, such as link quality, for example. A subset of the lighting control devices of the lighting fixtures 31 Oa-31 Od may provide feedback that identifies a communication path between devices capable of communicating with each other in the load control system 300. Based on feedback provided to occupant 308 by one or more of the lighting fixtures 31 Oa-31 Od, occupant 308 may select one or more of the lighting fixtures 31 Oa-31 Od (e.g., on mobile device 350) to modify the operating settings associated with the selected lighting fixtures 31 Oa-31 Od. The lighting control devices of the lighting fixtures 31 Oa-31 Od may be displayed to the occupant 308 on the user interface 352 of the mobile device 350. The lighting control devices 310a-310d that have been selected for configuration and / or control may provide visual feedback to the occupant 308. For example, the lighting control devices 310a-310d that have been selected for configuration and / or control may turn on or off, flash, set to a predefined intensity, and / or change to a predefined color. The feedback provided may be based on the current operating configuration or long-term operating configuration. For example, the lighting control devices in the lighting fixtures 310a-310d may provide live feedback of network information, which may be updated as the network information is updated in real-time. This may allow the occupant 308 to view real-time changes in the network on which the lighting control devices operate, including changes in response to changes in operating configuration by the occupant 308. The long-term network information may include average values ​​over a defined period of time, such that the occupant 308 may identify long-term information in the network that may not be readily visible to the occupant 308 using real-time information. FIG. 4 is a block diagram illustrating an example of a device 400 capable of processing and / or communicating in a load control system, such as the load control system 100 of FIG. 1 or the load control system 300 of FIG. 3. In one example, the device 400 may be a control device capable of transmitting or receiving messages. The control device may be an input device, such as a sensor device (e.g., an occupancy sensor or other sensor device), a remote control device, or other input device capable of transmitting messages to load control devices or other devices in the load control system. The device 400 may be a computing device, such as a mobile device, a system controller, or other device in the load control system. The device 400 may include a control circuit 402 for controlling the functionality of the device 400. The control circuit 402 may include one or more general purpose processors, dedicated processors, conventional processors, digital signal processors (DSPs), microprocessors, integrated circuits, a programmable logic device (PLD), application specific integrated circuits (ASIOs), or the like. The control circuit 402 may perform signal coding, data processing, image processing, power control, input / output processing, or any other functionality that enables the device 400 to function as one of the devices in the charging control system (e.g., charging control system 100 and / or charging control system 300) described herein. or ¡ ri Qn / zznz / q / υιλι The control circuit 402 may be communicatively coupled to a memory 404 for storing information in and / or retrieving information from the memory 404. The memory 404 may include non-removable memory and / or removable memory. The non-removable memory may include random access memory (RAM), read-only memory (ROM), a hard drive, or any other type of non-removable memory storage. The removable memory may include a subscriber identity module (SIM) card, a removable memory, a memory card, or any other type of removable memory. The memory 404 may be implemented as an external integrated circuit (IC) or as an internal circuit of the control circuit 402. The device 400 may include one or more communication circuits 408 that are in communication with the control circuit 402 to send and / or receive information as described herein. The communication circuit 408 may perform wireless and / or wired communications. The communication circuit 408 may be a wired communication circuit capable of communicating on a wired communication link. The wired communication link may include an Ethernet communication link, an RS-485 serial communication link, a 0-10 volt analog link, a Digital Addressable Lighting Interface (DALI) digital communication link, and / or another wired communication link. The communication circuit 408 may be configured to communicate over power lines (e.g.,, the power lines from which the device 400 receives power) using a power line carrier (PLC) communication technique. The communication circuit 408 may be a wireless communication circuit that includes one or more RF transmitters, receivers, transceivers, or other communication modules capable of performing wireless communications. Although a single communication circuit 408 may be illustrated, multiple communication circuits may be implemented in the device 400. The device 400 may include one communication circuit configured to communicate via one or more wired and / or wireless communication protocols and at least one other communication circuit configured to communicate via one or more wired and / or wireless communication protocols. For example, a first communication circuit may be configured to communicate via a wired or wireless communication link, while another communication circuit may communicate via another wired or wireless communication link. The first communication circuit may be configured to communicate via a first wireless communication link (e.g., a wireless network communication link) using a first wireless protocol (e.g.,, a wireless network communication protocol, such as CLEAR CONNECT (e.g., CLEAR CONNECT A and / or CLEAR CONNECT X) and / or THREAD protocols), and the second communication circuit may be configured to communicate via a second wireless communication link (e.g., a direct or short-range wireless communication link) using a second wireless protocol (e.g., a short-range wireless communication protocol, such as the BLUETOOTH and / or BLUETOOTH LOW ENERGY (BLE) protocols). One of the communication circuits may comprise a beacon transmitting and / or receiving circuit capable of transmitting and / or receiving beacon messages via a short-range RF signal. The control circuitry 402 may be in communication with one or more input circuits 414 from which inputs may be received. The input circuitry 414 may be included in a user interface for receiving input from the user. For example, the input circuitry 414 may include an actuator (e.g., one or more physical buttons) that may be activated by a user to communicate the user's input or selections to the control circuitry 402. The actuator may be actuated to place the control circuitry 402 into an association mode and / or communicate association messages from the device 400 or signal other information to the control circuitry 402. The actuator may be actuated to perform control by transmitting control instructions indicating the actuation to the user interface and / or control instructions generated in response to the actuation.The actuator may include a touch-sensitive surface, such as a capacitive touch surface, a resistive touch surface, an inductive touch surface, a surface acoustic wave (SAW) touch surface, an infrared touch surface, an acoustic pulse touch surface, or other touch-sensitive surface that is configured to receive inputs (e.g., touch actuations / inputs), such as point actions or gestures from a user. The control circuitry 402 of the device 400 may enter association mode, transmit an association message, transmit control instructions, or perform other functionality in response to a user actuation or input on the touch-sensitive surface. The input circuitry 414 may include a sensing circuit (e.g., a sensor). The sensing circuitry may be an occupant sensing circuit, a color temperature sensing circuit, a visible light sensing circuit (e.g., a camera), a daylight sensing circuit, or an ambient light sensing circuit, or other sensing circuitry for receiving inputs (e.g., sensing an environmental characteristic in the surroundings of the device 400). The control circuitry 402 may receive information from one or more of the input circuitry 414 and process the information to perform functions as described herein. The control circuitry 402 may be in communication with one or more output sources 412. The output sources 412 may include one or more indicators (e.g., visible indicators, such as LEDs) for providing indications (e.g., feedback) to a user. The output sources 412 may include a display (e.g., a visible display) for providing information (e.g., feedback) to a user. The control circuitry 402 and / or the display may generate a software-generated graphical user interface (GUI) for display on the device 400 (e.g., on the display of the device 400). qjrj on / zznz / q / υιλι The user interface of the device 400 may combine features of the input circuitry 414 and the output sources 412. For example, the user interface may have buttons that are activated by actuators of the input circuitry 414 and may be illuminated by visible indicators or LEDs of the output sources 412. In another example, the display and the control circuitry 402 may be in two-way communication, in that the display may display information to the user and include a touch screen capable of receiving input from a user. The information received through the touch screen may be capable of providing the indicated information received from the touch screen as information to the control circuitry 402 to perform functions or control. Each of the hardware circuits within the device 400 may be powered by a power supply 410. The power supply 410 may include an AC power supply or a DC power supply, for example. The power supply 410 may generate a supply voltage Vcc to power the hardware modules within the device 400. FIG. 5 is a block diagram illustrating an example load control device 500. The load control device 500 may be a lighting control device, for example. The load control device 500 may be a dimmer switch, an electronic switch, an electronic ballast for lamps, an LED driver for LED light sources, or other load control device. The load control device 500 may include a communication circuit 502. The communication circuit 502 may include an RF receiver, an RF transceiver, or other communication module capable of performing wired and / or wireless communications. The communication circuit 502 may also be in communication with a control circuit 504. The control circuit 504 may include one or more general purpose processors, dedicated processors, conventional processors, digital signal processors (DSPs), microprocessors, integrated circuits, a programmable logic device (PLD), application specific integrated circuits (ASICs), or the like. The control circuit 504 may perform signal coding, data processing, power control, input / output processing, or any other functionality that enables the charging control device 500 to operate as described herein. The control circuit 504 may store information in and / or retrieve information from a memory 506. For example, the memory 1006 may maintain a device database of associated device identifiers and / or executable instructions for performing as described herein. The memory 506 may include non-removable memory and / or removable memory. The memory 506 may include an operating configuration from which control instructions may be generated for controlling a load control circuit 1008 during operation in an operating mode. The memory 506 may include configurations from which control instructions may be generated for controlling the load control circuit to provide feedback across the electrical load 510 during a feedback mode.The load control circuit 508 may receive instructions from the control circuit 504 and may control the electrical load 510 based on the received instructions. The load control circuit 508 may receive power via the hot connection 512 and the neutral connection 514 and may provide an amount of power to the electrical load 510. The electrical load 510 may include a lighting load or any other type of electrical load. The control instructions may include instructions for controlling an intensity level of one or more of multiple LEDs (e.g., RGBW LEDs) that comprise the lighting load. The control circuit 1004 may receive information from the occupancy sensor 522. The information received from the occupancy sensor may include an indication of an occupancy condition or a vacancy condition. The occupancy sensor 522 may include an infrared (IR) sensor, a visible light sensor, or other sensor capable of detecting motion. The occupancy sensor may send an indication to the control circuit 504 in response to the detection of motion (e.g., a major motion event or a minor motion event). The control circuit 504 may communicate with the beacon transmitting circuit 524 (e.g., a short-range communication circuit) to transmit beacons. The beacon transmitting circuit 524 may communicate beacons via RF communication signals, for example. The beacon transmitting circuit 524 may be a one-way communication circuit or a two-way communication circuit capable of receiving information on the same network and / or protocol as the beacons are transmitted. The information received at the beacon transmitting circuit 524 may be provided to the control circuit 504. The control circuit 504 may illuminate a visual indicator 518 to provide feedback to a user. For example, the control circuit 504 may flash or strobe the visual indicator 518 to indicate an occupancy condition identified by the occupancy sensor 522, that a feedback mode has been entered, or to provide other feedback from the load control device 500. The control circuit 504 may operate to illuminate the visual indicator 518 of different colors. The visual indicator 518 may be illuminated, for example, by one or more light-emitting diodes (LEDs). The load control device 500 may comprise more than one visual indicator. The control circuit 504 of the charging control device 500 may control the electrical load 510 in different modes. For example, the control circuit 504 may control the electrical load 510 according to the operating configuration in an operating mode. The control circuit may receive a trigger event to enter a feedback mode and subsequently provide feedback indicating diagnostic or configuration information, which may be stored in the memory 506 of the charging control device. FIG. 6 is a flowchart depicting an exemplary method 600 for providing feedback indicating diagnostic or configuration information to a load control device. For example, the load control device may be a lighting control device that can control an amount of power provided to a lighting load of a lighting fixture.The method 600 may begin at 602. At 604, the load control device may control the electrical load according to the operating configuration. For example, the load control device may be a lighting control device capable of receiving an input for controlling the lighting load according to the operating configuration. The input may be received in a message from an input device (e.g., an activation of a button on a remote control device or a sensor measurement event from a sensor device) or may be received locally (e.g., an activation of a button on a dimmer). The message may include control instructions generated according to the operating configuration, or the load control device may generate the control instructions in response to the operating configuration stored in memory locally.The control circuit of the load control device may receive the input (e.g., via activation or via a message received from another device), retrieve operating settings for the received input that are stored in memory, and generate control instructions for controlling a corresponding electrical load in response to the stored operating settings. For example, the control device may be a lighting control device that may receive a message that includes an indication of the activation of a button on a remote control device and, in response to the indication in the message, generate control instructions for controlling a color (e.g., color temperature or full color value) and / or an intensity of a corresponding lighting load through its load control circuit.At 606, the control circuit of the charging control device may determine whether it has received a trigger event to activate a feedback mode to indicate diagnostic or configuration information. For example, the control circuit of the control device may receive a feedback message through a communication circuit that receives RF signals from another device, and the feedback message may comprise the trigger event configured to activate a feedback mode for identifying configuration or diagnostic information. The feedback message may be transmitted from a user device (e.g., mobile device 150, 350) or a system controller (e.g., the system controller). 140, 340) to activate the feedback mode to indicate configuration or diagnostic information on one or more devices. The user device or system controller may transmit the message to the lighting control device using a wired communication link or a wireless communication link using a wireless communication protocol. Although the messages from the user device or system controller are provided as examples for activating the load control device, the load control device may provide feedback based on other predefined criteria of the activation event (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. The feedback message may be transmitted as a broadcast message or a multicast message to trigger feedback or further processing on multiple control devices. The feedback message may be transmitted as a unicast message to trigger feedback or further processing on a single control device. For example, the feedback message may be transmitted as a unicast message directly from the user device or system controller to cause a specific control device to provide diagnostic or configuration information. The unicast message may include a unique identifier of the control device and function as a request for the control device to provide feedback. The trigger event in the feedback message may include one or more predefined criteria indicating the device or devices intended to provide feedback. The predefined criteria may include the unique identifier in the unicast message itself or the group identifier in the multicast message itself. The predefined criteria may include another group identifier, such as a device type identifier, network function (e.g., leader devices, router devices, end devices, router-enabled end devices (REED), primary devices, secondary devices, and / or idle end devices), an area identifier, a zone identifier, or another identifier to identify a group of controlling devices.The device type identifier may identify different types of control devices, such as lighting control devices, motorized shades, input device types (e.g., sensor devices, remote control devices, etc.), system controllers, or other types of control devices in the load control system. The predefined criteria may include a signal strength threshold at which one or more messages will be received. For example, the predefined criteria may include a threshold (e.g., RSSI) at which the feedback message will be received in the control device's communication circuit. The predefined criteria may include a threshold (e.g., RSSI) at which one or more messages are received from an input device, a user device, a controller, or other device. Q f R ! Qn / 77n7 / q / YILI system and / or other device in the load control system. For example, predefined criteria may include a request for certain devices to provide feedback (e.g., devices that have certain network information stored on them, such as functions, link quality, etc.), so that the occupant can identify the devices that requested information stored on them. If the control circuit determines that it has received a trigger event at 606, the control circuit of the control device may determine whether the trigger event in the feedback message is intended to trigger feedback to be provided by the control device at 608. For example, the control circuit of the control device may identify the trigger event and / or one or more predefined criteria for activating a feedback mode in the load control device. The control circuit may compare the one or more predefined criteria defining the trigger event in the feedback message with information that is stored locally in memory to determine whether the control device is intended to provide the feedback. If the control circuitry determines that the load control device is intended to provide feedback, the load control device may provide feedback via a corresponding electrical load, at 610, and the method 600 may terminate at 612. For example, a lighting control device may provide feedback via a corresponding lighting load. If the load control device's control circuitry determines that it is not intended to provide feedback based on the feedback message, the method 600 may terminate at 612. For example, the feedback message may include a unique identifier of another lighting control device indicating that the trigger event is intended to activate feedback mode in another lighting control device.If the control circuit of the control device determines that it is not intended to provide feedback based on the feedback message, the control device may maintain its current operating configuration in the operating mode. For example, a lighting control device may maintain control of the power provided to at least the LED according to the operating mode (e.g., maintaining color, color temperature, and / or intensity). In another example, the lighting control device may reduce an intensity level of one or more LEDs (e.g., LEDs within a predefined band of wavelengths) to differentiate the light emitted from a corresponding lighting load from lighting loads that provide feedback. If the control circuit of the control device determines that it is intended to provide feedback, the control circuit may provide the feedback to indicate diagnostic or configuration information through the electrical load. The feedback information Q ! R ! Qn / 77n7 / q / YILI Diagnostic or configuration information may include network information associated with the lighting control device and the network. For example, the network information indicated in the feedback may include a network function (e.g., leader devices, router devices, end devices, router-enabled end devices (REED), master devices, slave devices, and / or idle end devices) of the control device. The network information indicated in the feedback may include a link quality or a link cost of one or more network communication links to another device on the network. For example, the link quality may be the link quality to a master device from the control device on the network. The network information indicated in the feedback may include a noise floor value indicating a noise floor at the location of the control device.The network information indicated in the feedback may include an indication of whether the lighting control device is a primary or secondary device on a network. The network information indicated in the feedback may indicate that the control device is on a communication path in a mesh network between two devices on the network. The control circuit of the lighting control device may provide feedback by controlling the amount of power provided to the at least one LED through the load control circuit to indicate configuration or diagnostic information associated with the lighting control device. For example, the control circuit may provide feedback by controlling the at least one LED to a predefined color (e.g., color temperature or full color value) or intensity level to indicate configuration or diagnostic information associated with the lighting control device. The predefined color (e.g., color temperature or full color value) may be indicated using a total light output of the lighting load. For example, if the lighting load comprises one or more LEDs (e.g., RGBW LED light sources), the predefined color (e.g.,e.g., color temperature or full color value) may be provided by a total light output of the plurality of LEDs. The lighting control device may provide the feedback by controlling a subset of the plurality of LEDs (e.g., RGBW LED light sources) comprising the lighting load to provide the feedback. For example, the control circuit of the lighting control device may control the lighting load to emit light in one or more wavelength bands to provide the feedback. The control circuit of the lighting control device may cause the load control circuit to increase an intensity level of the at least one LED above a predefined threshold to indicate feedback within one or more wavelength bands.When the lighting control device is not in the feedback mode and / or is in an operating mode that controls a corresponding lighting load according to one or more operating configurations, the control circuitry of the lighting control device may cause the load control circuitry to decrease the intensity of the at least one LED that is being used to provide feedback in the feedback mode in other lighting control devices, so that it is not confused with the feedback mode. One or more of the multiple LEDs comprising the lighting load may be dedicated to providing feedback within predefined wavelength bands. The one or more LEDs may be limited to being operational when the feedback mode is activated. As such, the one or more LEDs may be feedback LEDs that are not used during the operating mode of the lighting control device. In another example, the LEDs that are used to provide feedback within predefined wavelength bands may also be used during the operating mode of the lighting control device. For example, the control circuitry of the lighting control device may increase the intensity level of a white LED (e.g., a white LED or a substantially white LED) above the threshold intensity level to indicate feedback.As described herein, the white LED may be controlled by the control circuit of the lighting control device in response to a value of a vibrancy parameter used to control a saturation level for the total light output of the lighting control device. The control circuit of the lighting control device may decrease the intensity level of the white LED in response to an increase in the vibrancy value used to indicate the saturation level for the total light output of the multiple LEDs of the lighting control device. The control circuit of the lighting control device may increase the intensity level of the white LED in response to a decrease in the vibrancy value used to indicate the saturation level for the total light output of the multiple LEDs of the lighting control device. Since one or more LEDs can be controlled to indicate feedback within one or more predefined wavelength bands, the other LEDs can be used to control the color of the combined light emitted by the lighting load. For example, in an RGBW LED light source, the white LED can be controlled to an intensity level above a predefined threshold to indicate feedback within the predefined wavelength band. The other non-white LEDs can be controlled to compensate for the increased intensity level of the white LED to provide or maintain the color and / or intensity level of the combined light emitted by the lighting load. FIG. 7 is a flowchart illustrating an example method 700 for identifying feedback indicated in predefined wavelength bands within a light spectrum emitted by a lighting load. The method 700 may begin at 702. For example, the method 700 may begin by receiving a trigger event for activating feedback in a lighting control device, as described herein. At 704, control circuitry of the lighting control device may determine a color to provide in accordance with operating settings in an operating mode. For example, the control circuitry may output a color (e.g., color temperature or full color value) at a total light output of the lighting load using a first combination of wavelengths.At 706, the control circuit of the lighting control device may control the lighting intensity level of one or more LEDs (e.g., RGBW LED light sources or other combination of four or more different LEDs) to provide the feedback in the predefined band of wavelengths. For example, the control circuit may control the intensity of the white LED above a predefined threshold to indicate feedback within one or more wavelength bands. At 708, the control circuit of one or more LEDs may be adjusted to compensate for the change in the one or more LEDs providing the feedback. For example, the intensity level of the non-white LEDs may be adjusted to compensate for the increase in the white LED and maintain the color provided at 704 using a second wavelength combination that is different from the first wavelength combination. At 710, an optical filter may be used to identify feedback provided in the predefined band of wavelengths. For example, an occupant running diagnostics or configuring lighting control devices in the load control system may use a notch filter to remove energy in the predefined band of wavelengths to identify feedback provided in the predefined band of wavelengths. Use of the notch filter may show a difference in the spectral distribution of the filtered light at lighting loads in the space that provide feedback compared to the spectral distribution of the filtered light at lighting loads that do not provide feedback.For example, lighting loads that provide feedback may appear visually different to the occupant when the notch filter is applied, while lighting loads that do not provide feedback may appear visually the same with and without the application of the notch filter to the emitted light. Lighting loads that do not provide feedback may provide a relatively low intensity level within the filtered wavelength bands such that the emitted light is visually similar or equal with or without the application of the notch filter. The notch filter may remove less energy in the predefined band of wavelengths for the light emitted by the lighting loads that do not provide feedback than for the light emitted by the lighting load that does provide feedback.In another example, a band-pass filter may be implemented at 710 to allow light emitted within the predefined wavelength band to be visible to the occupant through the filter. Lighting loads that have a higher light intensity through the filter may be the lighting loads that provide feedback. The optical filter may be included in a lens through which light passes for perception by the occupant who is performing diagnostics or configuration of the cargo control system. For example, the optical filter may be included in lenses in a pair of eyeglasses worn by the occupant. The optical filter may be included in a lens through which light passes for reception by a visible light detection circuit (e.g., a camera) of a mobile device operated by the occupant. The optical filter may include a notch filter, a band-pass filter, or another type of optical filter capable of filtering out portions of the visible light spectrum. The occupant diagnosing or configuring the charging control system may change the operating settings in which one or more devices in the charging control system are operating in response to feedback provided at 708. For example, the occupant diagnosing or configuring may update network information upon which one or more devices in the charging control system rely to conduct communications over a network. The method may terminate at 710. FIGS. 8A and 8B are graphs illustrating the effect of different optical filters on emitted light in a visible light spectrum. FIG. 8A is a graph 800 illustrating an example of a predefined wavelength band 806 within a visible light spectrum that may be eliminated by an optical filter.The graph 800 includes an x-axis including wavelength values ​​804 in nanometers representing a wavelength range of light emitted by one or more LEDs in the visible light spectrum. The light spectrum may include wavelength values ​​at which various colors (e.g., color temperature or full color values) of light are emitted. The graph 800 also includes a y-axis comprising dimming factor values ​​802 representing illumination intensities between zero (e.g., zero percent) and one (e.g., one hundred percent) at each of the wavelength values ​​804 in the visible light spectrum. Graph 800 illustrates the attenuation factor at each of the wavelength values ​​804 when a notch filter is applied. As shown in FIG. 8A, each of the LEDs in the lighting load may be intensity controlled at one hundred percent to provide emitted light across the entire visible light spectrum. The notch filter may remove energy in the predefined wavelength band 806. The predefined wavelength band 806 may be within a range of approximately fifty nanometers. The predefined wavelength band 806 may be a larger or smaller portion of the wavelength band that is removed by the notch filter. In addition, there may be one or more predefined wavelength bands that are removed by the one or more notch filters.For example, the notch filter can remove the o ¡ ri Qn / zznz / q / υιλι energy in multiple wavelength bands throughout the visible light spectrum to indicate feedback to an occupant. FIG. 8B is a graph 850 illustrating an example of a predefined wavelength band 856 within the visible light spectrum that may pass through a band-pass filter. Graph 850 includes wavelength values ​​804 on the x-axis and attenuation factor values ​​802 on the y-axis. Graph 850 illustrates the intensity of the attenuation factor at each of the wavelength values ​​804 when the band-pass filter is applied to the emitted light. Again, each of the LEDs in the lighting load may be controlled (e.g., one hundred percent) to pass through emitted light in the visible light spectrum. The predefined wavelength band 856 through which emitted light is allowed to pass through the band-pass filter may be a larger or smaller portion of the visible light spectrum than the wavelength band 806 shown in FIG. 8A.Additionally, there may be one or more predefined wavelength bands that are allowed through one or more band-pass filters and may be represented at the intensity level at which they are emitted from the lighting load. The predefined wavelength band 806 and / or the predefined wavelength band 856 may be used to send a feedback signal to an occupant of a space. For example, the occupant may detect differences in emitted light within the predefined wavelength bands 806, 856 when viewed through the optical filter or band-pass filter. FIGS. 9A, 9B, 9D, and 9E are spectral distributions illustrating examples of how emitted light may be affected within a predefined wavelength band by a notch filter. FIGS. 9G-9J are spectral distributions illustrating examples of how emitted light may be affected within the same predefined wavelength band by a band-pass filter.The effect of optical filters in the predefined wavelength band can be used, together with changes in the intensity of the emitted light within the predefined wavelength band, to detect lighting control devices that provide feedback in a feedback mode. FIGS. 9A and 9B are graphs 900, 920 illustrating spectral distributions 908a, 908b of light in a visible light spectrum. For example, the graphs 900, 920 include an x-axis comprising wavelength values ​​904 in nanometers representing a wavelength range in a visible light spectrum. The light spectrum may include wavelength values ​​904 at which LEDs in a light source emit various colors of light. The graphs 900, 920 also include a y-axis comprising energy values ​​902 representing the relative spectral energy at each of the wavelength values ​​904 in the color spectrum for the LEDs. For example, the energy values ​​902 may be normalized {e.g., e.g., to one at the wavelength having the highest energy value), so that the highest energy value can be defined as a maximum (e.g., 1) and other energy values ​​can be defined relative to the maximum (e.g., between 0 and 1).A control circuit in a lighting control device may receive or generate intensity values ​​to control one or more LEDs and may generate power values ​​based on the intensity values. Spectral distributions 908a and 908b may represent spectral distributions of light at a color temperature value of 3000 K from lighting loads comprising multiple LED light sources. Spectral distributions 908a, 908b may have varying spectral energy values ​​at varying wavelength values, as shown. As described herein, a lighting load including multiple LEDs or other light sources of different colors (e.g., three or more LEDs) may emit light of the same color (e.g., color temperature or full color value) using a mixture of different wavelength combinations. Each of graphs 900, 920 shows an example of two separate spectral distributions 908a, 908b that may be used to produce emitted light having the same color temperature value of 3000 K.The spectral distribution 908a shown in graph 900 may be a metameric match to the spectral distribution 908b shown in graph 920, such that light seen at the spectral distributions 908a, 908b is visually similar or indistinguishable to one or more occupants of the space without application of the notch filter. Graph 900 of FIG. 9A illustrates the spectral distribution 908a of light provided by a lighting load when the load control device controlling the lighting load is in a feedback mode. Graph 900 of FIG. 9A shows the spectral distribution 908a within the predefined wavelength band 906 before application of a notch filter (e.g., as indicated by the dotted line) and after application of a notch filter (e.g., as indicated by the solid line). Graph 920 illustrated in FIG. 9B illustrates an example of another spectral distribution 908b of light provided by a lighting load. Graph 920 of FIG. 9B shows the spectral distribution 908b within the predefined wavelength band 906 before (e.g., as indicated by the dotted line) and after the application of the same notch filter (e.g., as indicated by the solid line). The spectral distribution 908a may have a higher intensity level of light being emitted within a predefined wavelength band 906 than the spectral distribution 908a. As shown in FIG. 9A , the control circuitry of a lighting control device in a feedback mode may increase the intensity level of one or more LEDs of its lighting load to produce an energy value 902 of the emitted light 908a above a predefined threshold 910 to indicate feedback within the predefined wavelength band 906. The predefined wavelength band 906 may be within the same wavelength band that is filtered by the notch filter, such that the emitted light 908a from the lighting device that is in the feedback mode may appear visually distinct with the application of the notch filter (e.g., indicated by the solid line) and without the application of the notch filter (e.g., indicated by the solid line)., indicated by the dotted line). This may be because the combination of wavelengths of light visible to the user may be different due to the removal of energy within the predefined wavelength band 906 by the notch filter. As shown in FIG. 9B , the control circuitry of a lighting fixture that is not in feedback mode may decrease the intensity level of one or more LEDs of its lighting load to produce an energy value 902 of the emitted light 908b below the predefined threshold 910 within the predefined wavelength band 906.The lighting device that does not provide feedback within the predefined wavelength band 906 may reduce the intensity level of one or more LEDs to produce a relatively low intensity level within the predefined wavelength band 906 that is filtered, such that the emitted light 908b from the lighting device that is not in the feedback mode may appear visually similar with the application of the notch filter (e.g., indicated by the solid line) and without the application of the notch filter (e.g., indicated by the dotted line). The intensity value of one or more LEDs may be increased / decreased to increase / decrease the intensity of the emitted light 908a, 908b within the predefined wavelength band 906. For example, a white LED of an RGBW LED light source may be controlled to increase / decrease the intensity of the emitted light 908a, 908b within the predefined wavelength band 906. A value of a vibrancy parameter may be used to control a relative intensity value of a white LED in an RGBW LED light source to control the color saturation of objects in a load control environment. As described herein, increasing the value of the vibrancy parameter may decrease the intensity of one or more white LEDs that make up the respective lighting load of the light source and therefore increase the color saturation of objects in the user's environment.Decreasing the vibrancy parameter value may increase the intensity of one or more white LEDs that make up the light source's respective illumination load and thus decrease the color saturation of objects in the user's environment. As shown in FIG. 9A , the vibrancy parameter value may be decreased (e.g., to zero percent) to increase the intensity of one or more white LEDs (e.g., to one hundred percent) to increase an energy value 902 of the emitted light 908a above the predefined threshold 910 within the predefined wavelength band 906. As shown in FIG. 9B , the vibrancy parameter value may be increased (e.g., to one hundred percent) to decrease the intensity of one or more white LEDs (e.g., to zero percent) to reduce an energy value 902 of the emitted light 908b below the predefined threshold 910 within the band. QJRJ Qn / zznz / q / YILI preset wavelength 906. The intensity level of the other LEDs (e.g., non-white LEDs) in the lighting load are adjusted to maintain the same color temperature value (e.g., 3000 K) after decreasing the white LED intensity value of one or more other white LEDs. Although the intensity level of the LEDs in the lighting load can be adjusted such that the emitted light 908a of the lighting load providing the feedback and the emitted light 908b of the lighting load not providing the feedback may be visually similar or visually the same without application of the notch filter (e.g., 3000 K), the color (e.g., color temperature or overall color value) of the emitted light 908a and the emitted light 908b may be visually different when the notch filter is applied.For example, the notch filter may remove more energy from emitted light 908a than emitted light 908b, which may result in a visual difference in color based on the spectral distribution when the notch filter is applied. For example, the notch filter may cause a greater shift in the chromaticity coordinates of emitted light 908a than emitted light 908b. FIG. 9C depicts a 1931 Commission on International Illumination (CIE) 930 color space chart depicting a 935 color space and a 940 blackbody curve. The 935 color space may represent a two-dimensional space (e.g., an XY chromaticity space) where colors may be indicated by an x-y chromaticity coordinate and a y-chromaticity coordinate. The blackbody curve 940 may represent a one-dimensional space (e.g., a CCT chromaticity space) where colors may be indicated by a color temperature value (e.g., 1400 K to 10,000 K) on a white light spectrum. The chart 930 depicts examples of color shifts between the emitted light color 908a and the emitted light color 908b as viewed by the occupant through the notch filter. Color values ​​in color space 935 that are within a predefined distance of each other may be visibly indistinguishable in color, while color values ​​that are outside the predefined distance of each other are visibly distinguishable in color. The predefined distance may be greater than a MacAdam ellipse. Applying the notch filter to emitted light 908a may cause a shift in chromaticity coordinates greater than a MacAdam ellipse (e.g., one or more MacAdam ellipses), while applying the notch filter to emitted light 908b may cause a relatively minor shift in chromaticity coordinates (e.g., less than a MacAdam ellipse). The chromaticity coordinates of emitted light 908a and emitted light 908b may be within a MacAdam ellipse of each other when the notch filter is not applied to emitted light 908a, 908b.Applying the notch filter may cause the chromaticity coordinates of the emitted light 908a and the emitted light 908b to be greater than one or more MacAdam ellipses of each other when the notch filter is applied due to the amount of energy removed by the notch filter from the emitted light 908a, which may result in lighting loads providing feedback being visibly distinct from lighting loads not providing feedback while the notch filter is applied. Although FIGS. 9A-9C illustrate examples of different spectral distributions of emitted light 908a, 908b that may be used to allow feedback to be provided to an occupant in the emitted light 908a while the total light output of the emitted light 908a, 908b is controlled at a color temperature value of 3000 K, lighting control devices may similarly control their respective lighting loads at other color temperature values. FIGS. 9D-9F illustrate other spectral distributions in the emitted light 908c, 908d of the lighting loads of lighting devices operating in different modes to allow feedback to be provided to the occupant at another color temperature value (e.g., 6000 K). FIGS. 9D and 9E are graphs 950, 960 illustrating different spectral distributions of emitted light 908c, 908d, respectively, capable of providing a light output with a color temperature value of 6000 K from lighting loads comprising multiple LED light sources. Graph 950 of FIG. 9D shows the spectral distribution 908c within the predefined wavelength band 906 before application of a notch filter (e.g., as indicated by the dotted line) and after application of a notch filter (e.g., as indicated by the solid line). Graph 960 of FIG. 9E shows the spectral distribution 908d within the predefined wavelength band 906 before application of a notch filter (e.g., as indicated by the dotted line) and after application of a notch filter (e.g., as indicated by the solid line). Again, the control circuitry of the lighting control device controlling its respective lighting load to provide the emitted light 908c may control one or more white LEDs in response to a value of a vibrancy parameter to indicate feedback within the predefined wavelength band 906. As shown in FIG. 9D, the control circuitry of the lighting device in the feedback mode may increase the intensity level of the one or more white LEDs (e.g., to one hundred percent) to increase the energy value 902 of the emitted light 908c above the predefined threshold 910 within the predefined wavelength band 906. As shown in FIG.9E, the control circuitry of the lighting device that is not in feedback mode may decrease the intensity level of one or more white LEDs (e.g., to zero percent) to reduce the energy value 902 of the emitted light 908d below the predefined threshold 910 within the predefined wavelength band 906. The control circuitry of each of the other lighting control devices Qn / zznz / q / uyl may control the non-white LEDs to intensity values ​​to compensate for the increase / decrease in one or more white LEDs, while maintaining the same color of the total output of the emitted light 908c, 908d. Again, the spectral distribution of the emitted light 908c shown in graph 950 shown in FIG. 9D may likewise be a metametric match to the spectral distribution of the emitted light 908d shown in graph 960 shown in FIG.9E, such that the spectral distributions of the emitted light 908c, 908d are visually similar or indistinguishable to one or more occupants of the space without the application of the notch filter. Again, although the emitted light 908c from the lighting load providing the feedback and the emitted light 908d from the lighting load not providing the feedback may be visually similar or the same without application of the notch filter, the color of the emitted light 908c and the emitted light 908d may be visually different when the notch filter is applied. FIG. 9F depicts a 1931 Commission on International Illumination (CIE) 970 color space chart indicating the difference in chromaticity coordinates of the emitted light 908c and the emitted light 908d. Color values ​​in the 935 color space that are within a predefined distance of each other may be visibly indistinguishable in color, while color values ​​that are outside the predefined distance of each other are visibly distinguishable in color. The predefined distance may be greater than a MacAdam ellipse. Applying the notch filter to the emitted light 908c may cause a shift in chromaticity coordinates greater than a MacAdam ellipse (e.g., one or more MacAdam ellipses), while applying the notch filter to the emitted light 908d may cause a relatively minor shift in chromaticity coordinates (e.g., less than a MacAdam ellipse). The chromaticity coordinates of the emitted light 908c and the emitted light 908d may be within a MacAdam ellipse of each other when the notch filter is not applied to the emitted light 908c, 908d.Application of the notch filter may cause the chromaticity coordinates of the emitted light 908c and the emitted light 908d to be greater than one or more MacAdam ellipses of each other when the notch filter is applied due to the amount of energy removed by the notch filter from the emitted light 908d, which may result in lighting loads providing feedback being visibly distinct from lighting loads not providing feedback while the notch filter is applied. FIGS. 9G-9J are graphs illustrating examples of how emitted light comprising feedback within the same predefined wavelength band 906 may be affected by a band-pass filter. FIG. 9G is a graph 970 illustrating the same energy values ​​902 of emitted light 908a within the same wavelength values ​​904 of the visible light spectrum as shown in FIG. 9A. For example, graph 970 of FIG. 9G shows emitted light 908a at a color temperature value of 3000 K when a vibrancy parameter value is reduced (e.g., to zero percent) to increase the intensity of one or more white LEDs (e.g., to one hundred percent). More specifically, graph 970 of FIG. 9G shows the spectral distribution 908a before application of the band-pass filter (e.g., as indicated by the dotted lines) and after application of the band-pass filter (e.g.,, as indicated by the solid line). The increase in the intensity level of one or more white LEDs causes an increase in the energy value 902 of the emitted light 908a above the predefined threshold 910 within the predefined wavelength band 906 to indicate feedback. Again, the control circuitry of the lighting control device operating in the feedback mode may increase the intensity level of the one or more white LEDs of its lighting load to produce the lighting intensity value 902 of the emitted light 908a above the predefined threshold 910 to indicate feedback within the predefined wavelength band 906. The band-pass filter may allow the emitted light 908a within the wavelength band 906 to pass and be visible to the occupant (e.g., as indicated by the solid line).The band-pass filter can reject light emitted outside the 906 wavelength band (e.g., as indicated by the dotted line). FIG. 9H is a graph 975 illustrating the same energy values ​​902 of emitted light 908b within the same wavelength values ​​904 of the visible light spectrum as shown in FIG. 9B. For example, graph 975 of FIG. 9H shows emitted light 908b at a color temperature value of 3000 K when a vibrancy parameter value is increased (e.g., to one hundred percent) to decrease the intensity of one or more white LEDs (e.g., to zero percent). Graph 975 of FIG. 9H shows the spectral distribution 908b before application of the band-pass filter (e.g., as indicated by the dotted lines) and after application of the band-pass filter (e.g., as indicated by the solid line). The decrease in the intensity value of the one or more white LEDs causes a decrease in the energy value 902 of the emitted light 908b below the predefined threshold 910 within the predefined wavelength band 906 used to indicate the feedback. The control circuitry of the lighting fixture that is not in the feedback mode may decrease the intensity level of the one or more white LEDs of its lighting load to produce the energy value 902 of the emitted light 908b below the predefined threshold 910 within the predefined wavelength band 906. The band-pass filter may allow the emitted light 908b within the predefined wavelength band 906 to pass and be visible to the occupant (e.g., as indicated by the solid line).The band-pass filter may reject emitted light outside of the predefined wavelength band 906 (e.g., as indicated by the dotted line). As shown in FIGS. 9G and 9H, the emitted light 908a that is allowed through the band-pass filter of the lighting load providing feedback may have a higher intensity value than the emitted light 908b that is allowed through the band-pass filter of the lighting load that is not providing feedback. The emitted light 908a, 908b may be the same color, but may be distinguished based on their relative intensity level. FIGS. 9I and 9J also include graphs 980 and 985, respectively, illustrating the emitted light 908c, 908d at the color temperature value of 6000 K when the same band-pass filter is applied. Graph 980 shown in FIG. 9I illustrates the same energy values ​​902 of the emitted light 908c within the same wavelength values ​​904 of the visible light spectrum as shown in FIG. 9D. For example, graph 980 shows the emitted light 908c at a color temperature value of 6000 K when the vibrancy parameter value is decreased (e.g., to zero percent) to increase the intensity of one or more white LEDs (e.g., to one hundred percent).Graph 970 shows the spectral distribution 908c within the predefined wavelength band 906 before application of the band-pass filter (e.g., as indicated by the dotted lines) and after application of the band-pass filter (e.g., as indicated by the solid line). The increase in intensity of one or more white LEDs causes an increase in the energy value 902 of the emitted light 908c above the predefined threshold 910 within the predefined wavelength band 906 to indicate feedback. As described herein, the lighting fixture control circuit in the feedback mode may increase the intensity level of one or more white LEDs of its lighting load to produce the energy value 902 of the emitted light 908c above the predefined threshold 910 to indicate feedback within the predefined wavelength band 906. The band-pass filter may allow the emitted light 908c within the wavelength band 906 to pass and be visible to the occupant (e.g., as indicated by the solid line).The band-pass filter can reject light emitted outside the 906 wavelength band (e.g., as indicated by the dotted line). For example, graph 985 of FIG. 9J shows the emitted light 908d at the color temperature value of 6000 K when the value of a vibrancy parameter is increased (e.g., to one hundred percent) to decrease the intensity of one or more white LEDs (e.g., to zero percent). The decrease in the intensity value of one or more white LEDs causes a decrease in the energy value 902 of the emitted light 908d below the predefined threshold 910 within the predefined wavelength band 906. The bandpass filter may allow the emitted light 908d within the predefined wavelength band 906 passes and is visible to the occupant (e.g., as indicated by the solid line). The band-pass filter may reject light emitted outside of the predefined wavelength band 906 (e.g., as indicated by the dotted line). As shown in FIGS. 9I and 9J, the emitted light 908c that is allowed through the band-pass filter of the lighting load providing feedback may have a higher intensity value than the emitted light 908d that is allowed through the band-pass filter of the lighting load that is not providing feedback. Although examples are provided for different types of optical filters, other types of optical filters may be applied in a similar manner to provide feedback to lighting control devices. Furthermore, optical filters may be applied to different wavelength bands in the visible light spectrum. Although one or more white LEDs are illustrated to control the light intensity level within a predefined wavelength band, other LEDs may be similarly controlled to control light intensity at other wavelength values. It will be further appreciated that other lighting loads may comprise a different configuration of colors and / or number of LEDs. However, similar procedures may be implemented using other types of LEDs to provide feedback as described herein. There may be one or more predefined wavelength bands and / or one or more predefined thresholds in addition to the predefined wavelength band 906 and the predefined threshold 910, respectively. For example, a lighting control device may use different wavelength bands and / or different predefined thresholds to provide different types of feedback as described herein.In one example, a first lighting control device may increase the intensity level of one or more LEDs of its lighting load within a first predefined wavelength band above a predefined threshold to provide a first type of feedback, while a second lighting control device may increase the intensity level of one or more LEDs of its lighting load within a second predefined wavelength band above the predefined threshold to provide a second type of feedback.In another example, the first lighting control device may increase the intensity level of one or more LEDs of its lighting load within a predefined wavelength band above a first predefined threshold to provide the first type of feedback, while the second lighting control device may increase the intensity level of one or more LEDs of its lighting load within the second predefined wavelength band above a second predefined threshold to provide the second type of feedback.Although the examples in this document describe a control device that provides feedback by increasing the intensity level of one or more LEDs within a predefined wavelength band above a predefined threshold, other examples may apply where a control device provides feedback by decreasing the intensity level of one or more LEDs within a predefined wavelength band below a predefined threshold. As described herein, different types of feedback may be used to indicate different types of configuration or diagnostic information on lighting loads to the respective lighting control device. FIG. 10A is a flowchart depicting an exemplary method 1000 for identifying a function of a control device in a network. For example, the load control device may be a lighting control device that can control an amount of power provided to lighting loads from a lighting fixture. The lighting control device may be assigned a function in the network information. For example, the lighting control device may be a leader device, a router device, and / or an end device.Method 1000 may be performed by the lighting control device upon receipt of a trigger event configured to cause the lighting control device to enter a feedback mode. Method 1000 may begin at 1002. At 1004, the control circuit of the lighting control device may receive a feedback message configured to trigger identification of the lighting control device's function on the network. For example, the lighting control device may enter feedback mode to provide feedback as described herein. In one example, the lighting control device may receive the feedback message from a user device and / or a system controller. The user device may transmit the message to the lighting control device using a wireless communication protocol. The system controller may transmit the message to the lighting control device via wireless or wired communication.Although messages from the user device or system controller are provided as examples for triggering feedback in the lighting control device, lighting control devices may provide feedback based on other triggering criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. The feedback message may be transmitted from the user device in response to a user pressing a button on the user device in an application that is configured to cause the lighting control device to identify its function. The feedback message Q ! RI Qn / 77n7 / q / YILI feedback may be transmitted as a multicast message requesting lighting control devices receiving the feedback message to identify their function. The feedback message may be transmitted directly from the user device or the system controller to cause a specific lighting control device to identify its function. For example, the feedback message may be transmitted as a unicast message that includes a unique identifier of the lighting control device and functions as a request for the lighting control device to identify its function.After receiving the feedback message at 1004, the lighting control device's control circuit may determine from its network information stored in memory whether the lighting control device is a leader device of the network at 1006. As described herein, the leader device may manage other control devices on the network. A lighting control device may be an example of a leader device, although other control devices may be assigned as a leader device in a network or network partition. If the control circuit of the lighting control device determines from memory that the lighting control device is a leading device at 1006, the lighting control device may provide feedback indicating that the lighting control device is a leading device at 1008. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by illuminating a corresponding lighting load of a color and / or intensity. The lighting control device may cause the lighting loads to illuminate a first color (e.g., blue) to indicate that the lighting control device is a leading device.Additionally and / or alternatively, the lighting control device may increase the intensity level of one or more LEDs of its lighting load within a predefined wavelength band above a predefined threshold. Method 1000 may terminate at 1018. In response to receiving the feedback message at 1004, the control circuitry of the lighting control device may determine whether the lighting control device is a router device at 1010. After receiving the feedback message at 1004, the control circuitry of the lighting control device may determine from its network information stored in memory whether the lighting control device is a router device on the network at 1010. A router device may route (e.g., receive and / or transmit) messages between devices, or between router devices to communicate messages received from one connected device to another device on the network. If the control circuitry of the lighting control device determines that it is a router device at 1010, the control circuitry of the lighting control device may enter a feedback mode and provide feedback indicating that the lighting control device is a router device at 1012. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity of the lighting loads. For example, the control circuitry of the lighting control device may cause the lighting loads to illuminate a second color (e.g., green) to indicate that the lighting control device is a router device.In another example, the control circuit of the lighting control device may cause the lighting loads to illuminate the first color at a different intensity than that used to indicate the leading device. Additionally and / or alternatively, the lighting control device may increase the intensity level of one or more LEDs of its lighting load within a predefined wavelength band above a predefined threshold. The predefined threshold and / or predefined wavelength band may be different from the predefined threshold and / or predefined wavelength band used to indicate the leading device. Method 1000 may terminate at 1018. The control circuitry of the lighting control device may determine from its network information stored in memory whether the lighting control device is an end device at 1014. An end device may be connected to another device (e.g., a master device, such as a leader device 310 and / or one or more router devices) on the network and may transmit and / or receive messages through its attached master device (e.g., leader device and / or router device). An end device may be, for example, a router-capable end device and / or an idle end device. If the lighting control device's control circuitry determines that it is an end device at 1014, the lighting control device's control circuitry may provide feedback indicating that the lighting control device is an end device at 1016. Different types of end devices may provide different types of feedback. For example, an inactive end device may provide different feedback than a router-enabled end device. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.For example, the control circuit of the lighting control device may cause the lighting loads to illuminate a third color (e.g., red) to indicate that the lighting control device is an end device. In another example, the control circuit of the lighting control device may cause the lighting loads to emit light in the first color at a different intensity than that used to indicate the lead device and / or the router devices (e.g., using a gradient). Additionally and / or alternatively, the lighting control device may increase the intensity level of one or more LEDs of its lighting load within a predefined wavelength band above a predefined threshold.The predefined threshold and / or predefined wavelength band may be different from the predefined threshold(s) and / or predefined wavelength band(s) used to indicate the leader device and / or the router devices. Procedure 1000 may end at 1018. Similarly, the control circuitry of the lighting control device may provide feedback in response to a feedback message that defines a specific function to be identified by the lighting control devices receiving the feedback message. For example, the feedback message may be transmitted as a multicast message that functions as a request for lighting control devices of a defined function to identify themselves. Each lighting control device receiving the feedback message may compare the function defined in the feedback message to its function stored in network information in memory. The control circuitry of the lighting control devices with the function defined in the feedback message may identify themselves (e.g.,, illuminating a color, intensity or providing other feedback) as having the defined function. In addition to identifying one or more functions of the control devices on the network, it may be beneficial to identify the link quality between one or more control devices capable of communicating with each other. For example, when end devices communicate with other devices on the network through their corresponding primary router devices, the link quality of the communication link between the end devices and their primary router devices may be indicated to help improve communications between the end devices and the corresponding primary devices through which each end device may communicate. FIG. 10B is a flowchart depicting an exemplary method 1020 for identifying a link quality between an end device and a core router device in a network. For example, the end device may be a lighting control device that may control an amount of power provided to a lighting load of a lighting fixture. The method 1020 shown in FIG. 10B may include steps similar to those shown in the exemplary method 1000 shown in FIG. 10A. For example, the method 1020 may begin at 1022 and may be performed by the lighting control device following a trigger event at 1004. The trigger event may be the receipt of a feedback message configured to cause the control circuitry of the lighting control device to enter a feedback mode configured to indicate QJRJ Qn / zznz / q / YΥΙΛΙ the function of the lighting control device in the network and / or provide feedback indicating the quality of a link to a main router device. If the lighting control device control circuit determines, at 1006 or 1010, that the lighting control device is a leader device or a router device, respectively, the lighting control device control circuit may provide feedback identifying the function of the lighting control device. For example, if the lighting control device control circuit is a leader device, it may provide a first type of feedback, and if the lighting control device control circuit is a router device, it may provide a second type of feedback. However, if the lighting control device control circuit determines that it is an end device, it may provide information that it is an end device and / or the feedback may indicate a link quality to its parent router device.As shown in FIG. 10B , after the control circuit of the lighting control device determines, from the network information stored in the memory, that the lighting control device is an end device at 1014, the control circuit of the lighting control device may provide feedback at 1024 indicating a link quality between the end device and its parent router device (e.g., a leader device and / or a router device). The link quality to the parent router device may be stored in the network information in the lighting control device (e.g., the end device). The indicated link quality may be the link quality out (LQO) or the link quality in (LQI). The indicated link quality may be the lowest or highest of the LQO and LOL. The indicated link quality may be an average of the LQO and LOL. Link quality may be indicated by a color and / or intensity of the lighting load. For example, link quality from 0 to 3 may be indicated by four different colors (e.g., red is the worst link quality, yellow is the next level of improved link quality, blue is the next level of improved link quality, and green is the best link quality). Link quality may be indicated by a gradient from red to green as link quality improves. Link quality may be indicated by an intensity level (e.g., intensity increases as link quality increases, or vice versa). Additionally and / or alternatively, link quality may be indicated by changing a spectral energy value of the emitted light within a predefined wavelength band.Using method 1020, each of the router devices and / or the leader device may be separately identified, such that the user may identify the nearest main router devices to which end devices having the indicated link quality may be located in the system. Lighting control devices may provide feedback to indicate other functions on the network. For example, lighting control devices may be illuminated (e.g., with a different color, intensity, or illumination) to identify a primary or secondary function on the network. FIG. 11A is a flowchart depicting an exemplary method 1100 for identifying a primary or secondary function of control devices on a network. For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture. The lighting control device may be assigned a function on the network. For example, the lighting control device may be a primary device (e.g.,, a lead device or a router device connected to a secondary end device) or a secondary device (e.g., an end device connected to a primary router device). Method 1100 may be performed by the control circuitry of the lighting control device upon receipt of a trigger event. The trigger event may be a feedback message from a user device (e.g., a mobile device) and / or a system controller configured to cause the lighting control device to enter a feedback mode to provide feedback indicating that the lighting control device is a primary device or a secondary device.Although messages from the user device or system controller are provided as examples for triggering feedback in the lighting control device, lighting control devices may provide feedback based on other triggering criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. Method 1100 may begin at 1102. At 1104, the lighting control device's control circuit may receive a feedback message to trigger identification of the primary or secondary lighting control device's function on the network. For example, the feedback message may cause the lighting control device to identify itself as a primary device or a secondary device. The lighting control device's control circuit may receive the feedback message from a user device (e.g., directly) and / or from a system controller via a communication circuit. The user device may transmit the feedback message to the lighting control device using a wireless communication protocol.The system controller can transmit the message to the lighting control device via wireless or wired communication. The feedback message may be transmitted from the user device in response to a user pressing a button on the user device in an application that is configured to cause the lighting control device to identify its primary or secondary function. The feedback message may be transmitted as a multicast message that requests lighting control devices receiving the feedback message to identify their primary or secondary function. The feedback message may be transmitted directly from the user device or the system controller to cause a specific lighting control device to identify its primary or secondary function.For example, the feedback message may be transmitted as a unicast message that includes a unique identifier of the lighting control device and functions as a request for the lighting control device to identify its primary or secondary function. The primary or secondary function feedback may be provided after a device has already provided feedback indicating another function. For example, after a lighting control device has identified its function as a leader device, router device, or end device (e.g., as illustrated in methods 400, 420), a user may select a particular lighting control device on the user device and transmit (e.g., from the user device) a unicast message to the particular lighting control device to identify the device's function as a primary or secondary device, and / or the primary device or secondary devices associated with the selected lighting control device. Upon receiving the feedback message at 1104, the lighting control device control circuit may determine from network information stored in memory whether the lighting control device is a master device at 1106. Leader devices and router devices that are connected to one or more end devices may function as master devices. A master device may be connected to one or more slave devices. If the lighting control device control circuit determines that it is a master device at 1106, the lighting control device control circuit may provide feedback indicating that the lighting control device is a master device at 1108. The feedback may be indicated by changing a state of lighting loads controlled by the lighting control device.For example, feedback may be indicated by illuminating the lighting load with a color or intensity. For example, the control circuit of the lighting control device may cause the lighting loads to illuminate a first color (e.g., blue) to indicate that the lighting control device is a master device. Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. At 1110, the lighting control device's control circuitry may send a feedback message to its secondaries that is configured to cause its secondaries to identify themselves as a secondary device on the network. For example, the feedback message may be sent directly to lighting control devices that are secondary to the primary device (e.g., as a unicast message that includes the secondary devices' unique identifier). The feedback message may be sent as a multicast message that includes the primary device's unique identifier. The feedback message may be sent as a request that each lighting control device identify itself as a secondary device if it recognizes the unique identifier as associated with its primary on the network. The secondaries may identify themselves by changing the state of their lighting loads.For example, each secondary device may be identified by changing the intensity and / or color of the lighting loads. For example, each secondary device may cause the lighting loads to illuminate a second color (e.g., green). In another example, each secondary device may be identified by causing the lighting loads to illuminate the first color at a different intensity than that used to indicate the primary device (e.g., using a gradient). Additionally and / or alternatively, the feedback may be indicated by increasing the predefined wavelength band and / or the predefined threshold may be different from the predefined threshold and / or the predefined wavelength band used to indicate the primary devices. Method 1100 may terminate at 1118. If the lighting control device's control circuit determines that it is a secondary device at 1112, the lighting control device may provide feedback indicating that the lighting control device is a secondary device at 1114. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by illuminating the lighting load with one color or intensity. The lighting control device's control circuit may cause the lighting loads to illuminate a second color (e.g., green) to indicate that the lighting control device is a secondary device.In another example, the control circuit of the lighting control device may cause the lighting loads to illuminate the first color at a different intensity than that used to indicate the primary device (e.g., using a gradient). Additionally and / or alternatively, the feedback may be indicated by increasing the predefined wavelength band and / or the predefined threshold may be different from the predefined threshold and / or the predefined wavelength band used to indicate the primary device. At 1116, the control circuit of the lighting control device may send a feedback message to its parent device via a communication circuit configured to cause the parent device to identify itself as the parent device of the lighting control device. For example, the feedback message may be sent directly to the lighting control device that is the parent of the child device (e.g., as a unicast message including the parent device's unique identifier). The feedback message may be sent as a multicast message including the child device's unique identifier. The feedback message may be sent as a request that the lighting control device identify itself as a parent device of the device having the unique identifier in the feedback message.The primary device may be identified by changing a state of the lighting loads controlled by the primary device. For example, the primary device may be identified by illuminating the lighting loads with a specific intensity and / or color. The primary device may cause the lighting loads to illuminate the first color to identify the primary device. The primary device may be identified by causing the lighting loads to illuminate the second color with a different intensity than that used to indicate the secondary device (e.g., by using a gradient). Additionally and / or alternatively, the feedback may be indicated by increasing the predefined wavelength band and / or the predefined threshold. The predefined threshold and / or the predefined wavelength band used to indicate the secondary device. The method 1100 may end at 1118. Using method 1100, the primary and secondary devices may be identified separately, such that the user may identify the primary router devices for a selected secondary device or the secondary router devices for a selected primary device. The user may select the primary or secondary device on the user device and send a message to the device to trigger the corresponding feedback, or send a general message to the devices to indicate their primary or secondary function. As described herein, an end device may broadcast messages through a single primary device on the network, but may listen for messages on the network from multiple auxiliary primary devices. The end device may listen for advertisement messages from many auxiliary principals to update locally stored network information and improve communications on the network. FIG. 11B is a flowchart depicting an exemplary method 1120 for identifying a function of a control device as a primary auxiliary of a secondary device on a network. For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture. The lighting control device may be assigned a function on the network.For example, the lighting control device may be a master auxiliary device or a slave device configured to listen for messages (e.g., advertising messages) from the master auxiliary device. Master devices and router devices that are connected to one or more end devices may function as master auxiliary devices. Method 1120 may begin at 1122. Method 1120 may be performed by a lighting control device upon receipt of a trigger event. The trigger event may be a feedback message received at 1124 from a user device (e.g., a mobile device), a system controller, and / or another control device. For example, at 1124, a secondary device or auxiliary master may receive the feedback message from the user device and / or the system controller to trigger the lighting control device's function identification as a secondary device on the network. A user may initiate transmission of the feedback message from a user device and / or a system controller by selecting a button on the user device.The feedback message may be configured to cause one or more lighting control devices to provide feedback indicating their parent / guardian relationship(s) on a network. For example, the feedback message may be transmitted and received by a child device or a parent / guardian device on the network at 1124. The feedback message may be received at 1124 as a unicast message that includes the lighting control device's unique identifier. The feedback message may cause the child device or parent / guardian device to which the feedback message is sent to identify its role on the network. The feedback message may also cause a child lighting control device to send another feedback message to its parent / guardian devices that triggers the identification of its parent / guardian devices.The feedback message may cause a primary or auxiliary device to send another feedback message to its secondary devices that listen for messages (e.g., advertising messages) from the primary or auxiliary device. The feedback messages may be transmitted and / or received using a wireless communication protocol (e.g., BLUETOOTH® communication protocol, BLUETOOTH® Low Energy (BLE) communication protocol, THREAD™ protocol, AWS™ protocol, or other wireless communication protocol). If a control circuit of the lighting control device receives the feedback message at 1124 and determines that the message is addressed to the lighting control device (e.g., the feedback message includes the lighting control device's unique identifier), the control circuit of the lighting control device may identify its function as a secondary device or as an auxiliary primary device from network information stored in memory. If the control circuit of the lighting control device is determined to be a secondary device at 1130, the control circuit of the lighting control device may provide feedback at 1132 identifying the lighting control device as a secondary device. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device.For example, feedback may be indicated by changing the intensity and / or color of the lighting loads. The control circuitry of the lighting control device may cause the lighting loads to illuminate a first color (e.g., green) to indicate that the lighting control device is a secondary device on the network. In another example, the control circuitry of the lighting control device may cause the lighting loads to illuminate in the first color at an intensity that is used to indicate that the lighting control device is a secondary device on the network (e.g., using a gradient). Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. At 1134, the lighting control device's control circuitry may send another feedback message to its auxiliary primary device(s) that is configured to cause the auxiliary primary devices to identify themselves as the auxiliary primary devices of the secondary lighting control device. The lighting control device's control circuitry may send a single multicast feedback message that is received by each of its auxiliary primary devices. The multicast feedback message may include the unique identifier of the secondary device and / or the identifiers of the auxiliary primary devices of the secondary device (e.g.,, auxiliary master devices from which advertising messages can be heard), such that the auxiliary master devices can receive the feedback message and identify themselves as the auxiliary master devices of the secondary lighting control device. In another example, the secondary lighting control device may send a unicast feedback message to each of the auxiliary master devices of the secondary lighting control device. The multicast feedback messages and / or unicast feedback messages may be received by a slave master device and the slave master device may identify itself as a slave master device of the slave lighting control device. The slave master device may identify itself as a slave master based on its unique identifier identified in the feedback message received from the slave lighting control device. Q f R ! Qn / 77n7 / q / YILI secondary device. In another example, the auxiliary master device may identify the feedback message received at 1124 as being transmitted from a secondary device of which it is an auxiliary master device on the network (e.g., a secondary device capable of listening to advertising messages from the lighting control device), which unique identifier may be stored locally on the auxiliary master device, and the auxiliary master device may provide feedback in the form of a color and / or intensity to indicate its function as an auxiliary master device. The feedback message received at 1124 may be configured to cause a master auxiliary device to identify itself to a user or user device by changing the state of lighting loads controlled by the master auxiliary device. If the lighting control device is a master auxiliary device, the lighting control device may determine that it is a master auxiliary device at 1126 and provide feedback indicating that the lighting control device is a master auxiliary device at 1128. For example, each master auxiliary device may identify itself by changing the intensity and / or color of the lighting loads. The master auxiliary device may cause the lighting loads to illuminate a second color (e.g., red) to identify the master auxiliary device.The auxiliary primary device may be identified by having the lighting loads illuminate the first color (e.g., green) at a different intensity than that used to indicate the secondary lighting control device (e.g., using a gradient). Additionally and / or alternatively, the feedback may be indicated by increasing the predefined wavelength band and / or predefined threshold. The predefined threshold and / or predefined wavelength band used to indicate the secondary device may be different. At 1136, the control circuitry of the lighting control device may send another feedback message to the secondary devices configured to cause the secondary devices to identify themselves. The feedback message sent at 1136 may be sent as a multicast message via the communication circuitry, and each secondary device receiving the message may compare the unique identifier in the feedback message to unique identifiers of its primary auxiliary devices. Each secondary device of the primary auxiliary device may identify itself as a secondary device that receives messages (e.g., advertising messages) from the lighting control device from which the feedback message is received by illuminating the lighting load with a color and / or intensity level.Additionally and / or alternatively, feedback may be indicated by increasing the predefined wavelength band and / or the predefined threshold may be different from the predefined threshold and / or the predefined wavelength band used to indicate the primary device. Method 1120 may terminate at 1138. Q ! RI Qn / 77n7 / q / YΙΛΙ As described herein, the network information stored on the network devices may include information about the functions of the devices on the network. As also described herein, the network information may include information indicating the quality of communications on the network. For example, the network information may include link quality for communications between control devices on the network. However, the link quality between control devices on the network may be difficult to identify for a user configuring the charging control system. Link quality may be particularly difficult to identify after the initial commissioning of a charging control system, as devices are added to the network and elements in the space are added or moved and may cause interference in communications between devices on the network.Link quality may be tested by a user, but link quality may vary over time as the network changes, and the link quality tested by the user may be the link quality at a snapshot in time, which may even be more misleading than useful for configuring network communications in the load control system. FIG. 12A is a flowchart depicting an exemplary method 1200 for identifying link quality between a control device and one or more other control devices on a network. For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture.The lighting control device may share a direct communication link with one or more control devices (e.g., lighting control devices) on the network. For example, the lighting control device may be a master device (e.g., a leader device and / or a router device) that has one or more child devices (e.g., end devices) connected to it, or the lighting control device may be a child device connected to one or more master devices. The lighting control device may also be a router device (e.g., a leader device or another router device) that shares a direct communication link with another router device (e.g., a leader device or another router device). Method 1200 may be performed by one or more lighting control devices upon receipt of a trigger event.Receipt of the trigger event may cause the lighting control device to enter a feedback mode. The trigger event may be the receipt of a feedback message from a user device (e.g., a mobile device) and / or a system controller. Although messages from the user device or the system controller are provided as examples for triggering feedback in the lighting control device, lighting control devices may provide feedback based on other trigger criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. Method 1200 may begin at 1202. At 1204, a control circuit of the lighting control device may receive a feedback message to trigger link quality feedback between the lighting control device and one or more other lighting control devices in the network. For example, the lighting control device may receive the feedback message from a user device (e.g., directly) and / or from a system controller. The feedback message may be sent as a unicast message that includes the unique identifier of the lighting control device from which the link quality is to be identified. The feedback message may include the type of link quality to be identified (e.g.,, link quality of output (LQO) or link quality of input (LQI)), or the type of link quality to be identified may be preprogrammed into the lighting control devices. For example, the user may select the link quality type to be identified on the user interface of the user device, and the link quality type may be sent in the feedback message. The user device may transmit the feedback message to the lighting control device using a wireless communication protocol. The system controller may transmit the feedback message to the lighting control device via a wireless or wired connection. After receiving the feedback message at 1204, the lighting control device's control circuit may provide feedback indicating that it is the lighting control device from which the link quality is identified. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a first color (e.g., blue) to indicate that the lighting control device is the device from which the link quality is identified. In another example, the lighting control device may cause the lighting loads to illuminate the first color at a different intensity.Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. After receiving the feedback message at 1204, the lighting control device's control circuit may send a second feedback message, at 1208, to one or more lighting control devices in the network. For example, the lighting control device may be a router device (e.g., a leader device or another router device), and the second feedback message may be sent to other router devices (e.g., a leader device and / or other router devices). In another example, the lighting control device may be an end device connected to a router device.The second feedback message may be configured to enable link quality feedback on the direct communication link between the lighting control device that sent the second feedback message and lighting control devices on the network that received the feedback message at 1204. The second feedback message may be sent as a multicast message that includes the unique identifier of the lighting control device from which the second feedback message was sent at 1208. Control circuitry of the lighting control devices that receive the second feedback message may determine that they should provide feedback if they share a direct communication link with the lighting control device that sent the second feedback message.The lighting control devices that respond to the second feedback message may be devices that have an identified link quality for the direct communication link stored in the network information. The second feedback message may be sent as a unicast message that includes the unique identifier of the lighting control device configured to receive the second feedback message. For example, the lighting control device that sends the second feedback message at 1208 may identify devices with which it shares a direct communication link (e.g., devices that have an identified link quality for the direct communication link stored in the network information) and send a unicast message to each of those devices to provide feedback. One or more lighting control devices may provide feedback at 1210 that identifies the link quality for communications on the forward communication link with the device that sent the second feedback message at 1208. The second feedback message may include the type of link quality to be identified (e.g., link quality out (LQO) or link quality in (LQI)), or the type of link quality to be identified may be pre-programmed into the lighting control devices. The link quality (e.g., LQI and / or LQO) may be calculated as a predefined number that is within a range indicating different link qualities for the communication link between two devices. For example, the link quality may be indicated by values ​​of 0, 1, 2, or 3. The other control devices may display the link quality as an intensity and / or color.For example, each link quality value may be represented by a different color and / or intensity. A first color (e.g., red) may represent poor link quality, a second color (e.g., yellow) may represent relatively better link quality than the first color, a third color (e.g., blue) may represent relatively better link quality than the second color, and a fourth color (e.g., green) may represent higher link quality. A gradient between two colors (e.g., between the first and fourth colors) may be used to indicate link quality. For example, link quality may be represented as a heat map, with different colors used to represent different link qualities between the device that sent the feedback message and the other monitoring devices. A first intensity (e.g.,, a lower intensity) to indicate poor link quality, and a second intensity (e.g., a higher intensity) may be used to indicate high link quality. A gradient between the first intensity and the second intensity may be used to indicate link quality. Additionally and / or alternatively, feedback may be indicated by increasing. Different predefined wavelength bands and / or predefined thresholds may be used to indicate different link qualities. The link quality may be the current link quality or the link quality over a given period of time. For example, the link quality may be an average link quality over a given period of time. Method 1200 may terminate at 1210. As illustrated in FIG. 12A , different types of feedback may be provided to identify link quality between control devices on a network. FIG. 12B is a flowchart depicting an exemplary method 1220 for identifying link quality between control devices on a network. For example, the control devices may be lighting control devices. The lighting control device performing the method 1220 may control an amount of power provided to a lighting load of a lighting fixture. The method 1220 may be performed by the control circuitry of the lighting control device in response to a trigger event. The trigger event may be the receipt of a feedback message from another lighting control device (e.g., a router or end device as described with reference to FIG.12A), a user device (e.g., a mobile device), and / or a system controller to cause the lighting control device to enter a feedback mode. Method 1220 may be used to generate a heat map depicting link quality between a first lighting control device and other lighting control devices on the network (e.g., to which the first lighting control device is connected). For example, the first lighting control device may be illuminated with a first color, while each of the other lighting control devices may be illuminated with a color associated with the respective link quality between the first lighting control device and the other lighting control device. Method 1220 may begin at 1221. At 1222, the lighting control device may receive a message to trigger link quality feedback between the lighting control device and another control device on the network. For example, the lighting control device may receive the feedback message from another lighting control device on the network. The feedback message may be received from the other lighting control device as a unicast message or a multicast message. For example, the feedback message may be received from another lighting control device as described herein (e.g., with reference to FIG. 12A ).The lighting control device may receive the feedback message at 1222 and may determine its link quality (e.g., link quality out (LQO) or link quality in (LQI)) on the forward communication link to communicate with the lighting control device from which the feedback message was received. When a first lighting control device sends a feedback message to trigger feedback indicating link quality to be provided to a second lighting control, the first lighting control device may also provide feedback indicating that it is the device from which the link quality is being indicated. In another example, the lighting control device may receive the feedback message at 1222 from a user device (e.g., directly) and / or from a system controller. The response message may be received as a unicast message or a multicast message to trigger the lighting control device to provide link quality with an identified control device on the network. The feedback message itself may identify the unique identifier of a second control device on the network for which the lighting control device is to provide feedback indicating link quality to communicate messages with the second control device.The lighting control device may identify its link quality with the control device identified in the feedback message to be provided as feedback to the user or the user's user device. The user device may transmit the feedback message to the lighting control device using a wireless communication protocol. The system controller may transmit the feedback message to the control device via a wireless or wired connection. When a first lighting control device receives a feedback message to trigger feedback indicating the link quality between the first lighting control device and a second lighting control device, the first lighting control device may also send a feedback message to the second control device. QJRJ QÍVZZnZ / ? / YΙΛΙ lighting control device so that the second lighting control device provides feedback indicating that it is the device from which the link quality is indicated. After receiving the feedback message at 1222, the control circuitry of the lighting control device may determine a link quality (e.g., LQI and / or LQO) between the lighting control device and the identified device (e.g., from which the feedback message was received or as otherwise identified in the feedback message). The link quality (e.g., LQI and / or LQO) may be determined from network information stored in memory in the lighting control device. The link quality may be calculated as a predefined number that is within a range indicating different link qualities for the communication link between two devices. For example, the link quality may be indicated with values ​​of 0, 1, 2, or 3. At 1223, the control circuitry of the lighting control device may determine whether the link quality is equal to 3.For example, the control circuit of the lighting control device may determine that the link quality is equal to 3 when the RSSI value of one or more advertisement messages between the lighting control device and the identified control device has at least a 20 dB link margin above a reception level (e.g., a noise floor). If the control circuit of the lighting control device determines at 1223 that the link quality is equal to 3, the control circuit of the lighting control device may provide a first type of feedback indicating that the link quality is equal to 3 at 1224. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.The control circuit of the lighting control device may cause the lighting loads to illuminate in a first color (e.g., green) to indicate that the link quality is equal to 3. Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. Method 1220 may terminate at 1231. If the control circuitry of the lighting control device determines from the network information that the link quality is equal to 2 at 1225, the control circuitry of the lighting control device may provide a second type of feedback indicating that the link quality is equal to 2 at 1226. The control circuitry of the lighting control device may calculate that the link quality is equal to 2 when the RSSI value of one or more advertisement messages between the lighting control device and the identified control device is at least a 10 dB link margin above a reception level (e.g., a noise floor) and less than 20 dB above the reception level (e.g., a noise floor). The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device.For example, feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a second color (e.g., yellow, red-green, etc.) to indicate that the link quality is equal to 2. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color at a different intensity (e.g., a lower intensity) than that used to indicate a link quality of 3. Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. The predefined wavelength band and / or the predefined threshold may be different from the predefined threshold and / or the predefined wavelength band used to indicate a link quality of 3.Procedure 1220 may end in 1231. If the control circuitry of the lighting control device determines from the network information that the link quality is equal to 1 at 1227, the lighting control device may provide a third type of feedback indicating that the link quality is equal to 1 at 1228. The control circuitry of the lighting control device may calculate that the link quality is equal to 1 when the RSSI value of one or more advertisement messages between the lighting control device and the identified control device is at least a 2 dB link margin above a reception level (e.g., a noise floor) and less than 10 dB above the reception level (e.g., a noise floor). The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device.For example, feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a third color (e.g., orange, red, etc.) to indicate that the link quality is equal to 1. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a lower intensity) than the intensities used to indicate a link quality of 3 and a link quality of 2. Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of emitted light within a predefined wavelength band above a predefined threshold.The predefined wavelength band and / or the predefined threshold may be different from the predefined thresholds and / or the predefined wavelength bands that are used to indicate a link quality of 3 and a link quality of 2. The procedure 1220 may end at 1231. If the control circuitry of the lighting control device determines from the network information that the link quality is equal to 0 at 1229, the lighting control device may provide a fourth type of feedback indicating that the link quality is equal to 0 at 1230. For example, the lighting control device may calculate that the link quality is equal to 0 when the link quality is unknown or when the RSSI value of one or more advertisement messages cannot be determined above background noise. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.The control circuit of the lighting control device may cause the lighting loads to illuminate a fourth color (e.g., red) to indicate that the link quality is equal to 0. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a lower intensity) than the intensities used to indicate a link quality of 3, a link quality of 2, and / or a link quality of 1.Additionally and / or alternatively, feedback may be indicated by increasing a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. The predefined wavelength band and / or the predefined threshold may be different from the predefined thresholds and / or the predefined band of wavelengths that are used to indicate a link quality of 3, a link quality of 2, and / or a link quality of 1. The control device may indicate that the link quality is equal to 0 by not providing any feedback. For example, the lighting control device may maintain its state before indicating the quality of a link. The link quality may be equal to 0 when the lighting control device does not have a direct communication link with the identified control device for which the link quality can be indicated, such that lighting control devices that have a direct communication link with the identified control device provide feedback to the user or the user's device. Method 1220 may terminate at 1231. Although method 1220 may use link quality indicators from 0 to 3, similar feedback may be provided for different values ​​indicating link quality. For example, link quality may be provided for any range of values ​​by changing the color or dimming level of the lighting load of a lighting control device as the link quality changes. Furthermore, although method 1220 is used to provide feedback when the link quality equals a given value, method 1220 may be similarly implemented to provide different types of feedback when the link quality is greater than or less than different link quality thresholds. For example, the control circuitry of the lighting control device may determine at 1223, 1225, 1227, and / or 1229 whether the link quality is above or below given thresholds (e.g.,e.g., the link quality threshold THlqi may be set to 3, the link quality threshold THLq2 may be set to 2, the link quality threshold THLq3 may be set to 1, and the link quality threshold THLq4 may be set to 0). Different types of feedback may be provided when the link quality is above or below given thresholds. As described here, the link quality between two devices on the network can be used to determine the total path cost for communicating messages from a sending device to a receiving device on the network. Network information can be stored on each device on the network with the path cost for communicating messages from that device to other devices on the network. However, the path cost for communicating messages from a sending device to a receiving device on the network can be difficult to identify for a user configuring the load control system. The path cost can be particularly difficult to identify after the initial commissioning of a load control system, as devices are added to the network and elements in the space are added or moved, which can cause interference in communications between devices on the network.The path cost can be extracted from a device on the network by a user, but the path cost can vary over time as the network changes and the path cost identified by a user may be the path cost at a snapshot in time, which may even be more misleading than useful for configuring network communications in the load control system. FIG. 12C is a flowchart depicting an example method 1240 for identifying a path cost between a control device and another device on the network (e.g., a leader device or another device on a network). For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture. The method 1240 may be performed by the control circuitry of the lighting control device upon identification of a trigger event. The trigger event may be the receipt of a feedback message from a user device (e.g., a mobile device) and / or a system controller that causes the lighting control device to enter a feedback mode.Method 1240 may be used to generate a heat map representing the path cost between a first lighting control device and other lighting control devices in the network. For example, the first lighting control device may be illuminated with a first color, while each of the other lighting control devices may be illuminated with a color associated with the respective path cost for the path from the first lighting control device to the other lighting control device. Method 1240 may begin at 1241. At 1242, the control circuit of the lighting control device may receive a feedback message to trigger path cost feedback between the lighting control device and another device. For example, the feedback message may be configured to trigger the lighting control device to provide feedback indicating the path cost to the leader device or another device in the network. The unique identifier of the device for which the path cost will be indicated in the feedback may be included in the feedback message, or the device for which the path cost will be indicated in the feedback may be preprogrammed into the lighting control device (e.g., path cost to the leader device stored in memory).The lighting control device may receive a feedback message 1242 from a user device (e.g., directly) and / or from a system controller. The feedback message may be communicated as a unicast message to the lighting control device, or as a multicast message to enable path cost feedback to multiple lighting control devices in the space. The user device may transmit the message to the lighting control device using a wireless communication protocol. The system controller may transmit the message to the lighting control device via a wireless or wired connection.Although messages from the user device or system controller are provided as examples for triggering feedback in the lighting control device, lighting control devices may provide feedback based on other triggering criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. After receiving the feedback message at 1242, the control circuit of the lighting control device may determine the feedback to provide for the path cost to the identified device in the network (e.g., a leader device or another device identified in the network). As described herein, the control circuit of the lighting control device may calculate the path cost to other devices in the network based on the received advertisement messages. The path cost may indicate the relative cost or loss of communications over an entire communication path that may include one or more router devices. The control circuit of the lighting control device may store the path cost information in memory among the network information. The path cost information may include the path cost between one or more router devices in the network, including the leader device.For example, the path cost might indicate the total cost of communicating a message from an initial router device to an end router device. Just as the path cost might indicate the cost of communications between router devices, the lighting control device might be a... Q f R ! Qn / zznz / q / YILI router device indicating the path cost for communicating messages to the identified end router device, or the lighting control device may indicate the path cost from its parent router device for communicating messages to the identified end router device. If the lighting control device is an end device, the control circuitry of the lighting control device may indicate the path cost to the identified end router device based on the path cost from its parent router device and the link quality for communications between the lighting control device and its parent router device. At 1243, the control circuitry of the lighting control device may determine whether the path cost is less than a first path cost threshold (e.g., THpci).If the lighting control device determines at 1243 that the path cost is less than the first path cost threshold THpci, the lighting control device may provide a first type of feedback indicating that the path cost is less than the first path cost threshold THpci at 1244. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate with a first color (e.g., green) to indicate that the path cost is less than the first path cost threshold THpci.Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the path cost is less than the first path cost threshold THpci. Method 1240 may terminate at 1251. If the control circuit of the lighting control device determines that the path cost is not less than the first path cost threshold THPCi, the control circuit of the lighting control device may determine that the path cost is greater than the first path cost threshold THpci. For example, the lighting control device may determine, at 1245, that the path cost is greater than or equal to the first path cost threshold THPci and less than a second path cost threshold THPC2. If the control circuit of the lighting control device determines at 1245 that the path cost is greater than or equal to the first path cost threshold THpci and less than the second path cost threshold THPc2, the control circuit of the lighting control device may provide a second type of feedback at 1246.Feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a second color (e.g., yellow) to indicate that the path cost is greater than or equal to the first path cost threshold THPci and y. Q t R ! Qn / zznz / q / YILI less than the second path cost threshold THpc2. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a higher intensity) than that used to indicate that the path cost is less than the first path cost threshold THpci. Additionally and / or alternatively, the lighting control device may boost a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the path cost is greater than or equal to the first path cost threshold THPCi and less than the second path cost threshold THPC2. The predefined wavelength band and / or the predefined threshold may be different from the predefined wavelength band and / or the predefined threshold used to indicate that the path cost is less than the first path cost threshold THPci.Procedure 1240 may end in 1251. If the control circuit of the lighting control device determines that the path cost is not less than the second path cost threshold THPC2, the lighting control device may determine that the path cost is greater than the second path cost threshold THPC2 at 1247. For example, the control circuit of the lighting control device may determine, at 1247, that the path cost is greater than or equal to the second path cost threshold THPc2 and less than a third path cost threshold THPC3. If the control circuit of the lighting control device determines at 1247 that the path cost is greater than or equal to the second path cost threshold THPC2 and less than the third path cost threshold THPC3, the control circuit of the lighting control device may provide a third type of feedback indicating that the path cost is greater than or equal to the second path cost threshold THPC2 at 1248.Feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a third color (e.g., orange) to indicate that the path cost is greater than or equal to the second path cost threshold THPC2 and less than the third path cost threshold THPC3. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a higher intensity) than those used to indicate the first type of feedback at 1244 and the second type of feedback at 1246.Additionally and / or alternatively, the lighting control device may increase a spectral power value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the path cost is greater than or equal to the second path cost threshold THPC2 and less than the third path cost threshold THPC3. The predefined wavelength band and / or the predefined threshold may be different from those used to indicate the first type of feedback at 1244 and the second type of feedback at 1246. The method 1240 may terminate at 1251. If the control circuit of the lighting control device determines that the path cost is greater than or equal to the third path cost threshold THpcs at 1249, the lighting control device may provide a fourth type of feedback at 1250. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.The lighting control device may cause the lighting loads to emit light in a fourth color (e.g., red) to indicate that the path cost is greater than or equal to the third path cost threshold THPC3. Alternatively, the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a greater intensity) than those used to indicate the first type of feedback at 1244, the second type of feedback at 1246, and the third type of feedback at 1248.Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the path cost is greater than or equal to the second path cost threshold THPc2 and less than the third path cost threshold THPC3. The predefined wavelength band and / or the predefined threshold may be different from those used to indicate the first feedback type at 1244, the second feedback type at 1246, and the third feedback type at 1248. The method 1240 may terminate at 1251. Using method 1240, the path cost between devices in the network may be identified, such that the user or the user's user device may identify higher and / or lower path costs for communications between devices within the network. The user may then configure control devices in an attempt to improve the path cost of communications between devices in the network. The user may improve the path cost between two devices, for example, by shortening the path between the devices (e.g., by decreasing the number of other devices in the path) and / or by increasing the link quality of a link between two devices in the path. For example, a user may connect an end device to another main router device to improve the path cost between the end device and a leader device.The updated configuration can be sent from the user's user device and stored in the network information on the end device. Other information that can help a user configure, troubleshoot, and / or diagnose network problems may be background noise. As described in this document, background noise on a device can indicate the amount of wireless traffic (e.g., interference) on the network. QJRJ Qn / zznz / q / YILI device. For example, if a user can identify background noise at a given control device, such as a lighting control device, the user can identify an RSSI value for the noise generated in the area of ​​the lighting control device. Background noise at a given control device can be particularly difficult to identify after the initial commissioning of a load control system, as devices are added to the network and elements in the space are added or moved and can cause interference in communications between devices on the network.Background noise can be identified by measuring the noise on a network device by a user, but background noise can vary over time as the network changes, and the background noise identified by a user may be background noise at a snapshot in time, which may be more misleading than useful for configuring network communications in the load control system. FIG. 12D is a flowchart depicting an example method 1260 for identifying background noise at a control device in a network. For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture. The method 1260 may be performed by the control circuitry of the lighting control device upon identification of a trigger event. The trigger event may be the receipt of a feedback message from a user device (e.g., a mobile device) and / or a system controller that causes the lighting control device to enter a feedback mode. The method 1260 may be used to generate a heat map depicting background noise at one or more lighting control devices.For example, each lighting control device may illuminate a color that is associated with the background noise for that lighting control device. Method 1260 may begin at 1261. At 1262, the control circuitry of the lighting control device may receive a feedback message to trigger background noise feedback in the control device. For example, the control circuitry of the lighting control device may receive the message from a user device (e.g., directly) and / or from a system controller. The feedback message may be communicated as a unicast message to the lighting control device, or as a multicast message to trigger background noise feedback in multiple lighting control devices in the space. The user device may transmit the message to the lighting control device using a wireless communication protocol.The system controller can transmit the message to the lighting control device via a wireless or wired connection. Although messages from the user device or the system controller are provided as examples for triggering feedback in the system, Q ! RI Qn / 77n7 / q / YILI lighting control device, lighting control devices may provide feedback based on other triggering criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. After receiving the feedback message at 1262, the control circuit of the lighting control device may determine the background noise from network information stored in memory. The background noise may be an RSSI value for noise generated in the network. For example, the background noise may be an instantaneous value indicating the background noise at the lighting control device, or the background noise may be an average value indicating the background noise at the lighting control device over a period of time. The background noise may be used to determine link quality and / or path cost between the control device and another control device (e.g., a leader device or another router device). At 1263, the control circuit of the lighting control device may determine whether the background noise is less than a first background noise threshold THnfi.If it is determined at 1263 that the background noise is lower than the first background noise threshold THnfi, the control circuit of the lighting control device may provide a first type of feedback at 1264. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.The control circuit of the lighting control device may cause the lighting loads to illuminate a first color (e.g., green) to indicate that the background noise is less than a first background noise threshold THnfi-. Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the background noise is less than a first background noise threshold THnfi-. The method 1260 may terminate at 1272. If the lighting control device control circuit determines that the background noise is not less than the first background noise threshold THnfi , the lighting control device control circuit may determine whether the background noise is greater than the first background noise threshold THnfi . For example, the lighting control device control circuit may determine at 1245 that the background noise is greater than or equal to the first background noise threshold THnfi and less than a second background noise threshold THnf2 . If it is determined at 1265 that the background noise is greater than or equal to the first background noise threshold THnfi and less than the second background noise threshold THNf2 , the lighting control device control circuit may provide a second type of feedback at 1267.Feedback may be indicated by changing a state of the lighting loads controlled by the control device or ¡ ri Qn / zznz / q / υιλι. 100 lighting. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads. The control circuit of the lighting control device may cause the lighting loads to illuminate with a second color (e.g., yellow) to indicate that the background noise is greater than or equal to the first background noise threshold THnfi and less than a second background noise threshold THNf2. Alternatively, the control circuit of the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a higher intensity) than the first type of feedback provided at 1264.Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the background noise is greater than or equal to the first background noise threshold THnfi and less than the second background noise threshold THnf2. The predefined wavelength band and / or the predefined threshold may be different from the predefined wavelength band and / or the predefined threshold used to indicate the first type of feedback provided at 1264. The method 1260 may terminate at 1272. If the control circuitry of the lighting control device determines that the background noise is greater than or equal to the second background noise threshold THnf2 at 1268, the control circuitry of the lighting control device may provide a third type of feedback at 1269. For example, the control circuitry of the lighting control device may determine at 1268 that the background noise is greater than or equal to the second background noise threshold THNF2 and less than a third background noise threshold THNF3. If it is determined at 1268 that the background noise is greater than or equal to the second background noise threshold THNf2 and less than the third background noise threshold THnf3, the feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads.The control circuit of the lighting control device may cause the lighting loads to illuminate a third color (e.g., orange) to indicate that the background noise is greater than or equal to the second background noise threshold THnf2. Alternatively, the control circuit of the lighting control device may cause the lighting loads to illuminate the first color, at a different intensity (e.g., a higher intensity) than those used to indicate the first type of feedback and the second type of feedback. Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the background noise is greater than or equal to the second background noise threshold THNf2 and less than a third background noise threshold THnfs.The predefined wavelength band and / or qjrj on / zznz / q / υιλι. 101 The predefined threshold may be different from those used to indicate the first type of feedback and the second type of feedback. Procedure 1260 may terminate at 1272. The control circuit of the lighting control device may determine whether the background noise is greater than or equal to a third background noise threshold THnfs at 1270. The third background noise threshold THnf3 may be greater than the first background noise threshold THnfi and the second background noise threshold THNf2. If it is determined at 1270 that the background noise is not greater than or equal to the third background noise threshold THNf3, the method 1260 may terminate at 1272. If it is determined at 1270 that the background noise is greater than or equal to the third background noise threshold THnfs, the control circuitry of the lighting control device may provide a fourth type of feedback at 1271. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by changing the intensity and / or color of the lighting loads. The lighting control device may cause the lighting loads to illuminate a fourth color (e.g., red) to indicate that the background noise is greater than or equal to the third background noise threshold THnfs.Alternatively, the lighting control device may cause the lighting loads to illuminate the first color at a different intensity (e.g., a higher intensity) than those used to indicate the first type of feedback, the second type of feedback, and the third type of feedback. In addition and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that the background noise is greater than or equal to the third background noise threshold Thnfs. The predefined wavelength band and / or the predefined threshold may be different from those used to indicate the first type of feedback, the second type of feedback, and the third type of feedback. The method 1260 may terminate at 1272. Using method 1260, background noise can be identified at a monitoring device, such that the user or the user's user device can identify the monitoring devices from which the highest or lowest background noises are measured. Although method 1260 indicates the use of a certain number of feedback types, there may be a greater or lesser number of feedback types that are implemented. For example, a greater number of feedback types may allow for a continuous color gradient that changes from one color to another throughout the space and a more granular indication of background noise. More monitoring devices may allow for a smaller color change and a more granular indication of background noise from one device to another. To provide a granular indication of background noise, QJRJ QÍVZZnZ / ? / YILY 102 control devices may calculate or generate the color provided as background noise feedback as a function of the background noise value. Providing feedback to the user or user device indicating the background noise measured by a particular monitoring device on the network may indicate the noise generated on the network at the device's location. For example, feedback provided to the user may indicate when other devices (e.g., a wireless access point (WAP) or microwave) may be generating noise or interfering with communications to / from the monitoring device. The background noise on a given monitoring device may indicate the average amount of RF noise on the network from a source external to the network over a period of time (e.g., as an RSSI value). Since other types of network information (e.g., link quality, path cost, etc.) may be provided or calculated,) Depending on the background noise, identifying background noise can be useful for troubleshooting, diagnosing, and / or configuring other parts of the network. The user may move the control device identified as having relatively high background noise to a different physical location with lower background noise, thereby decreasing the likelihood of messages sent to and received from the control device being lost while maintaining the primary / secondary relationships of the control device. For example, a light fixture that provides relatively high background noise feedback in the space may be moved to a location where the light fixture provides relatively low background noise feedback. The user may additionally or alternatively identify an interference source (e.g., a WAP) in the area of ​​the control device and may reduce the interference by disabling, reconfiguring, and / or physically moving the interference source. The methods described herein may be combined and used together to determine multiple types of information about a lighting control device at the same time. For example, method 1000 shown in FIG. 10A and method 1260 shown in FIG. 12D may be combined into computer-executable or machine-executable instructions to identify background noise around a device having a particular function in the network. A lighting control device may receive a message that triggers the lighting control device to provide feedback indicating the function of the lighting control device in the network and the background noise at the lighting control device.The lighting control device may provide different types of feedback to indicate the function of the lighting control device on the network and the background noise on the lighting control device. For example, the function of the lighting control device on the network may be indicated by illuminating a corresponding lighting load of a given color, and the background noise on the control device. 103 Lighting may be indicated by illuminating the corresponding lighting load at a given intensity. Alternatively, the lighting control device may indicate the function of the lighting control device on the network and background noise on the lighting control device using the same type of feedback. For example, the lighting control device may indicate its function on the network by illuminating with a given color, and may indicate background noise on the lighting control device by illuminating with a given shade within the color. Although function and background noise are indicated as an example of the types of feedback that may be provided together or in sequence, other types of feedback may be provided in a similar manner (e.g., by a single feedback message or multiple feedback messages). When troubleshooting, diagnosing, and / or configuring a network, it may be difficult for a user to identify the communications path between controlling devices, or even to identify which control devices to configure to enhance network communications. As described herein, a controlling device (e.g., a router device) may be part of a path between controlling devices (e.g., an end device and a leader device). In larger networks, there may be multiple alternate paths between controlling devices on a network. For example, as shown in FIG. 2B , router-capable end device 241 may communicate with leader device 211 via a first path that includes router devices 221d and 221a, and / or via a second path that includes router devices 221d, 221b, and 221c.Therefore, if messages communicated between a given end device and a leader device are discarded, it can be difficult to determine the path on which the messages are communicated to help troubleshoot or diagnose communication inefficiencies and / or configure devices to improve communications. Because the leader device may be responsible for orchestrating device functions and communications on the network, it may be important for a controlling device to have the best opportunity to communicate information to and / or receive information from the leader device. If messages communicated between a given end device and a leader device are discarded, it may be useful to know the path between the end device and the leader device, and which (if any) of the identified controlling devices are on the path between the end device and the leader device. The path between the end device and the leader device may be identified using a method 1300 shown in FIG. 13. FIG. 13C is a flowchart depicting an exemplary method 1300 for identifying a path cost between a controlling device and its leader device on a network.For example, the control device may be a lighting control device. The lighting control device may control an amount of power provided to a lighting load of a lighting fixture. The lighting control device may. 104 be in communication with other lighting control devices on the network. For example, the lighting control device may share a direct communication link with the head device or another router device on the network. Method 1300 may be performed by one or more lighting control devices to identify the communication path between a lighting control device and the head device upon a trigger event. The trigger event may be the receipt of a feedback message from a user device (e.g., a mobile device) and / or a system controller that causes the lighting control device to enter a feedback mode. Method 1300 may begin at 1302. At 1304, a lighting control device may receive a message (e.g., a feedback message) to trigger feedback of the path from the lighting control device to the leader device in the network. For example, the lighting control device may receive the feedback message from a user device (e.g., directly), from another control device (e.g., a lighting control device), and / or from a system controller. The feedback message may be received as a unicast message that includes the unique identifier of the lighting control device to trigger the feedback. The user device may transmit the message to the control device using a wireless communication protocol (e.g.,, the BLUETOOTH® communication protocol or the BLUETOOTH® Low Energy (BLE) communication protocol). The system controller may transmit the message to the control device via a wireless or wired connection. Although messages from the user device or the system controller are provided as examples for triggering feedback in the lighting control device, lighting control devices may provide feedback based on other triggering criteria (e.g., in response to occupancy conditions, the RSSI value of the feedback message, or other messages or signals) as described herein. The lighting control device may receive the feedback message from the user device (e.g., directly or via the system controller) if, for example, the lighting control device is the first device in the path to the leader (e.g., the lighting control device is an end device). The lighting control device may receive the message from another lighting control device if the lighting control device is not the first device in the path to the leader (e.g., the lighting control device is a router device). At 1306, the lighting control device may determine whether it is a leader device. As described here, the leader device may manage other control devices on the network. A lighting control device may be an example of a leader device, although other devices may be 105 assign other control devices as the leader device in a network or network partition. If the lighting control device determines at 1306 that it is a leader device, the lighting control device may provide feedback indicating that the device is the leader device at 1314. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by illuminating a corresponding lighting load a color and / or intensity. The lighting control device may cause the lighting loads to illuminate a first color (e.g., blue) to indicate that the lighting control device is a leader device.Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. Method 1300 may terminate at 1316. If the lighting control device does not determine that it is a leader device at 1306, the lighting control device may provide feedback indicating that the device is en route to the leader device at 1308. The feedback may be indicated by changing a state of the lighting loads controlled by the lighting control device. For example, the feedback may be indicated by illuminating a corresponding lighting load of one color and / or intensity. The lighting control device may cause the lighting loads to illuminate a second color (e.g., red) to indicate that the lighting control device is en route to the leader device (e.g., the device determines that it is a router). The first device in route to the leader device (e.g.,, the device that determines that it is an end device or a router device to which the end device is directly connected) may provide different feedback from the other devices in the path to the leader device. For example, the first device in the path may cause the lighting loads to illuminate a third color (e.g., green). Additionally and / or alternatively, the lighting control device may boost a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold to indicate that background noise is greater than or equal to the third background noise threshold THnf3. The predefined wavelength band and / or predefined threshold may be different from that used to indicate the leader device. At 1310, the lighting control device may determine a next hop back to the leader device with the lowest total path cost (e.g., and / or maximum link quality). After the lighting control device determines which device is the next hop back to the leader device, the lighting control device may send a message (e.g., a feedback message) to the determined device. The message may instruct the next device to provide feedback indicating that it is on the path to the leader device. 106 leading device. The next device may receive the message at 1304, and procedure 1300 may be repeated until the leading device is reached. Procedure 1300 may end at 1316 when the leading device is reached. As described herein, lighting control devices along the path to the leader may provide feedback indicating that they are along the path to the leader by changing the color of the lighting loads controlled by the respective lighting control devices. Different colors may be used to indicate lighting control devices that are located on different parts of the path to the leader device. For example, the first device along the path (e.g., an end device) may illuminate a first color, the leader device may illuminate a second color, and other devices along the path (e.g., router devices) may illuminate a third color. Alternatively, each device along the path may illuminate different colors and / or intensities. The different colors and / or intensities may be used to show the order of the devices along the path.For example, the wavelength of the color used to indicate each device may decrease (e.g., from red to blue) for each successive device in the path, which may allow the user to see the order of the devices in the path toward the lead device. Additionally and / or alternatively, the lighting control device may increase a spectral energy value of the emitted light within a predefined wavelength band above a predefined threshold. Different predefined wavelength bands and / or different predefined thresholds may be used to display the order of the devices in the path. Use of method 1300 to identify paths between the respective end devices and the leader device(s) may have one or more benefits. For example, as described with reference to FIG. 6D, identifying the path between an end device and a leader device may be useful for avoiding router devices and / or areas that have relatively high background noise. Additionally, method 1300 may identify a router device that is on a relatively high number of paths and therefore has a relatively high amount of wireless traffic. The user may reduce the number of paths that go through the router device, for example, by adding another router device to the network or by redirecting one or more of the paths to go through another router device already in the network.Procedure 1300 may also be used to identify that a route has a higher probability of losing messages because, for example, the route may indicate that one or more hops between controlling devices are physically separated, or the route includes a relatively high number of devices in an area on the route that may cause interference on the route. The method 1300 shown in FIG. 13 may be used in combination with or consecutively with one or more of the methods described herein. For example, as described herein, the method 1300 may be used consecutively with 107 the method 1000 shown in FIG. 10A to identify a particular type of device (e.g., an end device) and illuminate the path from the device to the leader device. Use of the method 1300 in combination or consecutively with one or more other methods may allow a user to configure controlling devices on a network to, for example, increase reliability and / or decrease latency. Once the path between two devices is identified, the user may send a feedback message to identify background noise, link quality, link cost, or provide other feedback to devices in the path to diagnose problems that may occur in the communication path between the devices.The user may perform one or more actions to improve communications on the path between the end device and the leader device, such as connecting the end device to another router device to improve the quality of the communication path to the leader device. Although the features and elements are described herein in particular combinations, each feature or element may be used alone or in any combination with the other features and elements. The methods described herein may be implemented in a computer program, software, instructions, or firmware stored on one or more non-transitory computer-readable media or other machine-readable media for execution by a computer or machine, or portion thereof. For example, computer-readable or machine-readable media may be executed by a control circuit, such as a processor. Examples of computer-readable or machine-readable media include electronic signals (transmitted via wired or wireless connections) and computer-readable storage media.Examples of computer-readable storage media include, but are not limited to, read-only memory (ROM), random access memory (RAM), removable disks, and optical media such as CD-ROMs and digital versatile disks (DVDs). The control circuitry may access the computer program, software, instructions, or firmware stored on the computer-readable media or machine-readable media to be executed to cause the control circuitry to function as described herein, or to operate one or more devices as described herein.

Claims

1. A lighting control device comprising: a load control circuit configured to control an amount of power supplied to a lighting load, wherein the lighting load comprises at least one light-emitting diode (LED); a communication circuit configured to transmit or receive messages on a network; and a control circuit configured to: control the load control circuit to emit light from the at least one LED according to the operating configuration during an operating mode; receive, via the communication circuit, a message comprising a trigger event to activate a feedback mode to indicate configuration or diagnostic information; and determine that the trigger event is intended to activate the feedback mode in the lighting control device.providing feedback by controlling the amount of power supplied to at least one LED through the load control circuit to indicate configuration or diagnostic information associated with the lighting control device, wherein the feedback is indicated by changing the at least one LED to a predefined color.

2. The lighting control device of claim 1, wherein the control circuit is further configured to: determine that the activation event is intended to activate the feedback mode in another lighting control device; maintain the operating mode; and maintain control of the power supplied to at least one LED in accordance with the operating mode.

3. The lighting control device of claim 2, wherein the predefined color of at least one LED is a first color output, and wherein the control circuit is further configured to: control the power supplied to at least one LED to provide a second color output in operating mode.

4. The lighting control device of claim 3, wherein the first predefined color output comprises the total light output of the lighting control device when feedback is provided in feedback mode, and wherein the second predefined color output comprises the total light output of the lighting control device in operating mode. 109 5. The lighting control device of claim 2, wherein the at least one LED used to provide feedback is within a plurality of LEDs used to provide a total light output for the lighting control device.

6. The lighting control device of claim 5, wherein the at least one LED used to indicate feedback is configured to emit light in a predefined wavelength band in a visible light spectrum.

7. The lighting control device of claim 6, wherein the control circuit is further configured to increase the intensity level of at least one LED above a predefined threshold in feedback mode, and decrease the intensity level of at least one LED below the predefined threshold in operating mode.

8. The lighting control device of claim 7, wherein the control circuit is further configured to increase the intensity level of at least one LED based on a decrease in a vitality value used to indicate a saturation level for the total light output of the lighting control device, and wherein the control circuit is further configured to decrease the intensity level of at least one LED based on an increase in the vitality value used to indicate the saturation level for the total light output of the lighting control device.

9. The lighting control device of claim 8, wherein the at least one LED comprises a white LED, and wherein the at least one other LED of the plurality of LEDs used to provide a total light output for the lighting control device comprises a non-white LED.

10. The lighting control device of claim 7, wherein the control circuit is configured to control the plurality of LEDs to provide the total light output in a first color value in feedback mode and in a second color value in operating mode.

11. The lighting control device of claim 10, wherein the first color value and the second color value are the same color temperature value within a white light spectrum on a blackbody curve.

12. The lighting control device of claim 10, wherein the first color value comprises the first chromaticity coordinates, wherein the second color value comprises the second chromaticity coordinates, wherein the first chromaticity coordinates and the second chromaticity coordinates are within a predefined distance from each other in a color spectrum.

13. The lighting control device of claim 12, wherein the predefined distance comprises a predefined number of MacAdam ellipses in the color spectrum. or ¡ ri Qn / zznz / q / υιλι 110 14. The lighting control device of claim 10, wherein the first color value corresponds to a first spectral distribution of a visible light spectrum, and wherein the second predefined color value corresponds to a second spectral distribution of the visible light spectrum.

15. The lighting control device of claim 14, wherein the first spectral distribution is a metameric match with the second spectral distribution.

16. The lighting control device of claim 2, wherein the at least one LED is within a plurality of LEDs used to provide a total light output for the lighting control device in an operating mode, and wherein the at least one LED comprises a feedback LED configured to provide feedback during the feedback mode, and wherein the control circuit does not supply power to the feedback LED when in the operating mode.

17. The lighting control device of claim 16, wherein the control circuit is configured to use at least one other LED from the plurality of other LEDs to compensate for the feedback LED in the total light output when the feedback LED is operating in feedback mode.

18. The lighting control device of claim 1, wherein the diagnostic or configuration information comprises network information associated with the lighting control device and the network.

19. The lighting control device of claim 18, wherein the network information comprises a function of the lighting control device in a network.

20. The lighting control device of claim 19, wherein the function comprises one of a leading device, a routing device, or a secondary device in a mesh network.

21. The lighting control device of claim 18, wherein the network information comprises a link quality to another device in a network.

22. The lighting control device of claim 21, wherein the link quality comprises the link quality to a main device of the lighting control device in the network.

23. The lighting control device of claim 18, wherein the control circuit is configured to receive, via the communication circuit, a message from another device, and wherein the network information comprises a link quality in which the message from the other device is received.

24. The lighting control device of claim 23, wherein the message is a first message, and wherein the other device is a first device, wherein the control circuit 111 is configured to transmit, through the communication circuit, a second message to a second device, and wherein the second message is configured to cause the second device to provide feedback indicating a link quality in which the second message is received at the second device.

25. The lighting control device of claim 23, wherein the predefined color is different for different predefined bond qualities.

26. The lighting control device of claim 18, wherein the network information comprises background noise, wherein the predefined color is different for different predefined background noise values.

27. The lighting control device of claim 18, wherein the network information comprises an indication of whether the lighting control device is a primary device or a secondary device in a network.

28. The lighting control device of claim 27, wherein the lighting control device is a primary device, and wherein the control circuit is further configured to transmit, via the communication circuit, a message to a secondary device configured to cause the secondary device to provide feedback for identification.

29. The lighting control device of claim 27, wherein the lighting control device is a secondary device, and wherein the control circuit is further configured to transmit, via the communication circuit, a message to a main device configured to cause the main device to provide feedback for identification.

30. The lighting control device of claim 1, wherein the control circuit is further configured to: receive the message from a first lighting control device, wherein the message is configured to cause the control circuit to provide feedback if the lighting control device is on a communication path in a mesh network between the first device and a second device; determine that the lighting control device is on the communication path; and in response to the determination that the lighting control device is on the communication path, provide feedback.

31. The lighting control device of claim 30, wherein the control circuit is configured to determine that the lighting control device is in the communication path by being configured to determine that the lighting control device is the next hop in the mesh network with a lower path cost to a leading device.

32. A method comprising: Q ! R ! 00 / 7707 / 31 / YILI 112 transmitting a message to at least one lighting control device, wherein the message comprises an activation event to activate a feedback mode to indicate diagnostic or configuration information in at least one lighting control device; and providing the feedback in a lighting control device by controlling an amount of power supplied to at least one LED of the lighting control device to indicate the configuration or diagnostic information associated with the lighting control device, wherein the feedback is indicated using a predefined color.

33. The method of claim 32, wherein the lighting control device is within a plurality of lighting control devices in a lighting control system, and wherein the lighting control device providing the feedback meets the predefined criteria stated in the message.

34. The method of claim 33, wherein the lighting control device is a first lighting control device in the plurality of lighting control devices, wherein the predefined color is a first color output of the lighting control device, wherein the method further comprises: controlling an amount of energy supplied to at least one LED of a second lighting control device within the plurality of lighting control devices to provide a second color output.

35. The method of claim 34, wherein the second lighting control device does not meet the predefined criteria for providing the feedback indicated in the message.

36. The method of claim 35, wherein the first predefined color output comprises a total light output from the first lighting control device that meets the predefined criteria for providing feedback, and wherein the second predefined color output comprises the total light output from the second lighting control device that does not meet the predefined criteria.

37. The method of claim 35, wherein the at least one LED used to provide feedback is within a plurality of LEDs used to provide a total light output for the first lighting control device.

38. The method of claim 37, wherein the at least one LED used to indicate feedback is configured to emit light in a predefined wavelength band.

39. The method of claim 38, wherein the first lighting control device is configured to provide feedback by increasing the intensity level of at least one LED above a predefined threshold.

40. The method of claim 39, further comprising: 113 using an optical filter to identify the feedback provided at the increased intensity level in the predefined wavelength band.

41. The method of claim 40, wherein the optical filter is a notch filter, wherein the at least one LED of the second lighting control device is within a plurality of LEDs used to provide a total light output for the second lighting control device, wherein the at least one LED of the second lighting control device is configured to emit light in the predefined wavelength band, and wherein the optical filter removes less energy in the predefined wavelength band for the light emitted by at least one LED of the first lighting control device than it does in the predefined wavelength band for the light emitted by the at least one LED of the second lighting control device.

42. The method of claim 40, wherein the optical filter is integrated into a lens in a mobile device or eyeglasses.

43. The method of claim 42, wherein the optical filter comprises a notch filter configured to remove energy in the predefined wavelength band.

44. The method of claim 42, wherein the optical filter comprises a bandpass filter configured to permit the emission of light in the predefined wavelength band.

45. The method of claim 39, wherein the intensity level of at least one LED increases as a function of a decrease in a vitality value used to indicate a saturation level for the total light output of the first lighting control device.

46. ​​The method of claim 45, wherein at least one LED comprises a white LED, and wherein at least one other LED of the plurality of LEDs used to provide the total light output for the first lighting control device comprises a non-white LED.

47. The method of claim 46, wherein the total light output for the light emitted by the plurality of LEDs of the first lighting control device comprises a first color value that is visibly indistinguishable from a second color value of the total light output for the light emitted by the plurality of LEDs of the second lighting control device.

48. The method of claim 47, wherein the first color value and the second color value are color temperature values ​​on a blackbody curve.

49. The method of claim 47, wherein the first color value comprises the first chromaticity coordinates, wherein the second color value comprises the second chromaticity coordinates, wherein the first chromaticity coordinates and the second chromaticity coordinates are within a predefined distance from each other in a color spectrum. 114 50. The method of claim 49, wherein the predefined distance comprises a predefined number of MacAdam ellipses in the color spectrum.

51. The method of claim 47, wherein the first color value corresponds to a first spectral distribution of a visible light spectrum, and wherein the second predefined color value corresponds to a second spectral distribution of the visible light spectrum.

52. The method of claim 51, wherein the first spectral distribution is a metameric match with the second spectral distribution.

53. The method of claim 32, wherein the diagnostic or configuration information comprises network information associated with the lighting control device and the network.

54. The method of claim 53, wherein the feedback provides color diagnostic information indicating a relative performance of the lighting control device in the network.

55. The method of claim 53, wherein the network information comprises a function of the lighting control device in a network.

56. The method of claim 55, wherein the function comprises one of a leading device, a router device, or a secondary device in a mesh network.

57. The method of claim 53, wherein the network information comprises a link quality between the lighting control device and another device in a network.

58. The method of claim 57, wherein the link quality comprises the link quality to a main device of the lighting control device in the network.

59. The method of claim 53, wherein the network information comprises background noise, wherein the predefined color is different for different predefined background noise values.

60. The method of claim 53, wherein the network information comprises an indication of whether the lighting control device is a primary or secondary device in a network.

61. The method of claim 60, wherein the lighting control device is a primary device, the method further comprises: transmitting a message to a secondary device configured to cause the secondary device to provide information for identification purposes.

62. The method of claim 60, wherein the lighting control device is a secondary device, the method further comprises: transmitting a message to a main device configured to cause the main device to provide information for identification purposes. 115 63. The method of claim 32, wherein the message is configured to cause the lighting control device to provide feedback if the lighting control device is on a communication path in a mesh network between a first device and a second device, wherein the method further comprises: determining that the lighting control device is on the communication path; and in response to the determination that the lighting control device is on the communication path, providing feedback.

64. The method of claim 62, wherein the determination that the lighting control device is in the communication path is made by determining that the lighting control device is the next hop in the mesh network with the lowest path cost to a leading device.

65. A lighting control device comprising: a load control circuit configured to control an amount of power supplied to a lighting load; a communication circuit configured to communicate messages on a network; and a control circuit configured to: identify an activation event to activate feedback mode; in response to the activation event, provide feedback indicating network information associated with the lighting control device and the network; and provide the feedback by operating the load control circuit to control the amount of power supplied to the lighting load to indicate the network information associated with the lighting control device and the network, wherein the feedback is indicated by at least an intensity or a color of the lighting load.

66. The lighting control device of claim 65, wherein the network information comprises a function of the lighting control device on the network, and wherein the feedback indicates the function of the lighting control device on the network.

67. The lighting control device of claim 66, wherein the function comprises at least one of a leading device, a routing device, or an end device.

68. The lighting control device of claim 66, wherein the function comprises at least one of a main device or a secondary device.

69. The lighting control device of claim 66, wherein the function comprises an auxiliary main device.

70. The lighting control device of claim 65, wherein the network information comprises a link quality to another device on the network, and wherein the feedback indicates the link quality to the other device on the network. 116 71. The lighting control device of claim 65, wherein the network information comprises a path cost to another device in the network, and wherein the feedback indicates the path cost to the other device in the network.

72. The lighting control device of claim 65, wherein the network information comprises background noise measured at the lighting control device, and wherein the feedback indicates the background noise.

73. The lighting control device of claim 1, wherein the activation event is a message received through a beacon.

74. The lighting control device of claim 1, wherein the activation event is an occupancy condition detected in the lighting control device.

75. A load control system comprising: a first lighting control device configured to control a quantity of power supplied to a first lighting load, wherein the first lighting control device is configured to communicate on a network; and a second lighting control device configured to control a quantity of power supplied to a second lighting load, wherein the second lighting control device is configured to communicate on the network; wherein the first lighting control device is configured to provide, in response to an activation event, first feedback indicating first network information associated with the first lighting control device and the network, wherein the first feedback is indicated by at least one intensity or color of the first lighting load;and wherein the second lighting control device is configured to provide, in response to the activation event, a second feedback indicating a second network information associated with the second lighting control device and the network, wherein the second feedback is indicated by at least one intensity or color of the second lighting load.

76. The load control system of claim 75, wherein the first lighting control device and the second lighting control device are in a plurality of load control devices configured to provide respective feedback that provides a collective heat map of the network information of each lighting control device in a space in which the load control system is installed.

77. The load control system of claim 75, wherein the first feedback and the second feedback provided by each of the first lighting control device and the second lighting control device indicate respective positions of the first lighting control device and the second lighting control device in a path between lighting control devices in the load control system capable of communicating with each other.

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