A lighting device and a method and system for controlling the lighting device

Abstract

The present disclosure provides a lighting device and a method and system for controlling the lighting device, wherein the lighting device control method is a method for controlling the lighting device by an effect application executed by at least one processor on a director terminal, comprising the steps of: generating a library setting a light emitting mode of a plurality of lighting devices; generating a scenario setting a light emitting mode of the plurality of lighting devices within a specified time; generating a performance preparation data including at least one of the library and the scenario; providing the generated performance preparation data to the plurality of lighting devices; transmitting a lighting device control signal to the plurality of lighting devices, the lighting device control signal commanding execution, interruption or termination of at least one of the library and the scenario within the provided performance preparation data; and implementing a comprehensive lighting control performance effect according to the transmitted lighting device control signal.

Description

A lighting device, and a method and system for controlling the lighting device.

[0001] Cross-references to related applications

[0002] This application claims priority to Korean Patent Application No. 10-2022-0081748, filed on July 4, 2022, the entire disclosure of which is incorporated herein by reference. Technical Field

[0003] This disclosure relates to a lighting device and a method and system for controlling the lighting device. Specifically, it relates to a lighting device and a method and system for controlling the lighting device, which generates a library and / or scenes for controlling the light emission of the lighting device, and performs light emission control of multiple lighting devices based on the generated library and / or scenes. Background Technology

[0004] Generally speaking, in spaces where large numbers of people gather, such as theaters, concert halls, and / or art galleries, designated lighting devices can be installed to guide performances, indicate movement within the space, or provide aesthetic support.

[0005] Here, the lighting device may refer to a device that is carried or provided to an individual and emits light in various modes.

[0006] The lighting device may be carried by users watching the performance, concert and / or exhibition, or fixed to each seat in the space specified above.

[0007] In particular, the lighting fixtures provided to each person can operate in different ways within the space according to a specific location or individual needs. In recent years, the use of controlling the illumination of multiple lighting fixtures has been adopted in various fields in order to achieve a pre-planned performance of specific shapes or patterns in a large area within a space where multiple lighting fixtures are arranged.

[0008] To achieve such a performance, a control message must be sent to each lighting fixture to instruct it to operate in a different lighting mode. However, sending different control information to a large number of lighting fixtures one by one can lead to communication overload or synchronization errors.

[0009] In order to make a large number of lighting devices arranged in a large space operate in a unified manner according to different light emission modes, it is necessary to control the corresponding lighting devices to operate simultaneously at accurate times, but at present there is a lack of technological development to support this operation mode.

[0010] In addition, in the prior art, to control the light-emitting action of the aforementioned lighting device, a library containing data that presets the lighting device to operate in a specific light-emitting mode is created. Alternatively, a scenario is created that uses combinations or individual light-emitting modes set in the aforementioned library to control the light-emitting action of the lighting device within a predetermined time.

[0011] However, in the existing technical field, once a library and / or scene is created, the attributes of the corresponding illumination mode (e.g., whether it emits light, color, brightness, and / or dynamic effects) cannot be changed later; it can only be used as is. Furthermore, if any changes are needed to an existing library or scene, a new library and / or a new scene must be created from scratch.

[0012] Furthermore, this necessitates creating and storing the same number of libraries and / or scenes as the required illumination patterns, leading to additional problems such as data overflow and memory inefficiency. Therefore, it is necessary to develop and introduce new technologies to address these issues. Summary of the Invention

[0013] The purpose of this disclosure is to overcome the shortcomings of the prior art by providing a lighting device and a method and system for controlling the lighting device, which generates a library and / or scene for controlling the light emission of the lighting device, and performs light emission control of multiple lighting devices based on the generated library and / or scene.

[0014] Additionally, a lighting device and a method and system for controlling the lighting device are provided, which support improved reusability of the library and / or scene.

[0015] Additionally, a lighting device and a method and system for controlling the lighting device are provided, which improve the efficiency and integrity of different lighting devices operating in a unified manner according to their customized light emission modes, thereby achieving a specific shape performance effect as a whole (in the embodiment, integrated lighting control performance effect).

[0016] Additionally, a lighting device and a method and system for controlling the lighting device are provided, which realize data communication between components within the lighting device control system based on a communication method optimized for the overall lighting control performance effect.

[0017] However, the technical problems to be solved by this disclosure and its embodiments are not limited to the above-mentioned technical problems, and other technical problems may also exist.

[0018] A lighting device control method according to an embodiment of this disclosure, for controlling lighting devices for effects applications executed by at least one processor on a director's terminal, includes the following steps: generating a library, the library setting illumination modes for multiple lighting devices; generating a scenario, the scenario setting illumination modes for the multiple lighting devices within a specified time period; generating performance preparation data, the performance preparation data including at least one of the library and the scenario; providing the generated performance preparation data to the multiple lighting devices; sending lighting device control signals to the multiple lighting devices, the lighting device control signals commanding the execution, interruption, or termination of at least one of the library and scenario within the provided performance preparation data; and implementing a comprehensive lighting control performance effect based on the sent lighting device control signals.

[0019] At this time, the integrated lighting control performance effect is a performance effect mode, which operates uniformly according to the lighting mode of the seats where the multiple lighting devices are located, so that the multiple lighting devices emit light in a uniform shape as a whole.

[0020] In addition, the step of generating the library includes: setting light emission mode information, wherein the light emission mode information specifies the library identification information of the library, and at least one parameter value among whether the lighting device emits light, color, brightness and dynamic effects.

[0021] In addition, the step of generating the library further includes: setting attribute change information, wherein the attribute change information changes at least one parameter value of the set luminous mode information within a set running time of the library operation.

[0022] In addition, the step of setting attribute change information includes: setting the attribute change information based on at least one of the following inputs: attribute transformation input, replacing the existing parameter setting value with a new parameter setting value; attribute deformation input, replacing the existing parameter setting value with a predetermined calculation result value based on the existing parameter setting value and the new parameter setting value.

[0023] In addition, the step of generating the library further includes: generating each seat library, wherein each seat library is configured such that the library identification information corresponding to each of the plurality of lighting devices is the same for each seat arrangement, while the light emission mode information of at least some of the lighting devices is different.

[0024] In addition, the step of generating the scene includes: setting scene mode information, wherein the scene mode information specifies the scene recognition information of the scene, and at least one parameter value among whether the lighting device emits light, color, brightness and dynamic effects.

[0025] In addition, the step of generating the scene further includes: setting the scene mode information based on the light emission mode information of a combination of at least one library.

[0026] In addition, the step of generating a scene also includes: setting attribute change information for at least one of the libraries when generating a scene using the library.

[0027] In addition, the step of generating a scene also includes: generating a scene for each seat, wherein the scene recognition information is the same for each seat scene, but the scene mode information of each seat where the multiple lighting devices are located is different.

[0028] In addition, the step of generating the library includes: setting an execution interval for the library from a specified start time to a specified end time.

[0029] In addition, the step of generating the library includes: providing a library grouping function to save and manage combinations of multiple libraries.

[0030] In addition, the step of sending the lighting device control signal to the plurality of lighting devices includes: sending a lighting device control signal containing the same command to the plurality of lighting devices by means of broadcasting.

[0031] In addition, the steps to achieve the integrated lighting control performance effect include: the multiple lighting devices operate in different light-emitting modes, and emit light in a uniform shape as a whole.

[0032] Additionally, according to an embodiment of this disclosure, a lighting device control method is a method for a lighting device control system to control multiple lighting devices. The lighting device control system includes: a director terminal that generates and provides performance preparation data; lighting devices that receive and store the performance preparation data; and a central server that relays data transmission and reception between the director terminal and the lighting devices. The lighting device control method includes the following steps: the director terminal invites the central server to send a lighting device control signal, the lighting device control signal commanding the execution, interruption, or termination of at least one of the libraries and scenes within the provided performance preparation data; the central server receiving the invitation sends the lighting device control signal to the multiple lighting devices via broadcasting; the lighting devices receiving the lighting device control signal detect at least one of the libraries and scenes corresponding to the received lighting device control signal from the stored performance preparation data; and the lighting devices control their light source units based on the light emission mode of the detected at least one of the libraries and scenes.

[0033] At this time, the step of controlling the light source unit of the lighting device includes: controlling the light source unit based on the light emission mode, wherein the light emission mode applies attribute change information of at least one of the detected library and scene.

[0034] In addition, the attribute change information changes at least one parameter value among the following: whether the lighting device emits light, color, brightness, and dynamic effects, set within a specified range in the specified library.

[0035] Additionally, a lighting device according to an embodiment of this disclosure includes: at least one communication unit; at least one storage unit; at least one light source unit; and at least one processor. The processor is configured to: control the communication unit to receive performance preparation data; control the storage unit to store the received performance preparation data; control the communication unit to receive lighting device control signals; read at least one from a library and a scene corresponding to the received lighting device control signals from the performance preparation data in the storage unit; and control the light source unit to perform a light emission mode operation based on at least one of the read library and scene.

[0036] At this time, the processor controls the light source based on the light emission mode, which applies attribute change information of at least one of the read library and scene.

[0037] At this time, the processor controls the light source unit based on the light emission mode, which is a light emission mode based on at least one of the attribute transformation input and attribute deformation input, wherein the attribute transformation input and attribute deformation input change at least one parameter value among whether the light source unit emits light, color, brightness and dynamic effect.

[0038] Additionally, a director terminal according to an embodiment of this disclosure includes: at least one memory for storing effects applications; and at least one processor for executing the effects applications in the memory; the effects applications are used to: generate a library containing multiple seat libraries that set lighting modes for each seat where multiple lighting devices will be arranged; generate a scene based on the multiple libraries containing the library in which the multiple lighting devices perform a comprehensive lighting control performance effect within a predetermined time; and, in order to generate the scene, set the multiple lighting devices to run in a specific library contained in the multiple libraries within a predetermined time, and set attribute change information that changes at least one parameter value of the lighting mode information of the specific library within the predetermined time.

[0039] According to the lighting device and the method and system for controlling the lighting device according to the embodiments of this disclosure, a library and / or scene for controlling the light emission of the lighting device is generated, and the light emission control of multiple lighting devices is performed based on the generated library and / or scene. Therefore, customized light emission actions for multiple lighting devices with various seating arrangements and distributions in a performance venue can be executed conveniently, quickly, and accurately in a unified manner.

[0040] Furthermore, according to the lighting device and the method and system for controlling the lighting device according to the embodiments of this disclosure, the illumination control of multiple lighting devices based on the library and / or scene can be performed, thereby enabling different lighting devices to operate in a unified manner according to their own customized illumination modes, thereby achieving a specific shape performance effect as a whole (in the embodiments, the integrated lighting control performance effect).

[0041] Furthermore, the lighting device and the method and system for controlling the lighting device according to embodiments of this disclosure can enhance the reusability of the library and / or scene. Additionally, when a new library and / or scene beyond the existing ones is needed, it is not necessary to recreate it from scratch; simply by actively using existing libraries and / or scenes with specified modifications, a new library and / or scene can be generated.

[0042] Furthermore, the lighting device and the method and system for controlling the lighting device according to embodiments of this disclosure support the reuse of the library and / or scenes, and facilitate the convenient and quick creation of new libraries and / or scenes. Therefore, the lighting device and the method and system for controlling the lighting device according to embodiments of this disclosure can achieve more diverse lighting mode effects using fewer libraries and / or scenes while saving data.

[0043] Furthermore, the lighting apparatus and the method and system for controlling the lighting apparatus according to embodiments of this disclosure can improve the efficiency and completeness of different lighting apparatuses operating in a unified manner according to their customized light emission patterns, thereby achieving a specific performance effect (in this embodiment, a comprehensive lighting control performance effect). Therefore, while saving various efforts or costs required for the comprehensive lighting control performance effect, its completeness can be improved.

[0044] Furthermore, the lighting device and the method and system for controlling the lighting device according to embodiments of this disclosure can control data communication between components within the lighting device system based on a communication method optimized for the overall lighting control performance effect. Therefore, efficiency can be improved while reducing communication errors such as loss of control information communication or synchronization errors between multiple lighting devices.

[0045] Furthermore, according to the lighting device and the method and system for controlling the lighting device according to the embodiments of this disclosure, as long as a single control signal with small capacity and high speed is sent to multiple lighting devices based on the optimized communication method, the lighting action based on the pre-stored lighting modes of each of the multiple lighting devices can be easily realized. Therefore, while conveniently and quickly transmitting a common control signal to multiple lighting devices, the resulting communication load is reduced, thereby providing a smooth communication environment. In addition, the lighting device and the method and system for controlling the lighting device according to the embodiments of this disclosure can support the smooth realization of the comprehensive lighting control performance effect in the smooth communication environment.

[0046] However, the effects that can be obtained by this disclosure are not limited to those mentioned above, and other effects not mentioned will become clear from the following content. Attached Figure Description

[0047] Figure 1 is a conceptual diagram of a lighting device control system according to an embodiment of the present disclosure;

[0048] Figure 2 is an internal block diagram of a terminal according to an embodiment of this disclosure;

[0049] Figure 3 is an internal block diagram of a lighting device according to an embodiment of the present disclosure;

[0050] Figure 4 is a flowchart of a lighting device control method according to an embodiment of the present disclosure;

[0051] Figure 5 is a schematic diagram of an example of a library generation method according to an embodiment of the present disclosure;

[0052] Figures 6 to 10 are schematic diagrams of an example of attribute change information according to an embodiment of the present disclosure;

[0053] Figure 11 is a schematic diagram of an example of a scene generation method according to an embodiment of the present disclosure;

[0054] Figure 12 is a schematic diagram of an example of a lighting device control information transmission method according to an embodiment of the present disclosure;

[0055] Figure 13 is a schematic diagram of a specific shape for a comprehensive lighting control performance effect plan according to an embodiment of the present disclosure;

[0056] Figure 14 is a flowchart of a method for achieving performance effects based on lighting device control according to an embodiment of the present disclosure. Detailed Implementation

[0057] This disclosure can be modified and has various embodiments, and specific embodiments are illustrated below with reference to the accompanying drawings and described in detail. The effects, features, and prior methods of this disclosure will become clear in conjunction with the accompanying drawings and the embodiments to be described in detail. However, this disclosure is not limited to the embodiments described below and can be implemented in various forms. In the embodiments described below, terms such as "first," "second," etc., are non-limiting and are used to distinguish one constituent element from other constituent elements. In addition, where there is no obvious distinction in the context, the singular remark includes the meaning of the plural. Furthermore, terms such as "comprising" or "possessing" do not indicate the presence of the features or constituent elements described in the specification, but exclude the possibility of adding more than one other feature or constituent element. In addition, the size of the constituent elements in the drawings may be exaggerated or reduced for ease of explanation. For example, for the convenience of explanation, the size and thickness of the structures shown in the drawings are arbitrarily represented; therefore, this disclosure is not limited to the drawings.

[0058] The embodiments of this disclosure will now be described in detail with reference to the accompanying drawings. When describing the embodiments with reference to the accompanying drawings, the same corresponding constituent elements will be given the same reference numerals and repeated descriptions will be omitted.

[0059] Figure 1 is a conceptual diagram of a lighting device control system according to an embodiment of the present disclosure.

[0060] Referring to Figure 1, a lighting device control system 1000 according to an embodiment of the present disclosure can provide a lighting device control service, which generates a library and / or scenes for controlling the light emission of lighting devices, and performs light emission control on multiple lighting devices based on the generated library and / or scenes.

[0061] In an embodiment, the lighting control system 1000 that provides the lighting control service may include a terminal 100, a central server 200, a lighting device 300, and a network 400.

[0062] At this time, the terminal 100, the central server 200, and the lighting device 300 can be connected through the network 400. Here, according to the embodiment, the network 400 refers to a connection structure that allows information exchange between nodes such as the terminal 100, the central server 200, and / or the lighting device 300. Examples of the network 400 include 3GPP (3rd Generation Partnership Project) networks, LTE (Long Term Evolution) networks, WIMAX (World Interoperability for Microwave Access) networks, the Internet, LAN (Local Area Network), Wireless LAN (Wireless Local Area Network), WAN (Wide Area Network), PAN (Personal Area Network), Bluetooth networks, satellite broadcasting networks, analog broadcasting networks, DMB (Digital Multimedia Broadcasting) networks, etc., but are not limited thereto.

[0063] The terminal 100, central server 200, and lighting device 300 that realize the lighting device control system 1000 will be described in detail below with reference to the accompanying drawings.

[0064] Terminal 100

[0065] According to embodiments of this disclosure, the terminal 100 may be a specified computing device equipped with a lighting control application (hereinafter referred to as the "application") that provides lighting device control services.

[0066] Here, the applications described in the embodiments can be divided into effect applications and support applications.

[0067] At this time, the effect application and support application can be used to perform different functional actions according to different users.

[0068] The effects application and support application are used to differentiate and grant different permissions to users (in this example, the director or the user) based on their accounts and to complete functional actions.

[0069] The effects and support applications can be single applications.

[0070] Additionally, in an embodiment, the terminal 100 equipped with the application may include a director terminal 100-1 used by the director of the planned performance and a cheering stick terminal 100-2 for users watching the performance and using the lighting device 300.

[0071] In this embodiment, the director terminal 100-1 may have the director application installed, and the cheering stick terminal 100-2 may have the cheering application installed.

[0072] Here, the director terminal 100-1 and the cheering stick terminal 100-2 are used to distinguish the main body used in the embodiment, but their components or functional actions may be the same.

[0073] However, in this embodiment, the cheering stick terminal 100-2 can be matched and linked with the specified lighting device 300 on a one-to-one basis to perform various functional actions for controlling the lighting device.

[0074] Specifically, as an embodiment, the cheering stick terminal 100-2 can be paired and operated by matching the terminal identification code of each cheering stick terminal 100-2 with the device identification code of each lighting device 300 on a one-to-one basis.

[0075] In addition, specifically in terms of hardware, the terminal 100 may include a mobile computing device and / or a desktop computing device with applications installed.

[0076] Here, a mobile computing device can be a mobile device such as a smartphone or tablet computer with applications installed. For example, a mobile computing device may include a smartphone, mobile phone, digital broadcasting equipment, PDA (personal digital assistant), PMP (portable multimedia player), tablet PC, etc.

[0077] In addition, desktop computing devices may include personal computers such as desktop computers, laptop computers, and ultrabooks with applications installed, as well as devices with programs that provide lighting control services based on wired / wireless communication.

[0078] Additionally, according to different embodiments, terminal 100 may also include a specified server computing device that provides a lighting device control service environment.

[0079] Figure 2 is an internal block diagram of the terminal 100 according to an embodiment of this disclosure.

[0080] Additionally, referring to Figure 2, from a functional point of view, terminal 100 may include a memory 110, a processor assembly 120, a communication processor 130, an interface unit 140, an input system 150, a sensor system 160, and a display system 170. These components may be housed within the casing of terminal 100.

[0081] Specifically, memory 110 includes application 111, which can store at least one of various applications, data, and instructions used to provide a lighting device control service environment.

[0082] That is, the memory 110 can store commands and data that can be used to generate a lighting device control service environment.

[0083] In addition, the memory 110 may include a program area and a data area.

[0084] Here, according to the embodiment, the program area can be connected between the operating system (OS) and functional components of the startup terminal 100, while the data area can store the data generated by the use of the terminal 100.

[0085] Additionally, the memory 110 may include at least one non-volatile computer-readable storage medium and one volatile computer-readable storage medium. For example, the memory 110 may include various storage devices such as ROM, EPROM, flash drive, and hard disk, and on the Internet, it may also include web storage that performs the storage functions of the memory 110.

[0086] Processor component 120 may include at least one processor capable of executing application 111 stored in memory 110 to perform various tasks in generating a lighting device control service environment.

[0087] In one embodiment, the processor component 120 can control the overall operation of the component via application 111 of the memory 110 to provide lighting device control services.

[0088] The processor component 120 may be a system-on-a-chip (SoC) suitable for the terminal 100, including a central processing unit (CPU) and / or a graphics processing unit (GPU), which can execute an operating system (OS) and / or applications stored in the memory 110 and control the various components mounted on the terminal 100.

[0089] In addition, the processor component 120 can communicate with other components internally via a system bus, which may include one or more defined bus structures, including a local bus.

[0090] Additionally, the processor component 120 may include at least one of ASICs (application-specific integrated circuits), DSPs (digital signal processors), DSPDs (digital signal processing devices), PLDs (programmable logic devices), FPGAs (field programmable gate arrays), controllers, micro-controllers, microprocessors, and other electrical units for function execution.

[0091] The communication processor 130 may include one or more means for communicating with external devices. The communication processor 130 may communicate via a wireless network.

[0092] Specifically, the communication processor 130 can communicate with the terminal 100, which stores content sources for implementing the lighting device control service environment, and can communicate with various user input components such as controllers that receive user input.

[0093] In this embodiment, the communication processor 130 can send and receive various data related to lighting device control services with other terminals 100, external servers and / or devices.

[0094] The communication processor 130 can wirelessly send and receive data with at least one of a base station, an external terminal 100, or any server on a mobile communication network constructed using a communication device that can execute technical standards or communication methods for mobile communication (e.g., LTE (Long Term Evolution), LTE-A (Long Term Evolution-Advanced), 5G NR (New Radio), WIFI, or short-range communication methods).

[0095] The sensor system 160 may include various sensors such as an image sensor 161, an IMU (Integrated Measurement Unit) 163, an audio sensor 165, a distance sensor, a proximity sensor, and a contact sensor. Here, the image sensor 161 can capture images and / or videos of the physical space surrounding the terminal 100.

[0096] In one embodiment, the image sensor 161 may capture images related to lighting device control services (e.g., planned performance effects images, etc.).

[0097] In addition, the image sensor 161 can be disposed in front of and / or behind the terminal 100 to capture images of the side in which it is located, and can also capture images of the physical space by a camera disposed outside the terminal 100.

[0098] The image sensor 161 may include an image sensor device and an image processing module. Specifically, the image sensor 161 can process still images or videos acquired by the image sensor device (e.g., CMOS or CCD).

[0099] In addition, the image sensor 161 uses an image processing module to process still images or videos acquired by the image sensor device, extract the required information, and transmit the extracted information to the processor.

[0100] The image sensor 161 may be a camera assembly that includes at least one or more cameras.

[0101] At this time, the camera assembly may include a regular camera that captures visible light, or a special camera such as an infrared camera or a stereo camera.

[0102] In addition, depending on the different embodiments, the aforementioned image sensor 161 may be included in the terminal 100 for operation, or may be included in an external device (e.g., an external server and / or device, etc.) and operated in conjunction with the communication processor 130 and / or interface 140.

[0103] The position sensor (IMU) 163 can detect at least one of the movement and acceleration of the terminal 100. For example, it can be composed of a combination of various position sensors such as an accelerometer, a gyroscope, and a magnetometer.

[0104] In addition, the position sensor (IMU) 163 can be linked with the GPS or other location communication processor 130 of the communication processor 130 to identify spatial information of the physical space around the terminal 100.

[0105] The audio sensor 165 can identify sounds around the terminal 100. Specifically, the audio sensor 165 may include a microphone capable of detecting voice input from a user using the terminal 100. As an example, the audio sensor 165 may obtain voice data input from the user required for lighting control services.

[0106] The interface unit 140 can connect the terminal 100 to one or more other devices for communication.

[0107] Specifically, interface 140 may include wired and / or wireless communication devices compatible with one or more different communication protocols. Terminal 100 can connect to various input / output devices through these interface 140s. For example, interface 140 can connect to audio output devices such as headphone jacks or speakers to output audio.

[0108] While the example described is an audio output device connected via interface 140, embodiments may also include those installed inside terminal 100. Additionally, interface 140 may be connected to input devices such as a keyboard and / or mouse to obtain user input.

[0109] While the example described uses a keyboard and / or mouse connected via interface 140 as an example, embodiments may also include those installed inside terminal 100.

[0110] The interface unit 140 may include at least one of the following: a wired / wireless port, an external charging port, a wired / wireless data port, a memory card port, a port for connecting a device with an identification module, an audio I / O port, a video I / O port, a headphone port, a power amplifier, an RF circuit, a transceiver, and other communication circuits.

[0111] The input system 150 can detect user input related to lighting fixture control services (e.g., gestures, voice commands, key presses, or other types of input).

[0112] Specifically, the input system 150 may include designated buttons, touch sensors, and / or an image sensor 161 for receiving user motion input. Additionally, the input system 150 can be connected to an external controller via an interface 140 to receive user input.

[0113] Display system 170 can output various information related to lighting device control services in the form of graphic images. As an example, display system 170 can represent various user interfaces, including library generation interfaces and / or scene generation interfaces. The display may include at least one of the following: liquid crystal display (LCD), thin film transistor liquid crystal display (TFT LCD), organic light-emitting diode (OLED), flexible display, 3D display, and e-ink display.

[0114] Here, the components can be housed within the casing of terminal 100, and the user interface can include a touch sensor 173 on a display 171 capable of receiving user touch input. Specifically, the display system 170 may include a display 171 that outputs images and a touch sensor 173 that detects user touch input. Exemplarily, the display 171 and the touch sensor 173 form a layered or integrated structure, thereby realizing a touchscreen. The touchscreen serves as a user input section, acting as an input interface between terminal 100 and the user, while also providing an output interface between terminal 100 and the user.

[0115] In addition, according to different embodiments, terminal 100 may also perform at least a portion of the functions performed in the central server 200 and / or lighting device 300, which will be described later.

[0116] Central server 200

[0117] In addition, the central server 200 according to embodiments of this disclosure may execute a series of processes for providing lighting device control services.

[0118] Specifically, in an embodiment, the central server 200 may exchange data with the external device that is required to drive the lighting device 300 control process on the terminal 100 and / or external devices such as the lighting device 300, in order to provide the lighting device control service.

[0119] As an example, the central server 200 can provide an environment for application 111 to be executed on an external device (e.g., a mobile computing device and / or a desktop computing device).

[0120] For this purpose, the central server 200 may include applications, data and / or instructions for running application 111, and send and receive data based thereon with the external devices.

[0121] Additionally, as an example, the central server 200 can provide signals that can be used by external devices (e.g., lighting device 300, etc.) to perform a prescribed light-emitting action.

[0122] For this purpose, the central server 200 may include applications, data and / or instructions for implementing the light-emitting action, and may send and receive data based thereon with the external device.

[0123] Additionally, in this embodiment, the central server 200 may generate a library.

[0124] Here, the library according to the embodiments of this disclosure may refer to preset data for causing the lighting device 300 to operate in a specific light emission mode (i.e., a specific light emission form).

[0125] Additionally, in this embodiment, the central server 200 can generate scenarios.

[0126] Here, the scenario described in the embodiments of this disclosure may refer to preset data for causing the lighting device 300 to operate in a specific light-emitting mode for a specified time.

[0127] Additionally, in this embodiment, the central server 200 can generate performance preparation data.

[0128] Here, the performance preparation data according to the embodiments of this disclosure refers to data on the predefined arrangement of various lighting modes for each seat of the lighting device 300 in order to achieve the comprehensive lighting control performance effect according to the embodiments of this disclosure. Meanwhile, the performance preparation data may refer to data that needs to be pre-stored in the lighting device 300 before the performance begins.

[0129] Additionally, in this embodiment, the central server 200 may publish the generated performance preparation data.

[0130] Specifically, in this embodiment, the central server 200 can be linked with terminals 100 (in this embodiment, director terminal 100-1 and / or cheering stick terminal 100-2) to publish the performance preparation data to multiple lighting devices 300.

[0131] In addition, in this embodiment, the central server 200 can send lighting control signals to multiple lighting devices 300 to achieve integrated lighting control performance effects.

[0132] Here, the lighting device control signal according to the embodiment refers to a signal that commands the execution / termination / end of at least one library and / or scene stored in the performance preparation data of the lighting device 300.

[0133] In this embodiment, the central server 200 can be linked with at least one repeater to smoothly send lighting control signals to multiple lighting devices 300.

[0134] Here, each of the at least one repeaters according to the embodiment can send a specified data packet (in the embodiment, a lighting control signal) to the lighting device 300 adjacent to itself in a broadcast manner.

[0135] For reference, the broadcast method refers to a one-to-many communication method that transmits specified data to the entire network to which the host belongs without specifying a recipient.

[0136] The at least one repeater that performs data transmission based on the broadcast method may be directly included in the central server 200 or implemented as a separate device independent of the central server 200 to perform the functional actions.

[0137] In the following description, the at least one repeater is included in the central server 200 as an example, but this is not a limitation.

[0138] Additionally, in this embodiment, the central server 200 may store and manage various applications, instructions, and / or data used to implement lighting device control services.

[0139] As an example, the central server 200 can store and manage at least one library, scene, performance preparation data, lighting control signals and / or various user interfaces, etc.

[0140] Additionally, referring to Figure 1, in this embodiment, the central server 200 can be implemented as a defined computing device, which includes at least one processor module 210 for data processing, at least one communication module 220 for data exchange with external devices, and at least one database module 230 for storing various applications, data and / or instructions for providing lighting device control services.

[0141] Here, the database module 230 may store at least one of the following: operating system (OS), various applications, data, and instructions used to provide lighting device control services.

[0142] In addition, the database module 230 may include a program area and a data area.

[0143] Here, according to the embodiment, the program area can be connected between the operating system (OS) and functional components of the boot server, while the data area can store data generated by the use of the server.

[0144] In this embodiment, the database module 230 may be various storage devices such as ROM, RAM, EPROM, flash drive, hard disk, etc. On the Internet, it may also include web storage that performs the storage function of the database 230.

[0145] Alternatively, the database module 230 can be a storage medium that can be detached and mounted on the server.

[0146] In addition, the processor module 210 can control the overall operation of the aforementioned units to provide lighting device control services.

[0147] The processor module 210 may be a system-on-a-chip (SoC) suitable for a server, including a central processing unit (CPU) and / or a graphics processing unit (GPU), and may execute an operating system (OS) and / or application programs stored in the database module 230, and may control the various components mounted on the server.

[0148] In addition, the processor module 210 can communicate with various components internally via a system bus, which may include one or more defined bus structures, including a local bus.

[0149] Additionally, the processor module 210 may be implemented using at least one of ASICs (application-specific integrated circuits), DSPs (digital signal processors), DSPDs (digital signal processing devices), PLDs (programmable logic devices), FPGAs (field programmable gate arrays), controllers, micro-controllers, microprocessors, or other electrical units for function execution.

[0150] In the above description, the above-described functional actions are illustrated using a central server 200 performing the aforementioned functional actions according to an embodiment of this disclosure. However, according to different embodiments, at least a portion of the functional actions performed on the central server 200 may be performed on an external device (e.g., terminal 100 and / or lighting device 300, etc.). Furthermore, there are various embodiments in which at least a portion of the functional actions performed on an external device may be performed on the central server 200.

[0151] ——Lighting device 300

[0152] In addition, the lighting device 300 according to the embodiments of this disclosure can perform a light-emitting action under the control of the lighting device control system 1000.

[0153] Here, the lighting device 300 according to the embodiment can refer to a device that is carried or provided to an individual and emits light in various modes. The lighting device 300 can be carried by users watching a performance in a designated space such as a performance venue, or fixed to each seat. Specifically, in the embodiment, the lighting device 300 can store and manage the performance preparation data.

[0154] Additionally, in this embodiment, the lighting device 300 may receive a lighting device control signal.

[0155] Additionally, in this embodiment, the lighting device 300 can perform a light-emitting action based on the received lighting device control signal and the stored performance preparation data.

[0156] Figure 3 is an internal block diagram of a lighting device 300 according to an embodiment of the present disclosure.

[0157] Specifically, referring to FIG3, the lighting device 300 according to the embodiment may include a first communication unit 310, a storage unit 320, a second communication unit 330, a protocol processing unit 340, a time adjustment unit 350, a light source unit 360, and a processor 370.

[0158] Specifically, in this embodiment, the first communication unit 310 can receive performance preparation data from the terminal 100. The first communication unit 310 may include a BLE module or a wireless communication module utilizing the IEEE 802.15.4 standard. However, without limitation, the first communication unit 310 can also receive performance preparation data via a wired connection. Additionally, in this embodiment, the storage unit 320 can store and manage the received performance preparation data, etc.

[0159] In this embodiment of the disclosure, the lighting device 300 can receive and save performance preparation data in advance at a location outside the performance venue (e.g., at home), or it can receive and save performance preparation data at the performance venue.

[0160] Additionally, in this embodiment, the second communication unit 330 may receive lighting device control signals from the central server 200 (and / or repeater).

[0161] At this time, the second communication unit 330 can use Bluetooth, BLE (Bluetooth Low Energy), WiFi, ZigBee, UWB and other RF (Radio Frequency) communication to send and receive data with the central server 200 (and / or repeater).

[0162] Furthermore, in this embodiment, the protocol processing unit 340 can determine the type of information received by the first communication unit 310 and / or the second communication unit 330. In this case, if the received information is a control message (i.e., a lighting device control signal in this embodiment), a retransmission data packet, or a synchronization data packet, the protocol processing unit 340 can transmit it to the time adjustment unit 350.

[0163] Next, the time adjustment unit 350 can adjust the operating time of the lighting device 300 based on the order of each control message contained in the received control message, retransmission data packet, or synchronization data.

[0164] In Figure 3, the time adjustment unit 350 is described as a separate configuration, but this is exemplary and may also be included in the configuration of the processor 370 according to different embodiments.

[0165] In addition, in the embodiment, the light source unit 360 can perform light-emitting actions such as emitting light of a specific color, flashing, or adjusting brightness, based on the information stored in the storage unit 320 and the control of the processor 370.

[0166] The light source 360 ​​may be composed of LEDs, but this is exemplary. As long as it is composed of a specific light-emitting material and can perform a specified light-emitting action, it is not limited to any form.

[0167] In addition, in this embodiment, the processor 370 can control the overall operation of the lighting device 300.

[0168] As an example, the processor 370 can control the light-emitting action of the light source unit 360 based on the performance preparation data stored in the storage unit 320 and the lighting device control information received through the second communication unit 330.

[0169] At this time, the processor 370 can determine whether to execute a certain library and / or scene from the performance preparation data based on the received lighting device control signal. That is, the processor 370 can determine whether to execute a specific library and / or scene from the prescribed library and / or scene by parsing the received lighting device control signal. Additionally, the processor 370 can control the light source unit 360 to emit light according to the determined library and / or scene.

[0170] In particular, in this embodiment, the processor 370 can read a light emission pattern corresponding to the identification information from the storage unit 320 based on a library and / or scene recognition information included in the lighting device control signal. Additionally, the processor 370 can control the light source unit 360 to output the read light emission pattern.

[0171] In addition, according to different embodiments, the lighting device 300 may also perform at least a portion of the functional actions performed in the aforementioned terminal 100 and / or central server 200.

[0172] Lighting control methods

[0173] The method of controlling the lighting device 300 by the effects application 111 executed by at least one processor of the director terminal 100-1 according to an embodiment of the present disclosure will be described in detail below with reference to Figures 4 to 13.

[0174] In this embodiment of the disclosure, at least one processor of the director terminal 100-1 can execute or run in the background at least one effect application 111 stored in at least one memory 110.

[0175] The method of running the at least one processor to execute the instructions of the effect application 111 to provide the aforementioned lighting device control service will now be described in a simplified form, as executed by the effect application 111.

[0176] Figure 4 is a flowchart of a lighting device control method according to an embodiment of the present disclosure.

[0177] Referring to Figure 4, in the embodiment, at least one processor of the director terminal 100-1 executes or runs the effect application 111 in the background, which can generate a library (S101).

[0178] Here, the library mentioned in the embodiments of this disclosure refers to data preset for making the lighting device 300 operate in a specific light emission mode (i.e., a specific light emission form), and may include library identification information and light emission mode information.

[0179] Specifically, in an embodiment, the library may include identification information specifying the library (e.g., identification number and / or library name, etc.) and light emission mode information that provides the library with a preset specific light emission mode.

[0180] Here, the light emission mode information according to the embodiment may include whether the lighting device 300 emits light, its color, brightness, and / or dynamic effect parameters, and the lighting device 300 may be operated according to the parameter setting values ​​(hereinafter referred to as "light emission mode setting values").

[0181] In this embodiment, the dynamic effect can be data that dynamically changes the setting values ​​of other parameters within the luminous mode (in this embodiment, whether it emits light, color, and / or brightness) to achieve the specified effect.

[0182] For example, the dynamic effect may include setting the illumination of the lighting device 300 to be different at different times within a specified time period to create a flashing effect that flashes quickly; setting the illumination color to be different at different times to create a gradual change effect; and setting the illumination brightness to be different at different times to create a fade-in / fade-out effect that gradually darkens or brightens.

[0183] In an embodiment, effect application 111 can generate at least one or more of the aforementioned libraries.

[0184] For example, effect application 111 can generate multiple libraries, such as a first library with a library identification number and illumination mode information (illumination mode setting value) set to "Identification number 0001 / Illumination on / First color / First brightness / First dynamic effect", and a second library with a library identification number and illumination mode information (illumination mode setting value) set to "Identification number 0002 / Illumination on / Second color / Second brightness / Second dynamic effect". In this case, the illumination status / color / brightness of the libraries can be set to have different values ​​within a fixed time period.

[0185] Additionally, in an embodiment, effect application 111 may include each seat library in the library.

[0186] Here, according to the embodiment, each seat library can refer to a library within a specified space (e.g., a performance venue, etc.) where the lighting device 300 is to be arranged, and each library has the same corresponding library identification number but different lighting mode information based on the library.

[0187] In this embodiment, effect application 111 can generate a library including each seat library, wherein each seat library controls the lighting device 300 to operate in different light emission modes according to the seat position where the lighting device 300 is arranged.

[0188] For example, the effects application 111 can generate a first library including various seat libraries, wherein each seat library is a first library – first seat – first illumination mode information and a first library – second seat – second illumination mode information. That is, the effects application 111 can generate a first library based on various seat libraries, wherein each seat library assigns different values ​​to the illumination mode setting values ​​of the first library executed based on the illumination device 300 arranged in the first seat and the illumination mode setting values ​​of the first library executed based on the illumination device 300 arranged in the second seat.

[0189] Thus, when the effect application 111 is executed simultaneously with the first library set with different light emission modes for each seat, the lighting devices 300 arranged at each seat are made to operate in a unified manner with different light emission modes, so as to achieve the comprehensive lighting control performance effect using multiple lighting devices 300 in the corresponding space.

[0190] In this embodiment, the effect application 111 can realize different lighting devices 300 operating in a unified manner according to their own customized light emission modes based on the aforementioned seat library, thereby achieving a comprehensive lighting control performance effect of a specific shape.

[0191] Therefore, the effects application 111 controls multiple lighting devices 300 arranged in numerous seats within the performance venue to execute lighting actions customized for each seat. Thus, the specific shapes planned by the director can be represented based on the multiple lights output by the multiple lighting devices 300.

[0192] The effect application 111 can automatically generate a library of seats for performing a comprehensive performance effect based on a single image, with different seats assigned to each seat. For example, if an image of a bird shape corresponding to multiple seat areas is input, the effect application 111 will divide the bird-shaped image into pixels corresponding to each seat and match them to each seat. In addition, after determining the illumination mode setting value of the corresponding image pixels, the effect application 111 will automatically generate a library of seats for the matched seats based on the illumination mode setting value.

[0193] Figure 5 is a schematic diagram of an example of a library generation method according to an embodiment of the present disclosure.

[0194] Referring to Figure 5, in this embodiment, the effect application 111 may also include attribute change information (PCI) in the aforementioned library.

[0195] Here, the attribute change information (PCSI) according to the embodiment may be information that changes the luminance mode setting values ​​of various parameters (in the embodiment, whether to emit light, color, brightness and / or dynamic effects) within a specified range for the luminance mode information of the generated library.

[0196] Specifically, in the embodiment, the effect application 111 can set at least one interval (hereinafter referred to as "attribute change interval (PCS)") of the light emission mode setting value to be changed in all intervals of the light emission mode setting value of the generated library (hereinafter referred to as "library application interval (LAS)").

[0197] Specifically, as an example, the effect application 111 can set at least one attribute change interval (PCS) based on the start-end time of the attribute change interval (PCS) specified within the library application interval (LAS) by the user (here, the director).

[0198] For example, effect application 111 can set a first attribute change interval (PCS) within a first library application interval (LAS) that applies the first light emission mode information of the first library, based on user input specifying a first start-end time. Additionally, effect application 111 can set a second attribute change interval (PCS) within a first library application interval (LAS) that applies the first light emission mode information of the first library, based on user input specifying a second start-end time.

[0199] Additionally, in this embodiment, the effect application 111 can obtain attribute change input based on user (here, director) input, which changes a portion of the glow mode setting value (hereinafter referred to as "existing setting value") corresponding to the set attribute change interval (PCS) to a new glow mode setting value (hereinafter referred to as "new setting value").

[0200] Additionally, in this embodiment, the effects application 111 can match the acquired attribute change input to the corresponding attribute change range (PCS) to generate the aforementioned attribute change information (PCI). For example, the effects application 111 can generate attribute change information (PCI) for the first library based on the first attribute change input information (e.g., "on / off" for illumination, color, brightness, and / or dynamic effects) that changes at least a portion of the settings corresponding to the first attribute change range (PCS), and the second attribute change input information (e.g., "off / on" for illumination, color, brightness, and / or dynamic effects) that changes at least a portion of the settings corresponding to the second attribute change range (PCS).

[0201] In this embodiment, the effects application 111 can generate attribute change information (PCI) that allows for easy modification of at least a portion of the glow mode settings of the generated library according to the user's (here, the director's) requirements.

[0202] Therefore, when the effect application 111 needs to create a new library in addition to the existing one, it does not need to be remade from scratch. It can simply use the existing library to make the specified changes to create the new library, or generate a scene with various lighting modes through the existing library.

[0203] Figures 6 to 10 are schematic diagrams of an example of Attribute Change Information (PCI) according to an embodiment of the present disclosure.

[0204] In this embodiment, when the attribute change input for changing the existing setting value to the new setting value is an attribute change input for changing the setting value of the luminous color, brightness and / or dynamic effect parameters of the lighting device 300, the effect application 111 can obtain the attribute change input in at least one of the input forms of attribute transformation input (PT) and / or attribute deformation input (PR).

[0205] Here, the attribute transformation input (PT) according to the embodiment can refer to a change instruction input that completely replaces the existing setting values ​​of each emission color, brightness and / or dynamic effect parameter corresponding to the corresponding attribute change range (PCS) with new setting values.

[0206] As an example, the attribute transformation input (PT) may include, as shown in FIG6, a light emission color transformation input that changes the existing light emission color (e.g., blue) to a new light emission color (e.g., red), a light emission brightness transformation input that changes the existing light emission brightness (e.g., first brightness) to a new light emission brightness (e.g., second brightness), and / or, as shown in FIG7, a dynamic effect transformation input that completely replaces the existing dynamic effect (e.g., fade-in effect) with a new dynamic effect (e.g., blinking effect).

[0207] Additionally, according to the embodiment, the attribute variation (PR) can refer to an instruction input that changes the existing setting value of each emission color, brightness, and / or dynamic effect parameter corresponding to the corresponding attribute variation range (PCS) to a combined value calculated based on the existing setting value and the new setting value.

[0208] As an example, the attribute transformation input (RP) may include, as shown in FIG8, a color transformation input that changes an existing emission color (e.g., blue) to a combination value (e.g., purple) that combines the existing emission color (e.g., blue) and a new emission color (e.g., red) according to a prescribed calculation (e.g., addition calculation, etc.).

[0209] Additionally, as an embodiment, the attribute transformation input (RP) may include an luminance transformation input that changes an existing luminance (e.g., a first luminance) to a combined value (e.g., a third luminance) that combines the existing luminance (e.g., the first luminance) and a new luminance (e.g., a second luminance) according to a prescribed calculation (e.g., an addition calculation, etc.).

[0210] Additionally, as an embodiment, the attribute transformation input (RP) may include, as shown in FIG9, a dynamic effect transformation input that changes an existing dynamic effect (e.g., fade-in effect) to a combined value (e.g., fade-in & flash & fade effect) that combines the existing dynamic effect (e.g., fade-in effect) and a new dynamic effect (e.g., blink & fade effect) according to a prescribed calculation (e.g., addition calculation, etc.).

[0211] Specifically, in the embodiment, the effects application 111 can obtain the aforementioned attribute transformation input (PT) and / or attribute deformation input (PR) for the attribute change range (PCS) set, based on user (here, director) input.

[0212] In addition, the effect application 111 can match the acquired attribute transformation input (PT) and / or attribute deformation input (PR) to the corresponding attribute change range (PCS) to generate the aforementioned attribute change information (PCI).

[0213] For example, referring to Figure 10, the effect application 111 can generate attribute change information (PCI) for the first library based on the emission color deformation input that combines the existing emission color with the new emission color corresponding to the first attribute change range (PCS), the emission brightness deformation input that replaces the existing emission brightness with the new emission brightness corresponding to the first attribute change range (PCS), and the dynamic effect deformation input that combines the existing dynamic effect with the new dynamic effect corresponding to the first attribute change range (PCS).

[0214] Additionally, in the embodiments, effect application 111 may also include the generated attribute change information (PCI) change corresponding library.

[0215] Additionally, in the embodiment, the effect application 111 can subsequently control the lighting device 300 to emit light based on the light emission mode information reflecting the attribute change information (PCI) (i.e., the light emission mode information that changes the light emission mode setting value according to the attribute change information (PCI)) based on the library containing the attribute change information (PCI).

[0216] As described above, Effect Application 111 generates Attribute Change Information (PCI) for at least a portion of the luminous mode setting values ​​within a specified range of the luminous mode information of the generated library, and executes the luminous action of the lighting device 300 based on the library by changing the luminous mode setting values ​​according to the generated Attribute Change Information (PCI). In this way, Effect Application 111 supports the convenient and quick completion of creation by reusing existing libraries without having to recreate a completely new library from scratch. Furthermore, Effect Application 111 saves data by supporting library reuse and can achieve a wider variety of luminous mode effects with fewer libraries.

[0217] Additionally, depending on the implementation, effect application 111 can provide a function to set the execution interval for the generated library. Generally, for libraries that cannot be partially used but need to be executed unconditionally in their entirety, to improve reusability, a library needs to be generated based on the smallest time unit. In this case, there is a problem of needing to create more libraries.

[0218] To avoid the aforementioned problem, in this embodiment of the disclosure, effect application 111 can provide an execution interval setting function for executing the generated library from a specified start time to a specified end time.

[0219] Specifically, in the embodiment, the effect application 111 can set the start time and end time of the library (hereinafter referred to as "library start-end time") based on user (here, director) input.

[0220] In addition, in the embodiment, effect application 111 can match the set library start-end time information to the corresponding library for storage and management.

[0221] Additionally, in this embodiment, when effect application 111 reads and runs the library, it can perform illumination control based on the library start-end time set therein.

[0222] In this embodiment, effect application 111 performs the light emission control based on the library only during the execution interval corresponding to the start time of the library (e.g., a first time) to the end time of the library (e.g., a second time after the first time).

[0223] As described above, Effect Application 111 provides an execution interval setup process that supports the necessary execution intervals selected from the library. Therefore, Effect Application 111 is not limited by the requirement to create libraries in small time units to improve their usability; it can easily create libraries according to the required length and significantly improves the convenience of reuse.

[0224] In addition, according to different embodiments, effect application 111 can provide a library grouping function that allows the generated libraries to be saved and managed in groups.

[0225] Specifically, in the embodiments, effect application 111 can provide library grouping functionality that allows for the grouping, saving, and management of multiple library combinations.

[0226] Specifically, in the embodiment, the effects application 111 can obtain library selection information from at least two of the generated libraries based on user (here, director) input.

[0227] Additionally, in an embodiment, effect application 111 can obtain library combination information that lists at least two or more selected libraries in the order of user (here, director) input.

[0228] In addition, in the embodiment, the effect application 111 can group the two or more libraries according to the obtained library combination information.

[0229] Additionally, in the embodiments, effect application 111 can cause at least two libraries within the grouped libraries (hereinafter referred to as "library group") to be executed sequentially according to the listed order.

[0230] For example, if effect application 111 is used when the library group includes "first library - second library", the first library is executed, and after the execution of the first library is completed, the second library is then executed.

[0231] In the embodiments, effect application 111 can execute or reuse libraries in units of specified library groups.

[0232] Therefore, Effect Application 111 eliminates the need to specify frequently used library groups each time; it only requires saving the group once, and can then regroup it for reading, execution, or reuse. Thus, Effect Application 111 saves the time and cost required to create the library group.

[0233] Additionally, in this embodiment, the effect application 111 can generate a scenario (S103).

[0234] Here, the scene described in the embodiments of this disclosure refers to preset data for making the lighting device 300 operate in a specific light-emitting mode within a specified time, and may include scene recognition information and light-emitting mode information.

[0235] The following descriptions that repeat the content of the library generation steps may be simplified or omitted.

[0236] Specifically, in the embodiments, the scenario may include identification information defining the scenario (e.g., identification number and / or scenario name, etc.) and light emission mode information that provides the scenario with a preset specific light emission mode.

[0237] Figure 11 is a schematic diagram of a scene generation method according to an embodiment of the present disclosure.

[0238] Referring to Figure 11, in this embodiment, the scene's illumination mode information (hereinafter referred to as "scene mode information") can be: 1) based on a combination of at least one library; or 2) based on a combination of at least one library and scene's own illumination mode information (SPI); or 3) based on scene's own illumination mode information (SPI). Specifically, in this embodiment, the effects application 111 can generate a scene (1) based on a combination of at least one library. That is, in this embodiment, the scene can be data on the running time of at least one library (hereinafter referred to as "unit library") selected as a constituent element of the scene within a specified time. Specifically, in this embodiment, the effects application 111 can obtain user (here, director) input for selecting at least one unit library.

[0239] Additionally, in an embodiment, effect application 111 can obtain library combination information that lists the selected at least one unit library in the order of user (here, director) input.

[0240] In this embodiment, the effects application 111 can obtain the runtime of each of the listed unit libraries based on user (here, director) input.

[0241] As an example, the effect application 111 can match the running time of each unit library according to the user (here, the director) input, based on at least a portion of the time intervals specified in the execution scene.

[0242] In addition, in the embodiment, the effect application 111 can group the at least one unit library to generate a scene based on the library combination information obtained above.

[0243] Additionally, in the embodiment, effect application 111 can cause at least one unit library within the grouped unit library (hereinafter referred to as the "unit library group") to be executed continuously according to the listed order and runtime.

[0244] For example, when effect application 111 generates a first scene based on the first to third unit libraries, when executing the first scene, the first glow mode based on the first unit library can be run for the first 5 seconds, the second glow mode based on the second library can be run for the next 3 seconds, and the glow mode based on the third library can be run for the next 2 seconds.

[0245] In the embodiment, effect application 111 can set the light emission mode information based on the order of at least one unit library in the scene and the running time as the scene mode information for that scene.

[0246] Therefore, the effect application 111 can generate a scene that controls the light emission mode of the lighting device 300 within a specified time according to the scene mode information.

[0247] As described above, the effect application 111 combines at least one of the generated libraries to create a scene. Therefore, without any further effort, the reusable library with various glow modes can be used to easily and quickly create scenes that indicate a series of glow modes to be executed within a specified time.

[0248] Additionally, in the embodiment, the effect application 111 can generate a scene (2) based on a combination of at least one library and scene self-illumination mode information (SPI).

[0249] In this embodiment, the scenario can be that within a specified time period, the runtime of at least one unit library is set in a certain interval, while the scene's own illumination mode information (SPI) data is set in the remaining interval. The following descriptions that are repeated may be simplified or omitted.

[0250] In other words, at least a portion of the time interval during which the scene is executed is implemented, as mentioned above, as a reusable interval based on a combination of at least one unit library, while the remaining portion can be implemented as a custom interval based on the scene's own luminous mode information (SPI).

[0251] Here, the scene self-illumination mode information (SPI, hereinafter referred to as "self-illumination mode information") according to the embodiment can refer to the newly set illumination mode information input by the scene user (here, the director) during the scene generation process.

[0252] Specifically, in the embodiments, the effect application 111 can set scene mode information for the reuse interval of the scene as described above, based on a combination of at least one unit library.

[0253] Additionally, in an embodiment, the effects application 111 may acquire user (here, director) input for specifying a particular illumination pattern to run in the remaining customized intervals other than the reuse interval.

[0254] In this embodiment, the method of specifying a particular light emission mode can refer to the description of the method for generating the library described in the foregoing library generation steps, and the content that is repeated in the foregoing description can be simplified or omitted.

[0255] Additionally, in the embodiment, the effect application 111 can set the specified specific light emission mode as its own mode information (SPI), and can set the set own mode information (SPI) as scene mode information for a customized range of the scene.

[0256] In this embodiment, the effect application 111 can set scene mode information for the scene, which includes scene mode information for a reuse interval based on luminescence mode information based on at least one unit library and scene mode information for a custom interval based on user-generated self-mode information (SPI).

[0257] Therefore, the effect application 111 can generate a scene that controls the light emission mode of the lighting device 300 within a specified time according to the scene mode information.

[0258] As described above, Effects Application 111 not only supports the reuse of existing libraries, but also allows for the free setting of specific sections of a scene according to the user's (here, the director's) needs, using the desired lighting patterns. Therefore, Effects Application 111 provides a high degree of freedom in the scene generation process while also including customized lighting patterns for each scene, thereby enabling more diverse performance effects based on the lighting device 300.

[0259] At this point, depending on the specific implementation, effect application 111 can store and manage the Self-Mode Information (SPI) as a library.

[0260] Specifically, in this embodiment, the effects application 111 can assign library identification information to the self-pattern information (SPI), and can save and run the self-pattern information (SPI) to which the library identification information is assigned as a library. Therefore, the effects application 111 supports the easy generation of scenes for subsequent use during the scene generation process.

[0261] Additionally, in this embodiment, the effect application 111 can generate the scene (3) based on the scene's own illumination mode information (SPI). That is, in this embodiment, the scene can be data of the scene's own illumination mode information (SPI) running for a specified time period. The following descriptions that are repeated may be simplified or omitted.

[0262] Specifically, in an embodiment, the effects application 111 may obtain Self-Mode Information (SPI) based on user (here, director) input to specify a particular luminescence mode that runs throughout the entire interval of the scene.

[0263] Additionally, in this embodiment, the effects application 111 can set the acquired Self-Mode Information (SPI) as scene mode information for that scene. Therefore, the effects application 111 can generate a scene that controls the illumination mode of the lighting device 300 within a specified time period based on the scene mode information. Thus, the effects application 111 can make a scene execute entirely according to the illumination mode required by the user (here, the director).

[0264] Additionally, referring to Figure 11, in the embodiment, when using at least one unit library to generate a scene, effect application 111 can set attribute change information (PCI) for each unit library.

[0265] In other words, the attribute change information (PCSI) can be information about the emission mode of an existing library, which changes the emission mode settings of various parameters (in this embodiment, emission status, color, brightness, and / or dynamic effects) within a specified range.

[0266] In this embodiment, effect application 111 can set attribute change information (PCI) for each unit library during the process of generating the scene in the same way as the attribute change information (PCI) generation method described in the aforementioned library generation step. For a detailed explanation of this part, please refer to the description of attribute change information (PCI) in the library generation step.

[0267] Therefore, when applying effect 111 to new scenarios, existing libraries can be reused to easily create various forms of scenarios at a lower cost.

[0268] Furthermore, in the embodiment, effect application 111 can be implemented using the same method as the execution interval setting function and library grouping function described in the aforementioned library generation step, to achieve the execution interval setting function and library grouping function based on each unit library. For a detailed explanation of this part, please refer to the description of the execution interval setting function and library grouping function in the library generation step.

[0269] Additionally, in the embodiments, effect application 111 may include individual seating scenes in the scene.

[0270] Here, each seating scene according to the embodiment can refer to a scene in a specified space (e.g., a performance venue, etc.) where the lighting device 300 is to be arranged, and the corresponding scene identification number is the same, but the scene mode information of the covered scene is different.

[0271] In this embodiment, the effects application 111 can generate a scene including each seat scene, wherein each seat scene controls the lighting device 300 to operate in different light emission modes according to the seat position where the lighting device 300 is arranged. For example, the effects application 111 can generate a first scene including each seat scene, wherein each seat scene is a first scene-first seat-first scene mode information and a first scene-second seat-second scene mode information. That is, the effects application 111 can generate a first scene based on each seat scene, wherein each seat scene assigns different values ​​to the light emission mode setting values ​​of the first scene executed based on the lighting device 300 arranged in the first seat and the light emission mode setting values ​​of the first scene executed based on the lighting device 300 arranged in the second seat.

[0272] Therefore, when the effect application 111 executes the first scene with different lighting modes for each seat, it enables the lighting devices 300 arranged in each seat to operate in a unified manner with different lighting modes, so as to achieve the comprehensive lighting control performance effect using multiple lighting devices 300 in the corresponding space.

[0273] In the embodiment, the effect application 111 can realize different lighting devices 300 to operate in a unified manner according to their own customized light emission mode based on the aforementioned seating scenes, thereby achieving a comprehensive lighting control performance effect of a specific shape.

[0274] Therefore, the effects application 111 controls the various lighting devices 300 arranged in the numerous seats within the performance venue to execute lighting actions customized for each seat. Furthermore, the effects application 111 can thus utilize the light output from the various lighting devices 300 at each seat to represent specific shapes planned by the director.

[0275] Additionally, in this embodiment, the effects application 111 can generate performance preparation data (S105).

[0276] Here, the performance preparation data according to the embodiment refers to the data that predefines the various lighting modes of each seat in the arrangement of the lighting device 300 in order to achieve the aforementioned comprehensive lighting control performance effect, and may refer to the data that needs to be stored in the lighting device 300 before the start of the performance.

[0277] Specifically, in an embodiment, the effects application 111 can generate the performance preparation data including at least one library and / or scene generated above.

[0278] At this point, depending on the specific implementation, the effect application 111 can also generate different performance preparation data for each seat.

[0279] Additionally, in this embodiment, the effects application 111 can publish performance preparation data (S107).

[0280] Specifically, in this embodiment, the effects application 111 can be linked with the central server 200 and / or the light stick terminals 100-2 to publish the performance preparation data to multiple lighting devices 300. Specifically, in this embodiment, the effects application 111 can send the generated performance preparation data to the central server 200. The central server 200 can then send the received performance preparation data to multiple light stick terminals 100-2. At this time, each of the multiple light stick terminals 100-2 can be matched and linked one-to-one with multiple lighting devices 300.

[0281] As an example, each of the plurality of cheering stick terminals 100-2 can be matched and paired with each of the plurality of lighting devices 300 on a one-to-one basis, based on the terminal identification code of each cheering stick terminal 100-2 and the device of each of the plurality of lighting devices 300.

[0282] Therefore, the plurality of light stick terminals 100-2 can provide the performance preparation data received from the central server 200 to the lighting device 300 matched to each light stick terminal 100-2.

[0283] In this case, as an example, the plurality of cheering stick terminals 100-2 can provide the performance preparation data to the lighting device 300 matched with each cheering stick terminal 100-2 based on Bluetooth pairing or other methods.

[0284] Therefore, the plurality of lighting devices 300 receive, store and manage performance preparation data corresponding to the seats where each lighting device 300 will be arranged.

[0285] In other embodiments, if seat information corresponding to the lighting device 300 is entered through another self-service terminal installed in the performance venue, the self-service terminal provides performance preparation data for that seat via short-range communication.

[0286] Figure 12 is a schematic diagram of an example of a lighting device control information transmission method according to an embodiment of the present disclosure.

[0287] Additionally, referring to Figure 12, in this embodiment, the effect application 111 can send a lighting device control signal and achieve a comprehensive lighting control performance effect (S109).

[0288] Here, the lighting device control signal (hereinafter referred to as "control signal") according to the embodiment refers to a signal that commands the execution / termination / end of at least one library and / or scene contained in the performance preparation data stored in the lighting device 300.

[0289] Figure 13 is a schematic diagram of a specific shape for a comprehensive lighting control performance effect plan according to an embodiment of the present disclosure.

[0290] Additionally, referring to Figure 13, in other words, the integrated lighting control performance effect according to the embodiment can refer to the unified operation of different lighting devices 300 in their own customized light emission modes, thereby achieving a specific shape (SS, for example, the bird shape shown in Figure 13) based on the performance effect of the lighting devices 300.

[0291] Specifically, in this embodiment, the effects application 111 can be linked with the central server 200 to provide control signals to multiple lighting devices 300 for a planned integrated lighting control performance effect. Specifically, in this embodiment, the effects application 111 can send the control signals to the central server 200.

[0292] The central server 200 can be linked with at least one repeater (R) to send the received control signals to the multiple lighting devices 300 via broadcasting.

[0293] For reference, in the case of using a non-broadcast unicast method, the central server 200 needs to transmit the data packet (in this embodiment, the control signal) to be transmitted multiple times to multiple receivers (in this embodiment, multiple lighting devices 300). Therefore, the repeated transmission of the same data packet leads to a decrease in network efficiency. In addition, in the case of using a non-broadcast unicast method, the central server 200 needs to receive ACK messages corresponding to the transmitted data packet (in this embodiment, the control signal) from each of the multiple receivers (in this embodiment, the lighting device 300). This deterioration in communication will hinder smooth data communication.

[0294] Therefore, in this embodiment of the disclosure, the central server 200 is linked with the repeater (R), takes the entire network to which its host belongs as the target, and transmits data packets (in this embodiment, control signals) in a one-to-many communication manner without being hindered by other receivers, and sends the control signals to the multiple lighting devices 300.

[0295] In this embodiment, the central server 200 sends the control signal to multiple lighting devices 300 via broadcast, thereby reducing communication loss of control signals, reducing communication synchronization errors between multiple lighting devices 300, and improving communication efficiency.

[0296] Next, in an embodiment, a plurality of lighting devices 300 that receive control signals from the central server 200 can perform light emission control according to the received control signals.

[0297] Specifically, in this embodiment, the plurality of lighting devices 300 can control the light source section 360 of each lighting device 300 based on the light emission mode of the received control signal, thereby performing light emission control according to the control signal. A detailed explanation of this part will be provided later in the method for achieving performance effects based on the control of the lighting devices 300.

[0298] Therefore, the effect application 111 according to the embodiments of this disclosure can realize a comprehensive lighting control performance effect based on the start-up signal. Specifically, in the embodiments, the effect application 111 can pre-store performance preparation data containing at least one library and / or scene in multiple lighting devices 300. Then, the effect application 111 can broadcast control signals commanding the execution / interruption / termination of at least one of the libraries and / or scenes to the multiple lighting devices 300. Therefore, the effect application 111 can cause the multiple lighting devices 300 to uniformly and completely illuminate according to the lighting mode of the library and / or scene specified by the control signal.

[0299] Thus, by sending a single, low-capacity, high-speed control signal to multiple lighting devices 300, the effect application 111 can easily enable multiple lighting devices 300 to operate in different light-emitting modes.

[0300] —A method for achieving performance effects based on lighting control

[0301] The following is a detailed description, with reference to the accompanying drawings, of a method by which a lighting device control system 1000 performs a performance effect based on the control of a lighting device 300 according to an embodiment of the present disclosure.

[0302] At this point, descriptions that are repeated in the description of the lighting device control method may be simplified or omitted.

[0303] Figure 14 is a flowchart of a method for achieving performance effects based on the control of a lighting device 300 according to an embodiment of the present disclosure.

[0304] Referring to Figure 14, according to an embodiment of the present disclosure, the director terminal 100-1 of the lighting device control system 1000 can generate and send performance preparation data (S201).

[0305] In other words, the performance preparation data according to the embodiment refers to the data that predefines various lighting modes for each seat of the lighting device 300 to achieve the comprehensive lighting control performance effect according to the embodiment of this disclosure, and may refer to the data that needs to be stored in the lighting device 300 before the start of the performance.

[0306] Specifically, in an embodiment, the director terminal 100-1 can generate the performance preparation data including at least one library and / or scene generated above.

[0307] In addition, in this embodiment, the director terminal 100-1 can send the generated performance preparation data to the central server 200.

[0308] Additionally, in this embodiment, the central server 200 of the lighting control system 1000 can publish the received performance preparation data (S203).

[0309] Specifically, in this embodiment, the central server 200 can be linked with the cheering stick terminal 100-2 of the lighting device control system 1000 to publish the performance preparation data received from the director terminal 100-1 to multiple lighting devices 300.

[0310] Specifically, in this embodiment, the central server 200 can send the received performance preparation data to multiple light stick terminals 100-2. At this time, each of the multiple light stick terminals 100-2 can be paired and operated in a one-to-one manner with multiple lighting devices 300. As an embodiment, each of the multiple light stick terminals 100-2 can be paired and operated in a one-to-one manner with each of the multiple lighting devices 300 based on a specified terminal identification code for each light stick terminal 100-2 and a specified device for each of the multiple lighting devices 300.

[0311] Therefore, the plurality of light stick terminals 100-2 can provide the performance preparation data received from the central server 200 to the lighting device 300 matched to each light stick terminal 100-2.

[0312] In this case, as an example, the plurality of cheering stick terminals 100-2 can provide the performance preparation data to the lighting device 300 matched with each cheering stick terminal 100-2 based on Bluetooth pairing or other methods.

[0313] Therefore, the plurality of lighting devices 300 receive, store and manage performance preparation data corresponding to the seats where each lighting device 300 will be arranged.

[0314] Additionally, in this embodiment, the director terminal 100-1 of the lighting device control system 1000 can send control signals (S205).

[0315] Specifically, in this embodiment, the director terminal 100-1 can be linked with the central server 200 of the lighting device control system 1000 to send the aforementioned control signals to multiple lighting devices 300. In other words, according to this embodiment, the control signals can refer to signals that command at least one library and / or scene execution / termination contained in the performance preparation data stored in the lighting devices 300. Specifically, in this embodiment, the director terminal 100-1 can send the control signals to the central server 200. The central server 200 can then be linked with at least one repeater (R) to broadcast the received control signals to the multiple lighting devices 300. Therefore, the central server 200 can conveniently and quickly transmit common control signals to multiple lighting devices 300 while reducing the resulting communication load.

[0316] Additionally, in this embodiment, the lighting device 300 of the lighting device control system 1000 can perform light emission control based on the received control signal (S207).

[0317] Specifically, in an embodiment, the lighting device 300 can perform light emission control based on control signals received from the central server 200.

[0318] Specifically, in the embodiments, the plurality of lighting devices 300 can control the light source section 360 of each lighting device 300 based on the light emission mode of the received control signal, thereby performing light emission control according to the control signal.

[0319] Specifically, in an embodiment, the lighting device 300 can detect a library and / or scene that matches the received control signal based on performance preparation data pre-stored in the storage unit 320.

[0320] For example, when the received first control signal is a first library execution signal, the lighting device 300 can read the first library stored in the performance preparation data in the storage unit 320. As another application, when the received second control signal is a first scene execution signal, the lighting device 300 can read the first scene stored in the performance preparation data in the storage unit 320.

[0321] In addition, in this embodiment, the lighting device 300 can control the light emission operation of the light source unit 360 according to the light emission mode corresponding to the detected library and / or scene.

[0322] As an example, the lighting device 300 can control the light-emitting action of the light source unit 360 according to the light emission mode information of the detected library, and can also control the light emission action of the light source unit 360 according to the light emission mode information of the detected scene.

[0323] For example, the lighting device 300 can control the light-emitting action of the light source unit 360 based on the light-emitting mode information (e.g., "light-on / first color / first brightness / first dynamic effect") read from the first library, which sets the light emission status, color, brightness, and / or dynamic effect.

[0324] As another example, the lighting device 300 may control the light-emitting action of the light source unit 360 based on the light emission status, color, brightness and / or dynamic effect settings of the first scene mode information of the first scene read (e.g., "first light emission mode information of the first library / second light emission mode information of the second library / first self-mode information (SPI)", etc.).

[0325] In this embodiment, the lighting device 300 can control the light emission operation of the light source unit 360 according to the light emission mode in the form of attribute change information (PCI) of each unit library in the detected library and / or scene.

[0326] In this embodiment, the lighting device 300 can control the light emission operation of the light source unit 360 according to the light emission mode information reflecting the attribute change information (PCI) of the detected library, and can also control the light emission operation of the light source unit 360 according to the light emission mode information reflecting the attribute change information (PCI) of the detected library.

[0327] Therefore, the lighting device 300 can support the effective implementation of various forms of light emission modes based on library attribute change information (PCI).

[0328] In addition, in this embodiment, the lighting control system 1000 can achieve a comprehensive lighting control performance effect (S209).

[0329] As described above, the illumination of multiple lighting devices 300 can be uniformly controlled based on a specified control signal. Therefore, the lighting device control system 1000 according to the embodiments of this disclosure can realize that different lighting devices 300 operate in a unified manner according to their own customized illumination modes, thereby achieving a comprehensive lighting control performance effect of a specific shape as a whole.

[0330] As described above, the lighting control system 1000 according to the embodiments of this disclosure can pre-store performance preparation data including at least one library and / or scene in multiple lighting devices 300. Then, it provides control signals for executing / interrupting / terminating at least one of the libraries and / or scenes to the multiple lighting devices 300. Based on the performance preparation data pre-stored in the multiple lighting devices 300, the provided control signals are parsed, and according to the lighting mode of the library and / or scene specified by the control signals, the multiple lighting devices 300 are made to emit light uniformly. Thus, in a smooth communication environment, various forms of lighting actions that need to be performed in an effective process can be realized to achieve a comprehensive lighting control performance effect that needs to be executed uniformly by multiple lighting devices 300.

[0331] In summary, the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure generate a library and / or scene for controlling the light emission of the lighting device 300. Based on the generated library and / or scene, the light emission control of multiple lighting devices 300 can be performed in a convenient, fast, and accurate manner to uniformly execute customized light emission actions for multiple lighting devices 300 arranged and distributed in various seats in the performance venue.

[0332] Furthermore, according to the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure, the illumination control of multiple lighting devices 300 based on the library and / or scene can be performed, thereby enabling different lighting devices 300 to operate in a unified manner according to their own customized illumination modes, thereby achieving a specific shape performance effect as a whole (in the embodiment, the integrated lighting control performance effect).

[0333] Furthermore, the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure support the enhanced reuse of the library and / or scene. When a new library and / or scene is needed in addition to the existing library and / or scene, it is not necessary to recreate it from scratch. Instead, a new library and / or scene can be generated simply by actively using the existing library and / or scene with specified modifications.

[0334] Furthermore, the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure support the reuse of the library and / or scene, and support the convenient and quick creation of new libraries and / or new scenes. While saving data, more diverse lighting mode effects can be achieved with fewer libraries and / or scenes.

[0335] Furthermore, the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure can improve the efficiency and integrity of different lighting devices 300 operating in a unified manner according to their own customized light emission modes, thereby achieving a specific shape performance effect as a whole (in the embodiments, integrated lighting control performance effect). Therefore, while saving various efforts or costs required for the integrated lighting control performance effect, its completion can be improved.

[0336] Furthermore, the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure realize data communication between components within the lighting device control system 1000 based on a communication method optimized for the overall lighting control performance effect. Therefore, while reducing communication errors such as loss of control information communication of the lighting device 300 or communication synchronization errors between multiple lighting devices 300, its efficiency can be improved.

[0337] Furthermore, according to the lighting device 300 and the method and system for controlling the lighting device according to the embodiments of this disclosure, as long as a single control signal with small capacity and high speed is sent to multiple lighting devices 300 based on the optimized communication method, the lighting action based on the pre-stored lighting mode of each of the multiple lighting devices 300 can be easily realized. Therefore, while conveniently and quickly transmitting the common control signal to multiple lighting devices 300, the resulting communication load is reduced, thereby providing a smooth communication environment, which can support the smooth realization of the comprehensive lighting control performance effect in the smooth communication environment.

[0338] Furthermore, the embodiments of this disclosure described above can be implemented as program commands executable by various computer devices and recorded on a computer-readable recording medium. The computer-readable recording medium may include program commands, data files, data structures, etc., individually or in combination. The program commands recorded on the storage medium by the computer-readable recording medium may be specifically designed and configured for this disclosure or may be publicly available in the software field. Computer-readable recording media include magnetic media such as hard disks, floppy disks, and magnetic tapes; optical media such as CD-ROMs and DVDs; magneto-optical media such as floppy disks; and hardware devices such as ROMs, RAMs, and flash memory capable of storing and executing program commands. Program commands include not only machine language code generated in a compiler but also high-level language code executed in a computer using a translator or similar means. The hardware device may consist of one or more software modules that implement the actions of this disclosure, and vice versa.

[0339] The specific embodiments described in this disclosure are examples and are not intended to limit the scope of this disclosure in any way. For the sake of brevity, descriptions of existing electronic structures, control systems, software, and other functions of said systems are omitted. Furthermore, the connections of lines between components or functional and / or physical or electrical connections between connecting parts shown in the drawings are exemplary, and various functional, physical, or electrical connections may be substituted or added in actual devices. Additionally, unless specifically stated as "essential" or "important," these are not essential components for implementing this disclosure.

[0340] The embodiments described are for illustrative purposes only and are not intended to limit the scope of this disclosure. Those skilled in the art should understand that modifications, variations, or equivalent substitutions can be made to this disclosure. All such modifications, variations, or equivalent substitutions should be covered by the claims of this disclosure without departing from its spirit and scope.

Claims

1. A method for controlling lighting devices, a method for controlling lighting devices for effects applications executed by at least one processor on a director's terminal, comprising the following steps: generating a library, the library setting illumination modes for a plurality of lighting devices; generating a scenario, the scenario setting illumination modes for the plurality of lighting devices for a specified time period; generating performance preparation data, the performance preparation data including at least one of the library and the scenario; and providing the generated performance preparation data to the plurality of lighting devices; Send lighting device control signals to the plurality of lighting devices, the lighting device control signals commanding the execution, interruption or termination of at least one of the libraries and scenes in the provided performance preparation data; The system achieves a comprehensive lighting control performance effect based on the sent lighting device control signals. The step of generating the library includes: setting illumination mode information, which specifies the library identification information and at least one parameter value among the illumination status, color, brightness, and dynamic effects of the lighting device; the step of generating the scene includes: setting scene mode information, which specifies the scene identification information and at least one parameter value among the illumination status, color, brightness, and dynamic effects of the lighting device; setting the scene mode information based on illumination mode information combining at least one library; and setting attribute change information for at least one of the libraries when generating the scene using the library.

2. The lighting device control method according to claim 1, characterized in that: The integrated lighting control performance effect is a performance effect mode, which operates uniformly according to the lighting pattern of the seats where the multiple lighting devices are located, so that the multiple lighting devices emit light in a uniform shape as a whole.

3. The lighting device control method according to claim 1, characterized in that: The step of generating the library further includes: setting attribute change information, wherein the attribute change information changes at least one parameter value of the set luminous mode information within a set running time of the library operation.

4. The lighting device control method according to claim 3, characterized in that: The step of setting attribute change information includes: setting the attribute change information based on at least one of the following inputs: attribute transformation input, replacing the existing parameter setting value with a new parameter setting value; attribute deformation input, replacing the existing parameter setting value with a predetermined calculation result value based on the existing parameter setting value and the new parameter setting value.

5. The lighting device control method according to claim 1, characterized in that: The step of generating the library further includes: generating each seat library, wherein the seat library is configured such that the library identification information corresponding to each of the plurality of lighting devices is the same for each seat, while the light emission mode information is different for at least a portion of the lighting devices.

6. The lighting device control method according to claim 1, characterized in that: The step of generating a scene further includes: generating a scene for each seat, wherein the scene recognition information is the same for each seat scene, but the scene mode information is different according to the location of each seat of the plurality of lighting devices.

7. The lighting device control method according to claim 1, characterized in that: The step of generating the library includes: setting an execution interval for the library from a specified start time to a specified end time.

8. The lighting device control method according to claim 1, characterized in that: The steps for generating the library include: providing a library grouping function to save and manage combinations of multiple libraries.

9. The lighting device control method according to claim 1, characterized in that: The step of sending the lighting device control signal to the plurality of lighting devices includes: sending the lighting device control signal containing the same command to the plurality of lighting devices by means of broadcasting.

10. The lighting device control method according to claim 1, characterized in that: The steps to achieve the overall lighting control performance effect include: the multiple lighting devices operating in different light-emitting modes, and emitting light in a uniform shape as a whole.

11. A director terminal, comprising: At least one memory device is required to save the application's storage effect. and at least one processor, to execute the effect application in the memory; The effect is applied to: generating a library containing multiple seat libraries that set the lighting modes for each seat where multiple lighting devices will be arranged; and generating a scene based on the multiple libraries containing the library, in which the multiple lighting devices perform a comprehensive lighting control performance effect within a specified time. To generate the scene, the plurality of lighting devices are configured to operate within a specific library contained in the plurality of libraries for a predetermined time period, and attribute change information is configured to change at least one parameter value of the luminous mode information of the specific library within the predetermined time period. The step of generating the library includes: setting luminous mode information, which specifies library identification information of the library and at least one parameter value among luminous status, color, brightness, and dynamic effects of the lighting devices; the step of generating the scene includes: setting scene mode information, which specifies scene identification information of the scene and at least one parameter value among luminous status, color, brightness, and dynamic effects of the lighting devices; setting the scene mode information based on luminous mode information combined according to at least one library; and setting attribute change information for at least one of the libraries when generating the scene using the libraries.

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