1420 results about "Integrated controller" patented technology

A method for communicating with and controlling an intelligent appliance by a user from a remote device. The intelligent appliance includes an integrated controller, such as a single board computer, user-interface and integrated networking capabilities. Typically, the remote device is a personal data assistant, a tablet, a personal computer or a web-enabled cellular phone. The remote device establishes a connection with the intelligent appliance over a computer network, using wired or wireless connection techniques. The intelligent appliance verifies the identity of the user and provides the user with status updates. The remote device transmits a set of cooking instructions to the appliance. The intelligent appliance then cooks or refrigerates in accordance with the set of cooking instructions transmitted from the remote device and communicates this back to the remote device.

An integrated controller for complete automation with the ability to control electrical devices through both RF transmission and IR transmissions. In one illustrative embodiment, the integrated controller comprises an antenna for two-way communication with stations located throughout a structure. Each station may control the power supply to an attached electrical device. The buttons on the station may control any electrical device on the system through RF transmission with the integrated controller. The integrated controller also may comprise an IR receiver and at least one IR output. The IR receiver may receive signals from a remote and pass them through to a device, such as a device used in a home theater system, with a built in IR receiver via the IR output. In this manner, the integrated controller is capable of providing complete in home automation.

A non-volatile storage subsystem solution is provided for embedded applications. The storage subsystem is preferably designed to communicate with the host system using a signal interface, such as a USB or SATA interface, that uses substantially fewer signal lines than the IDE interface traditionally used for embedded applications. Thus, the amount of board real estate used to carry interface signals in the host system is reduced. To further reduce board real estate, the host system may include a processor that includes an integrated controller (e.g., a USB or SATA controller) corresponding to the host-subsystem signal interface. The storage subsystem may plug into, and lock to, an internal connector on a circuit board of the host system.

A non-volatile storage subsystem solution is provided for embedded applications. The storage subsystem is preferably designed to communicate with the host system using a signal interface, such as a USB or SATA interface, that uses substantially fewer signal lines than the IDE interface traditionally used for embedded applications. Thus, the amount of board real estate used to carry interface signals in the host system is reduced. To further reduce board real estate, the host system may include a processor that includes an integrated controller (e.g., a USB or SATA controller) corresponding to the host-subsystem signal interface. The storage subsystem may plug into, and lock to, an internal connector on a circuit board of the host system.

A method for communicating with and controlling an intelligent appliance by a user from a remote device. The intelligent appliance includes an integrated controller, such as a single board computer, user-interface and integrated networking capabilities. Typically, the remote device is a personal data assistant, a tablet, a personal computer or a web-enabled cellular phone. The remote device establishes a connection with the intelligent appliance over a computer network, using wired or wireless connection techniques. The intelligent appliance verifies the identity of the user and provides the user with status updates. The remote device transmits a set of cooking instructions to the appliance. The intelligent appliance then cooks or refrigerates in accordance with the set of cooking instructions transmitted from the remote device and communicates this back to the remote device.

An integrated controller for controlling a vapor compression based heating and cooling system. The integrated controller includes modules for independently controlling dry bulb temperature, humidity level, and incorporating a fault detection module therewith. The fault detection module being capable of detecting abnormal refrigerant levels using only temperature sensors on the condenser with thermal expansion valve or evaporator with fixed orifice type of expansion valve.

The present invention is an integrated control system for use with various home appliances, such as washing machine, dryers, refrigerators, dishwashers, and the like. In a first embodiment of the present invention, the integrated controls are incorporated into a polycarbonate clear door panel, and incorporate proximity switches and controls to provide control and operation of the applicance. Light emitting diodes (LEDs) are optionally incorporated into a door handle for the appliance in an area out of sight such that only the light produced by the LEDs is seen and illuminates a handle for opening the door of the appliance. Additionally, opaque glass technology may be incorporated into one or more surfaces of the appliance which enables an opaque panel to become transparent to view the content of the interior of the appliance, such as a refrigerator.

The invention provides a double-hub electronic motor electrical differential and speed regulation integrated controller. A control signal integrated adjusting unit module, a right wheel speed signal preprocessing module, a right wheel pre-driving unit module, a left wheel pre-driving unit module, a left wheel speed signal preprocessing module, a left hub electrical motor controller, a right hub electrical motor controller, a driving module unit and a monolithic computer are arranged inside the double-hub electrical motor electronic differential and speed regulation integrated controller. The double-hub electrical motor electronic differential and speed regulation integrated controller is characterized in that an electronic differential mechanism, the left hub electrical motor controller and the right hub electrical motor controller are combined into a whole inside the double-hub electrical motor electronic differential and speed regulation integrated controller simultaneously, and all components inside the double-hub electrical motor electronic differential and speed regulation integrated controller are of module structures. Meanwhile, a control signal and speed feedback signal processing module needed by an electric vehicle is arranged inside the controller, pre-control circuits and terminal driving circuits of a left electrical motor and a right electrical motor are inserted in the controller, and thus the fact that a control assembly of the electric motor driven by a double-hub electrical motor has differential control in turning, speed control in driving, stop control in temporary stop and anti-theft control in parking is guaranteed.

A remotely adjustable lighting device configured to an operational mode customized for the geographic location of the device. The lighting device is powered by a battery provided with solar charging. The lighting device, under control of an integral controller, is turned off and on for an illumination period as a function of both local sunrise and sunset times determined by a combination of time and date information and GPS positioning. The luminosity of the lighting device is autonomously controlled as a function of battery charge and the determined required illumination period. The solar charging system is oriented by the controller to optimize its energy collection by periodical adjustments.

A traffic signal (310) having a reflector (322, 400) having a plurality of reflective surfaces (330, 402) directing incident ambient light received from the signal lens (318) to a photodetector (322). The reflector is disposed proximate and about a plurality of LEDs (324, 406) which are pulse width modulated by an integrated controller (360) to generate light which is also transmitted through the lens. The photodetector senses the incoming ambient light when the LEDs are in the “off” mode. Incident ambient light is focused by a lens to overfill the reflector and LEDs, and the photodetector is positioned within the redirected incident ambient light from the lens.

A light performance monitoring device and optionally integrated controller includes a monitor module that directly monitors energy usage of at least one energy load to generate at least one measurement of energy usage; a storage module stores a series of baseline values of energy usage of the energy load, a comparator module compares energy measurements made at predetermined intervals with the baseline values, and a notification module notifies a designated recipient that there is a deviation from the baseline values consistent with a burned out or non-operational light fixture, including but not limited to light bulbs or ballast devices. A control module optionally integrated with the light performance monitoring device can be operatively coupled to the monitor module to control energy usage by the at least one energy load via a data link in a pre-determined manner that is based on the at least one measurement of energy usage.

A grid-connected energy storage system and a method of controlling the energy storage system. In the energy storage system, a normal operation of the energy storage system and the UPS function due to electrical failure may be stably performed even if electrical failure occurs. The energy storage system includes: a maximum power point tracking (MPPT) converter outputting converted power to a first node; a battery storing power; a bi-directional inverter converting power and outputting the converted power to the load, the grid or the first node; a bi-directional converter converting and storing power in the battery and outputting the power stored in the battery to the first node; and an integrated controller controlling the MPPT converter, the bi-directional inverter and the bi-directional converter.

A digital system provides a serial bus diagnostic port such as, for example, a universal serial bus (USB) diagnostic port. The USB diagnostic port can include a USB slave device operable to interface to a universal serial bus, a flash memory controller interface coupled to the USB slave device and operable to interface to a flash memory controller, and a test access port controller coupled to the USB slave device and operable to interface to a test access port. The diagnostic port can further include a system interface coupled to the USB slave device and operable to interface to an integrated controller independently of an operating system. Via the diagnostic port, a USB testing tool with testing software can access and debug internal logic of the digital system. As an alternative to a USB diagnostic port, the serial bus diagnostic port can be implemented in a variety of wired or wireless implementations such as, for example, an I.E.E.E. 1394 diagnostic port, an Ethernet diagnostic port, or a wireless Internet diagnostic port. Further, the serial bus diagnostic port can, for example, be used for software development, in-factory testing or in-field diagnostics of the digital system.

An integrated I / O controller in an integrated circuit is provided for centralized data management. The integrated circuit includes a host interface, a disk interface, and a mapping controller implemented in hardware to speed data processing and provide fault tolerance as exemplified with RAID configurations. The mapping controller provides block mapping across a plurality of peripherals or disk drives in a disk array. The integrated I / O controller can be utilized in storage area network systems and network area storage systems as well as other networking systems or devices.

An integrated controller for the detection and operation of both PC Cards, smart cards and passive smart card adapter cards. In one aspect, the invention detects the presence of standard expansion cards or passive smart card adapters by utilizing the reserved detection and voltage selection signal area defined by the PC Card specification. In another aspect, the invention provides an integrated controller that includes logic to operate either a standard expansion card or a passive smart card adapter by reassigning certain PC Card signal lines to operate a standard expansion card or a passive smart card adapter, thereby eliminating the need to provide pins in addition to those defined by the PC Card specification.

A vehicle control system includes a housed sensor cluster generating a plurality of signals. An integrated controller includes a sensor signal compensation unit and a kinematics unit, wherein the sensor signal compensation unit receives at least one of the plurality of signals and compensates for an offset within the signal and generates a compensated signal as a function thereof. The integrated controller further generates a kinematics signal including a sensor frame with respect to an intermediate axis system as a function of the compensated signal and generates a vehicle frame signal as a function of the kinematics signal. A dynamic system controller receives the vehicle frame signal and generates a dynamic control signal in response thereto. A safety device controller receives the dynamic control signal and further generates a safety device signal in response thereto.

A grid-connected power storage system for coupling a power generation system to a grid, including: a main battery for discharging stored power to the load system; at least one additional battery coupled to the main battery for discharging stored power to the load system; a bidirectional converter coupled to the main and additional batteries, and including a plurality of switches for performing a conversion between a DC link voltage, between the power generation system and the grid, and a battery voltage, a first switch of the plurality of switches corresponding to the main battery and a second switch of the plurality of switches corresponding to the additional battery, wherein the first and second switches are connected to each other in parallel; and an integrated controller for selectively controlling operations of the first switch and the second switch based on an amount of power used by the load system.

A vehicle control system includes a housed sensor cluster generating a plurality of signals. An integrated controller includes a sensor signal compensation unit and a kinematics unit, wherein the sensor signal compensation unit receives at least one of the plurality of signals and compensates for an offset within the signal and generates a compensated signal as a function thereof. The integrated controller further generates a kinematics signal including a sensor frame with respect to an intermediate axis system as a function of the compensated signal and generates a vehicle frame signal as a function of the kinematics signal. A dynamic system controller receives the vehicle frame signal and generates a dynamic control signal in response thereto. A safety device controller receives the dynamic control signal and further generates a safety device signal in response thereto.

An LED module may include a plurality of LED wafers. Each LED wafer may be capable of emitting light in a different color. The LED module may also include an intelligent controller to control operation of each of the LED wafers. Each of the LED wafers may be integrated with the controller and the LED wafers may be combinable in different combinations to produce light in a multiplicity of different colors and intensities under control of the intelligent controller.

A portable active fluid-powered ankle foot orthosis. A lower leg mount and a foot bed are pivotally coupled at or proximate to an ankle position. A fluid powered rotary actuator is configured to receive power from a wearable fluid power source and provide controlled force and resistance to aid or inhibit relative rotation of the foot bed and the lower leg mount. An integral controller is provided for receiving data from sensors and controlling the fluid powered rotary actuator to actively assist gait of a user.

A controller includes a plurality of readers for reading an associated plurality of expansion cards and for controlling operation of such expansion cards, wherein at least one of the plurality of readers is a flash media reader. A method for controlling the operation of at least one expansion card with an integrated controller having a plurality of readers includes detecting the presence of at least one expansion card, and enabling a selected reader of the integrated controller associated with at least one expansion card. Another method of writing data to read only memory in an integrated controller includes unlocking the read only memory, writing information into the read only memory, and locking the read only memory to prevent otherwise unintentional or unauthorized writing to the read only memory is also provided.

A human body measurement system and a method for using such a system. The human body measurement system includes a photographing unit that includes a plurality of cameras and a hub which send images, captured by the cameras, to a PC of an integrated controller through the hub, a weight scale configured to measure body weight of a subject of measurement, and a body composition analyzer configured to measure body composition of the subject of measurement.

A light performance monitoring device and optionally integrated controller includes a monitor module that directly monitors energy usage of at least one energy load to generate at least one measurement of energy usage; a storage module stores a series of baseline values of energy usage of the energy load, a comparator module compares energy measurements made at predetermined intervals with the baseline values, and a notification module notifies a designated recipient that there is a deviation from the baseline values consistent with a burned out or non-operational light fixture, including but not limited to light bulbs or ballast devices. A control module optionally integrated with the light performance monitoring device can be operatively coupled to the monitor module to control energy usage by the at least one energy load via a data link in a pre-determined manner that is based on the at least one measurement of energy usage.

An energy storage system and a method of controlling the energy storage system. The energy storage system includes a bidirectional inverter for outputting generation power of the power generation system and power of a battery to the grid, and an integrated controller for controlling an output power of the bidirectional inverter by using predicted generation power of the power generation system calculated based on weather such that charging or discharging of the battery is conducted while maintaining an allowable range of remaining battery capacity.

An engine-driven welder / generator is controlled by an integrated controller that is coupled to both the engine and to the welder / generator. The controller receives input signals for operational parameters of the engine, and additional signals indicative of electrical output by the welder / generator. Operation of the engine and welder / generator may thus be coordinated. The controller may control speed, timing, fuel injection, and so forth of the engine, and output of the welder / generator, such as by control of input to a field coil.

A hybrid vehicle control system for cutting off fuel to an internal combustion engine of hybrid vehicle while providing smooth transitions from a hybrid drive mode to an electric drive mode is provided. The hybrid vehicle control system includes an integrated controller configured to receive inputs corresponding to vehicle speed and an indicated driving force, and to select an appropriate mode transition pattern from a group of mode transition patters according to the change in indicated driving force.

A powered air cleaning system has a flow path extending through the system from an inlet to an outlet. A motor-driven fan is located along the flow path to draw particulate debris laden air into the inlet and rotate it about an axis to form a rotating flow that stratifies the debris laden air with the heaviest particles in the outermost orbits of the rotating flow. An ejector port ejects particulate debris laden air from the stratified rotating flow in the system. At least one de-swirl component located within the rotating flow aerodynamically redirects clean air from the innermost orbits of the stratified rotating flow toward the outlet to provide a positive airflow pressure out of the outlet. The system has a variable speed fan motor and an integrated controller for adjusting the speed of the motor and thereby the flow rate of clean air through the outlet of the system. The controller receives a signal that is a function of airflow requirements of a device supplied with clean air by the system. The system can be mounted above or below a hood housing an engine to be supplied with clean air.

A DC motor having a motor housing and a motor controller housed within the motor housing. In a preferred embodiment the heat producing components of the motor controller are in thermal communication with the housing such that the majority of the heat produced by such components will be readily conducted to the environment in which the motor is operating. When incorporated into a trolling motor, the motor housing of the present invention will be submerged so that controller produced heat will be dissipated into the water in which the trolling motor is operated.