8 results about "Intelligent street lighting" patented technology

This utility model discloses an integrated photovoltaic energy storage intelligent street light device, including a street light body, a photovoltaic panel, and an energy storage box. The street light body includes a lamp post and a lighting module, and also includes a first connecting unit and a second connecting unit. The first connecting unit includes at least two clamping assemblies, and each clamping assembly is clamped onto the lamp post. Each clamping assembly has two sleeve frames with vertically opened holes. The bottom of the photovoltaic panel has a first support, which includes four first uprights arranged in a longitudinal and transverse array. The first uprights are inserted into the holes of the first connecting unit. The bottom of the energy storage box has a second support, which includes two second uprights that are inserted into the holes of the second connecting unit. Workers can easily tighten the screws on the clamping assemblies, avoiding the operational difficulties caused by the excessive weight of the support and load in traditional installation methods, significantly reducing the operational difficulty.

Computer-based systems are disclosed that provide technological advances in electronic setpoint management and infrastructure. Present principles may be applied to streetlight configuration and management as well as to other applied technologies. Thus, in one aspect an apparatus includes a processor and storage with instructions. The instructions are executable to identify substantive performance data for a device, access setpoint data associated the device, and compare the substantive performance data to the setpoint data to determine a difference between the substantive setpoint data and the setpoint data. The instructions are also executable to correlate the difference to a particular configuration for the device. The instructions are then executable to store the substantive performance data, setpoint data, and the particular configuration for the device. The stored data is then used for training a machine learning model, which is then deployed to infer additional configurations for smart streetlights and other smart devices.

The present invention relates to a smart streetlight system for electric vehicle charging and fire response, and provides a system which comprises a lighting unit, a fire detection sensor unit, and an electric vehicle charging unit in a streetlight main body, and is integrally controlled by being connected through a wired / wireless network via an MCU device. The smart streetlight collects data from the fire detection sensor unit to determine whether a fire has occurred, generates fire occurrence information, and operates a fire suppression device on the basis of the fire occurrence information. The fire suppression device comprises a smothering fire extinguishing cover, which covers a parked electric vehicle to form a sealed space, thereby suppressing the fire or preventing the spread thereof. In addition, the smothering fire extinguishing cover comprises at least one openable emergency exit therein, and comprises a light-emitting body for indicating the position of the emergency exit to support safe escape of a user in an emergency situation. This design increases space utilization in urban environments through multifunctional roles of electric vehicle charging and fire response, and contributes to solving the problem of insufficient charging stations and the limitations of initial fire response. The present invention proposes a smart streetlight system that improves safety and efficiency in public places by simultaneously providing convenience in the use of electric vehicles and quickness of fire response.

This invention discloses a method, apparatus, device, and storage medium for controlling intelligent streetlights, comprising: a power line carrier device on the control side acquiring streetlight control information for at least two target intelligent streetlights, and display control information for target displays corresponding to the target intelligent streetlights; the power line carrier device on the control side also sending the streetlight control information to target power line carrier devices on the controlled side connected to the target intelligent streetlights, and controlling the working state of the target intelligent streetlights according to the streetlight control information through the target controllers corresponding to the target power line carrier devices; the power line carrier device on the control side also sending display control information to each target power line carrier device according to the transmission order between the target power line carrier devices; and each target controller adjusting the display content of the target displays according to the display control information. This improves the stability and real-time performance of control information transmission.

A light head includes a housing, a light source integrated with a main body of the housing, an internet protocol (IP) camera having a base fastened to an access panel of the housing, a network communication module disposed within the housing, and a power distribution system including a terminal block disposed in the housing. The network communication module is electrically connected to the IP camera and the terminal block of the power distribution system and is operative to wirelessly transmit data produced from images captured by the IP camera. The light source and the IP camera are electrically connected to the terminal block independently of each other, and the power distribution system is configured to supply at least some power for powering the light source and the IP camera from the main power supply line through the terminal block.

This invention discloses an integrated intelligent control device and method for streetlights and transformer substations, belonging to the technical field of road lighting systems. The device includes a transformer substation and an integrated intelligent control unit built into its low-voltage compartment. This unit includes a microprocessor, a satellite positioning module, a wireless communication module, and an interface adapter and drive module. The microprocessor is configured to: obtain the theoretical sunrise / sunset times daily based on the geographical coordinates and real-time network time obtained through satellite positioning, calculate the actual on / off times of the lights by combining this with a preset offset, and drive the actuators. The method includes location and time initialization, astronomical clock acquisition, adaptive control strategy, instruction generation and distribution, and closed-loop feedback for status monitoring. This invention applies edge computing to traditional transformer substations, solving the problems of existing technologies such as reliance on photosensitive elements, low control precision, lack of adaptability, and inability to remotely interact, thus achieving precise, adaptive, and perceptive intelligent streetlight control.

This invention discloses a smart street light and method capable of recycling rainwater, solar, and wind energy. The street light includes a street light support plate, an LED light panel mounted on the underside of the support plate, a solar power panel mounted on the upper side of the support plate, a transparent rainwater-driven power generation device mounted on the upper side of the solar power panel, a wind generator connected to the side of the support plate, and a pole connecting pipe connected to the support plate. A power controller is installed inside the pole connecting pipe, and a NEMA smart controller is installed at one end of the pipe. The smart street light also includes a battery. The power controller is electrically connected to the solar power panel, the rainwater-driven power generation device, the wind generator, the battery, and the NEMA smart controller. The LED light panel is electrically connected to the NEMA smart controller. This invention features high renewable energy utilization, energy saving, and environmental protection. It can receive control center commands or control the LED light panel's start-up time, operating time, and brightness level according to a preset control program. It can also monitor the operating status in real time and transmit the data to the control center.