6results about How to "High system integration" patented technology

The application discloses infrared FPA-on-MEMS technology, belongs to the field of optical imaging and micro-electro-mechanical system integration technology, is used for manufacturing of infrared FPA-on-MEMS chip, utilizes the design of electrothermal-electrostatic dual driving module manufacturing process and the integration of infrared FPA unit on the middle platform of electrothermal-electrostatic dual driving module, can realize the coupling design of infrared FPA unit and MEMS driving technology on the chip level, and obtains infrared FPA-on-MEMS chip with automatic displacement control capability.The infrared FPA-on-MEMS technology of the application can effectively overcome the problems of large volume, slow speed, high power consumption and complex system caused by the fact that the traditional infrared imaging system relies on external optical mechanical components to realize functions such as anti-shake, scanning and zooming, improves the integration and reliability of the infrared thermal imaging system, breaks through the application bottleneck of the infrared thermal imaging technology, greatly improves the system integration and comprehensive use performance of the infrared thermal imaging system, and has excellent application prospect.

The utility model discloses a whole vehicle explosion -proof crane integrated equipment belongs to the technical improvement scheme of dangerous environment material handling and hoisting field, and this equipment includes frame structure, AGV wheel group and lifting arm subassembly, and frame structure is the design of ladder type, is divided into upper ladder frame and lower ladder frame, and upper ladder frame is equipped with the bearing platform and is embedded with explosion -proof battery group, explosion -proof main control box and AGV wheel control box, and lower ladder frame is configured with multistage telescopic lifting arm and tail support structure, equipment realizes in -place rotation and autonomous navigation movement through AGV wheel group, realizes the three -dimensional extension of hoisting range through the " rotation + pitch + a number of telescopic " composite structure of lifting arm, and the stability of hoisting is improved by the support system being composed of multiple adjustable supporting legs, and the whole vehicle structure adopts the design of explosion -proof structure, is applicable to petrochemical, military industry and dangerous goods storage and the like place, can complete efficient, safe transfer and hoisting operation in the narrow space.

This utility model provides a cylinder-type lifting and transferring device, belonging to the field of automation equipment. It solves the problems of tilting and jamming in existing lifting mechanisms. This cylinder-type lifting and transferring device includes a base frame and a frame. The base frame has multiple support feet at its bottom. The frame is located above the base frame and can be raised and lowered. Multiple chain assemblies capable of moving objects are mounted on the frame. A synchronization device for driving the chain assemblies is located below the frame. A leveling device is provided on the base frame to maintain the frame's horizontal state during the lifting process. Multiple lifting cylinders are also mounted on the base frame to drive the frame for overall lifting. The lifting cylinders are connected to the bottom of the frame via cylinder flange joints. The bolt hole diameter on the cylinder flange joint is larger than the bolt hole diameter on the frame, forming a structure with a larger bottom and a smaller top for fine-tuning. This utility model has the advantages of simple structure and easy disassembly and replacement.

This utility model discloses an eBike vehicle infotainment screen and IoT device, including a vehicle housing, a main control board, and a display screen assembly. The main control board integrates a vehicle main control chip, a Bluetooth module, a 4G module, a GPS module, a magnetic compass module, and a vehicle control interface. The Bluetooth module is used for communication with a mobile app, the 4G module is used for connecting to an IoT platform, the GPS module is used for positioning, and the magnetic compass module is used for direction recognition. The display screen assembly is electrically connected to the main control board and is used to display operating parameters such as motor status, battery information, navigation route, and weather. The vehicle control interface is connected to multiple components of the vehicle through control signal lines, enabling unified control of the motor, lights, battery lock, millimeter-wave radar, taillights, vibration motor, horn, fingerprint recognition module, and battery compartment. This utility model features high structural integration, rich functionality, and improves the overall control efficiency of the vehicle and the user interaction experience.

The heat exchanger comprises a plurality of heat exchange units which are connected in series, each heat exchange unit comprises a hollow shell, a flow channel is arranged in the shell, a plurality of liquid cooling pipes are arranged in the flow channel, and an inlet used for receiving heat exchange liquid and an outlet used for discharging the heat exchange liquid are formed in the outer portion of the shell. And the inlets and the outlets of the adjacent heat exchange units are communicated.

This application relates to the field of battery state monitoring technology, providing a distributed optical fiber monitoring device for battery pack temperature and strain, and a battery pack. The distributed optical fiber monitoring device for battery pack temperature and strain includes: a fixing device; a sensing optical fiber, fixed to the sidewall of each battery cell by the fixing device, and passing through the gap between adjacent battery cells in an S-shaped path; the fixing device includes: a fixing plate with a straight groove on its surface to accommodate the sensing optical fiber; a spring pressure plate, fixed at both ends to the fixing plate by screws, with its middle part spanning over the straight groove and pressing against the surface of the sensing optical fiber; anchor blocks disposed at both ends of the sensing optical fiber; a fiber Bragg grating and a Fabry-Perot structure are connected in series on the sidewall of each battery cell; one end of the sensing optical fiber is connected to a broadband light source, and the other end is connected to a spectrometer. This application achieves integrated functions of reliable optical fiber fixing, separate temperature and strain measurement, and single-fiber multi-point distributed monitoring.