45results about How to "Adaptable to the environment" patented technology

The invention provides an automatic gearbox gear shifting method, device and equipment and a storage medium. The method comprises the steps that the target air pressure of the environment where a target vehicle is located is obtained, if the target air pressure is lower than the preset air pressure, a preset automatic gearbox gear shifting point is corrected through a correction value of an automatic gearbox gear shifting point, and the target vehicle is subjected to gear shifting by using the corrected automatic gearbox gear shifting point. As the correction value of the automatic gearbox gear shifting point is the difference between the automatic gearbox gear shifting point under the pre-calculated target air pressure and the preset automatic gearbox gear shifting point, the correction value can well represent the change of the automatic gearbox gear shifting point under the target air pressure as compared with the preset automatic gearbox gear shifting point. According to the automatic gearbox gear shifting method, the situation that when the target vehicle is subjected to gear shifting through the corrected automatic gearbox gear shifting point, the performance of the whole vehicle is not reduced, and the automatic gearbox gear shifting method with environmental adaptability is achieved.

The invention relates to a master-slave robot for high obstacle crossing and accurate bomb disposal and explosion elimination, which is used for carrying out bomb disposal and explosion elimination by imitating the action of an operator in various complex terrains. The master-slave robot is characterized in that a left clamping hand and a right tool hand are respectively arranged on a rotating disc of a rack; the left clamping hand and the right tool hand are respectively provided with seven rotating pairs designed by imitating the hand of a human; small-sized motors and bevel gears are arranged at the finger joints of the clamping hands; a tool drum of the tool hand is provided with a rack which form a gear pair together with gears of the motors; the tool hand is respectively provided with tool pliers, a tool drilling knife and a screwdriver; the two sides of the rack are provided with crawler wheels in a staggered manner; the crawler wheels are in an assembling connection with vibrators, swinging arms and rotating-angle transmission shafts; and the front wheels of the crawler wheels are driving wheels, the motors are arranged in the axial direction of the driving wheels, a big gear is arranged in the middle and bearing wheels are arranged at the two sides. The master-slave robot has the advantages that the adaptability to more complex terrains is achieved, the obstacle-crossing capability is strong, complex and accurate bomb disposal action can be realized and the tool is easy to change due to modularization.

The invention is an air-land amphibious spherical robot, which is composed of a spherical outer frame, a frame, a connecting device, a power system, a control system and a power supply system, and has the characteristics of both a spherical robot and a multi-axis aircraft. By controlling the magnitude and direction of the lift force provided by the two sets of horizontal rotors, the linear motion of the robot on the ground, in-situ steering, take-off and landing in the air, and air maneuvering are realized. The user can communicate with the robot through the hand controller, monitor the operation of the robot in real time, and control its movement by the main control board. There is a large space inside the robot, and a variety of extended functional components can be installed to complete a variety of tasks. The robot can also perform different types of jobs by being equipped with different end devices. The robot has a simplified structure, flexible movement, unique environmental adaptability, and can move in a three-dimensional complex environment.

The invention discloses a hybrid integrated optical accelerometer based on Michelson interference. The light of the narrow line width light source of the present invention is coupled into the input waveguide after passing through the mode-spot converter, and realizes light splitting on the 2:1 type Y waveguide along the first transverse strip groove. The groove enters the first curved waveguide after passing through the third ball lens, the input mirror of the first F-P cavity and the fourth ball lens, and reflects on the rear surface of the mass block of the spring vibrator structure after passing through the fifth ball lens along the longitudinal strip groove Return according to the original path, the second light beam first enters the second curved waveguide along the third transverse strip groove, passes through the sixth ball lens along the longitudinal strip groove, and reflects on the front surface of the mass block of the spring vibrator structure according to the original path Returning, the two beams of light are coupled into the 1:2 Y-waveguide branch and then directly coupled into the photodetector. The invention has high detection sensitivity, compact structure, high integration, simple preparation process, high reliability, anti-electromagnetic interference and certain environmental adaptability.

The present invention is a control algorithm for multi-UAV cooperative formation obstacle avoidance, comprising the following steps: (1) When the UAV formation performs a flight mission, the position and speed of the UAV and the airspace obstacle are detected by an airborne sensor information, and abstract the obstacles in the flight space into a sphere; (2) Construct the UAV formation communication topology according to the position information of each UAV, and use the distributed transmission method to realize the communication between neighboring UAVs in the formation. (3) Establishing the UAV dynamics model; (4) When an obstacle is detected, determine the safe distance for the UAV to avoid obstacles, and judge the distance between any UAV in the UAV formation and the obstacle. Whether the spacing of the distance meets the requirements of the safety distance, if not, adjust the formation formation and avoid obstacles through the virtual force strategy. The algorithm is operable and simple, and can realize the cooperative formation of multiple UAVs and avoid obstacles more flexibly, which is of great significance to the reality of multi-cooperative operations.

The invention relates to an RLV auto-landing segment speed control method based on a nominal speed compensation idea. The method comprises steps that firstly, nominal locus of an RLV auto-landing segment is designed, and a corresponding nominal air speed is acquired; secondly, a navigation ground speed and an air speed outputted by an atmosphere data system are utilized to determine a wind speed and the direction, a speed compensation item is determined through utilizing an interpolation method according to technical indexes such as the nominal air speed, a landing field wind field and ground contact ground speed requirements, and the speed compensation item is superposed into a nominal air speed generation speed instruction; and lastly, a flap control system is utilized to generate a flap drift angle to realize speed instruction tracking. The method is advantaged in that influence of tail wind and countrary wind on landing precision and attitude in an RLV landing process can be effectively solved, and guidance precision is improved.