34results about How to "To achieve the effect of saving fuel" patented technology

The invention provides an antiskid driver. A left compound differential mechanism B and a right compound differential mechanism C which are in the same structure are symmetrically arranged at the two sides of a symmetrical cone planet gear differential mechanism A on the basis of the existing main reduction symmetric cone planet gear differential mechanism driving rear wheel, driving power is transmitted to the two front wheels by virtue of the left compound differential mechanism B and the right compound differential mechanism C, under the action of the internal structures of the left compound differential mechanism B and the right compound differential mechanism C, the driving of front wheels is linked with the driving of rear wheels, thus achieving the antiskid and differential driving aims. In the invention, each wheel is respectively driven by power distribution, unequal torque and rotating speed distribution of front, rear, left and right wheels can be realized and automatic adjusting can be realized, and differential between front and rear axles, differential between wheels and differential between diagonal wheels can be realized; antiskid between front and rear axles, antiskid between diagonal wheels and antiskid between wheels can be realized. The invention is applicable for car, wheel type engineering truck, wheel type special vehicle and large scale heavy duty truck to make the most of driving potence.

The invention discloses a driving prompt method and device, equipment and a storage medium, which are used for realizing fuel-saving driving of a vehicle by a driver by prompting the driving method of the driver. The method comprises the steps that the driving prompting device determines that the vehicle is located on a target ramp and obtains driving parameters of the vehicle, wherein the driving parameters of the vehicle comprise the current speed of the vehicle, the target acceleration of the vehicle on the target ramp and the first distance of the vehicle away from the target ramp, and the target acceleration is the acceleration generated by the vehicle on the target ramp under the influence of gravity; and furthermore, the driving prompt device generates a first prompt message based on the driving parameters of the vehicle and a preset target speed, and sends the first prompt message to the outside, wherein the target speed is the maximum speed of driving away from the target ramp, and the first prompt message comprises the second distance, and the first prompt message is used for prompting the vehicle to drive away from the target ramp within the second distance in a non-power-output mode.

Disclosed are an engine self-adaptive system and fuel saving method based on vehicle operating condition, the engine self-adaptive system comprising an information center and vehicle terminals in communication with the information center. Each vehicle terminal comprises a GPS navigation module, a running vehicle data collection module, a vehicle specifications and engine operating states memory, a wireless communication module, a calculation module, a decision-making module, a vehicle control module, and a human interface module. The vehicle control module adjusts an engine response characteristic and reduces the effect of improper throttle operation. A standard road resistance characteristic coefficient is an optimum and has a higher reference value such that the invention, for ensuring power performance for a vehicle, achieves fuel saving by properly controlling engine output.

The invention provides an air-conditioner control method based on a vehicle networking technology. An information center sends vehicle configuration parameters to a vehicle-mounted terminal according to vehicle types, and the vehicle-mounted terminal receives and stores the vehicle configuration parameters; the vehicle-mounted terminal uploads the current position information to the information center, and the information center extracts the current road information from map data according to the position information; the information center obtains real-time weather data in real time, and combines the vehicle current road information and the vehicle configuration parameters so as to calculate the rolling friction coefficient of the current road surface, and the rolling friction coefficient of the current road surface is sent to the vehicle-mounted terminal and is stored; the vehicle-mounted terminal acquires vehicle current running state parameters and current vehicle running data, and combines the vehicle configuration parameters, the rolling friction coefficient of the current road surface, and the current-road information so as to calculate vehicle current loads; the vehicle-mounted terminal adjusts the air-conditioner control parameters of an air-conditioner controller according to the vehicle current loads, so that the starting efficiency of an air conditioner is higher.