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CN121201004A - Two-wheeled vehicles and their electromechanical braking systems - Google Patents

Two-wheeled vehicles and their electromechanical braking systems

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Publication number
CN121201004A
CN121201004A CN202511651705.4A CN202511651705A CN121201004A CN 121201004 A CN121201004 A CN 121201004A CN 202511651705 A CN202511651705 A CN 202511651705A CN 121201004 A CN121201004 A CN 121201004A
Authority
CN
China
Prior art keywords
brake
braking
motor
control device
circuit
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
CN202511651705.4A
Other languages
Chinese (zh)
Inventor
李坚利
王秋华
李立刚
罗家俊
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hengchuang Zhixing Zhejiang Electric Control Brake System Co ltd
Original Assignee
Hengchuang Zhixing Zhejiang Electric Control Brake System Co ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Hengchuang Zhixing Zhejiang Electric Control Brake System Co ltd filed Critical Hengchuang Zhixing Zhejiang Electric Control Brake System Co ltd
Priority to CN202511651705.4A priority Critical patent/CN121201004A/en
Publication of CN121201004A publication Critical patent/CN121201004A/en
Pending legal-status Critical Current

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Abstract

The invention discloses a two-wheel vehicle and an electronic mechanical braking system thereof, which belong to the two-wheel vehicle technology and improve the braking reliability, and comprise a control unit, a main braking circuit and an auxiliary braking circuit, wherein the control unit is one of a right braking handle and a left braking handle and a braking pedal, or the combination of one braking handle and the braking pedal, after being controlled, the control unit executes a control action and generates a control signal, the main braking circuit comprises a braking executing mechanism arranged on a front wheel and a rear wheel of the two-wheel vehicle, the braking executing mechanism comprises a motor control device, a braking motor and a brake, the motor control device generates a control signal for the braking motor according to the control signal, the braking motor drives the brake to realize braking or release, the auxiliary braking circuit comprises a pull rope connected with the other braking handle, the other braking handle outputs pulling force through the pull rope, and when the main braking circuit fails, the auxiliary braking circuit is switched to execute the braking of the rear wheel.

Description

Two-wheel vehicle and electronic mechanical braking system thereof
Technical Field
The invention belongs to the technical field of two-wheelers, and particularly relates to a two-wheeler braking technology.
Background
U.S. patent publication No. US20210229649A1 discloses a brake-by-wire apparatus for a straddle-type vehicle, including a brake, a brake operating unit, a control unit, and a signal processing unit. The driver inputs signals to the signal processing unit through operating the brake operation unit, including pressing the pressure sensor on the handle and stepping on the brake pedal, and the signal processing unit supplies power to the control unit according to the input signals, so that the control unit generates control signals to control the front and rear wheel brake loops. The brake circuit comprises a hydraulic circuit which consists of a regulator, an electromagnetic valve and the like. According to the control signal, the front and rear wheel brake calipers are operated by a preset control pressure generated by the oil pressure of the master cylinder, so that the brake calipers generate a preset braking force. The prior art adopts a hydraulic circuit to transmit pressure signals, and comprises a regulator, an electromagnetic valve, a main cylinder and oil, the structure is complex, oil leakage pollution is easy to generate, and the corresponding braking speed is low.
Disclosure of Invention
In order to overcome the defects in the prior art, the technical problem to be solved by the invention is to provide a two-wheel vehicle and an electronic mechanical braking system thereof, which simplify the structure, improve the corresponding braking speed and improve the braking reliability.
In order to solve the technical problems, the invention adopts the following technical scheme:
a two-wheeled vehicle electromechanical brake system comprising:
the control unit is one of a right brake handle and a left brake handle, a brake pedal or a combination of one brake handle and the brake pedal, executes a control action after being controlled and generates a control signal;
The main braking circuit comprises a braking executing mechanism arranged on the front wheel and the rear wheel of the two-wheel vehicle, the braking executing mechanism comprises a motor control device, a braking motor and a brake, the motor control device generates a control signal for the braking motor according to the control signal, and the braking motor drives the brake to realize braking or release;
the auxiliary brake circuit comprises a inhaul cable connected with the other brake handle, and the other brake handle outputs tension through the inhaul cable to control a brake actuating mechanism of the rear wheel;
When the main brake line fails, the auxiliary brake line is switched to execute the rear wheel brake.
Preferably, the motor control device of the brake actuating mechanism of the rear wheel is provided with a main brake line monitoring module for monitoring a main brake line, and is switched to a sub brake line to execute the rear wheel brake when the main brake line is monitored to be faulty.
Preferably, the auxiliary brake circuit further comprises a second force sensor connected with the inhaul cable, the second force sensor is connected with a motor control device of a brake actuating mechanism of the rear wheel, and when the main brake circuit monitoring module monitors that the main brake circuit fails and the second force sensor has an input signal, the auxiliary brake circuit is switched to execute the braking of the rear wheel according to the signal of the second force sensor.
Preferably, the motor control device comprises a power module, a processing module and a motor driving circuit, wherein the power module converts power supplied by a vehicle-mounted power supply to supply power to a braking system, and the processing module analyzes and calculates control signals to generate control instructions for the braking motor and drives the braking motor through the motor driving circuit.
Preferably, the brake handle is hinged to the motorcycle handle, an angle exists between the brake handle and the motorcycle handle, the angle of the brake handle is reduced after the brake handle is controlled, the brake handle is connected with an elastic piece which resets after the brake handle is controlled, a first force sensor is arranged on the hinge or the elastic piece and used for detecting the reaction force received by the brake handle when the brake handle is controlled, and the first force sensor transmits signals to the motor control device.
Preferably, the brake pedal is hinged to the pedal support, an angle exists between the brake pedal and the pedal support, the angle of the brake pedal is reduced after the brake pedal is controlled, the brake pedal is connected with an elastic piece which is reset after the brake pedal is controlled, a first force sensor is arranged on the hinge or the elastic piece and used for detecting the reaction force received by the brake pedal when the brake pedal is controlled, and the first force sensor transmits signals to the motor control device.
Preferably, the brake comprises a reduction gear assembly and a motion conversion assembly, the reduction gear assembly is driven by the brake motor, the reduction gear assembly transmits rotary motion to the motion conversion assembly, and the motion conversion assembly converts the rotary motion into linear motion.
Preferably, the speed reduction gear assembly comprises a secondary speed reduction gear assembly and a planetary speed reduction assembly, wherein the secondary speed reduction gear assembly comprises a first-stage pinion and a second-stage big gear which are meshed, the first-stage pinion is fixed with a motor shaft of the brake motor, an output shaft of the second-stage big gear is connected with an input end of the planetary speed reduction assembly, and/or the motion conversion assembly is a ball screw assembly.
In addition, a two-wheel vehicle is also provided, and the two-wheel vehicle comprises the electronic mechanical brake system.
Further, the wheel is provided with a wheel speed sensor, and the vehicle body is provided with an inertial sensor.
The technical scheme adopted by the invention has the following beneficial effects:
An electromechanical brake system is used on a two-wheel vehicle, the electromechanical brake system is provided with a main brake circuit, the main brake circuit comprises a brake actuating mechanism arranged on a front wheel and a rear wheel of the two-wheel vehicle, the brake actuating mechanism comprises a motor control device, a brake motor and a brake, the motor control device generates a control signal for the brake motor according to a control signal, and the brake motor drives the brake to realize braking or releasing, so that a hydraulic circuit is not required to be arranged, and the structure is simplified. The control unit and the motor control device are in electric signal transmission, and the brake motor drives the brake to brake rapidly, so that the corresponding braking speed of the two-wheel vehicle is improved, and the braking efficiency is improved. Moreover, the motor control device can control the braking motor more accurately according to the control signal, so that the braking force of the brake is controlled, and the braking effect and the control experience are improved.
In addition, the electronic mechanical brake system is also provided with a secondary brake circuit, the secondary brake circuit comprises a inhaul cable connected with the other brake handle, the other brake handle outputs pulling force through the inhaul cable, a brake actuating mechanism of the rear wheel is controlled, and when the main brake circuit fails, the brake actuating mechanism is switched to the secondary brake circuit to execute the braking of the rear wheel. Under the condition that the auxiliary brake circuit is used as the second motor control device and can not normally collect control signals and other sensing signals of the vehicle, the auxiliary brake circuit is switched to be mechanically transmitted more stably and reliably, signals are provided for the motor control device, and the reliability of braking is improved.
These features and advantages of the present invention will be disclosed in detail in the following detailed description and the accompanying drawings.
Drawings
The invention is further described with reference to the accompanying drawings:
FIG. 1 is a schematic diagram of an electromechanical brake system for a two-wheeled vehicle according to an embodiment of the present invention;
FIG. 2 is a schematic view showing the arrangement of left and right brake handles according to an embodiment of the present invention;
FIG. 3 is a schematic diagram of a motor control device;
FIG. 4 is a schematic diagram of a brake actuator according to an embodiment of the present invention;
reference numerals:
The vehicle-mounted battery 1, the right brake handle 20, the first force sensor 21, the left brake handle 25, the stay cable 26, the first motor control device 30, the second motor control device 31, the processing module 32, the power module 33, the motor driving circuit 34, the second force sensor 35, the first brake motor 40, the second brake motor 41, the stator 42, the encoder 43, the motor shaft 47, the secondary reduction gear assembly 48, the planetary gear assembly 49, the first brake 50, the second brake 51, the ball screw 52, the nut 52A, the brake pad 53 and the brake disc 60.
The technical solutions of the embodiments of the present invention will be explained and illustrated below with reference to the drawings of the embodiments of the present invention, but the following embodiments are only preferred embodiments of the present invention, and not all embodiments. Based on the examples in the implementation manner, other examples obtained by a person skilled in the art without making creative efforts fall within the protection scope of the present invention.
In this embodiment, the two-wheeled vehicle may be an electric two-wheeled vehicle or a hybrid two-wheeled vehicle, and the two-wheeled vehicle electromechanical brake system includes a control unit, a main brake circuit, and a sub brake circuit.
As shown in fig. 1 to 4, the control unit is one of the right brake handle 20 and the left brake handle 25, a brake pedal, or a combination of one of the brake handles and the brake pedal, and is controlled by a driver by pinching the brake handle or pressing the brake pedal, performs a control action, performs the control action after being controlled, and generates a control signal.
The main braking circuit comprises a braking executing mechanism arranged on the front wheel and the rear wheel of the two-wheel vehicle, the braking executing mechanism comprises a motor control device, a braking motor and a brake, wherein the motor control device generates a control signal for the braking motor according to the control signal, and the braking motor drives the brake to realize braking or release. The brake actuator provided in the front wheel corresponds to the brake actuator provided in the rear wheel and includes the first motor control device 30, the first brake motor 40, and the first brake 50, and corresponds to the brake actuator provided in the rear wheel and includes the second motor control device 31, the second brake motor 41, and the second brake 51.
The auxiliary brake circuit comprises a pull rope 26 connected with the other brake handle, and the other brake handle outputs pulling force through the pull rope to control a brake actuating mechanism of the rear wheel;
When the main brake line fails, the auxiliary brake line is switched to execute the rear wheel brake.
The two-wheel vehicle adopts the electromechanical braking system, a hydraulic loop is not required to be arranged, and the structure is simplified. The control unit and the motor control device are in electric signal transmission, and the brake motor drives the brake to brake rapidly, so that the corresponding braking speed of the two-wheel vehicle is improved, and the braking efficiency is improved. Moreover, the motor control device can control the braking motor more accurately according to the control signal, so that the braking force of the brake is controlled, and the braking effect and the control experience are improved.
As shown in fig. 2 and 3, in the present embodiment, the manipulation unit is a combination of both the right brake handle 20 and the left brake handle 25. The left brake handle 25 and the right brake handle 20 are operated. Wherein, the control signal of the right brake handle 20 is simultaneously transmitted to the first motor control device 30 and the second motor control device 31, and the left brake handle 25 is connected with the stay cable 26.
The brake handle is hinged with the motorcycle handle, an angle exists between the brake handle and the motorcycle handle, the angle is reduced after the brake handle is controlled, the brake handle is connected with an elastic piece which resets after being controlled, a first force sensor 21 is arranged on the hinge or the elastic piece and used for detecting the reaction force received by the brake handle when being controlled, the first force sensor 21 is electrically connected with a first motor control device 30 and a second motor control device 31 at the same time, signals of the first force sensor 21 are transmitted to the first motor control device 30 and the second motor control device 31, and therefore, the first motor control device 30 and the second motor control device 31 brake front wheels and rear wheels according to control signals.
Further, the auxiliary brake circuit further comprises a second force sensor 35 connected with the guy cable 26, and the second force sensor 35 is connected with the second motor control device 31.
Since the second motor control device controls the auxiliary brake line to perform the rear wheel brake, the second motor control device is provided with a main brake line monitoring module that monitors the main brake line, and switches to the auxiliary brake line to perform the rear wheel brake when it is monitored that the main brake line fails. That is, when the main brake line monitoring module monitors that the main brake line fails and the second force sensor has an input signal, the control circuit switches to execute the rear wheel braking by the auxiliary brake line according to the signal of the second force sensor. Namely, the auxiliary braking circuit is used as an emergency measure, and is switched to be in stable and reliable mechanical transmission under the condition that the second motor control device cannot normally collect control signals and other sensing signals of the vehicle, so that signals are provided for the motor controller, and the reliability of braking is improved.
As shown in fig. 3, the first motor control device 30 and the second motor control device 31 have the same structure. That is, the two motor control devices each include a power module 33, a processing module 32 and a motor driving circuit 34, the power module 33 converts the power supplied by the vehicle power supply to supply power to the braking system, the processing module 32 analyzes and calculates the control signal to generate a control command for the braking motor, and the motor driving circuit 34 drives the braking motor.
The vehicle-mounted power supply is the vehicle-mounted storage battery 1, as an on-board power supply and the power module is in power supply connection. The electric two-wheeled vehicle or the hybrid two-wheeled vehicle is provided with an on-vehicle storage battery. With reference to the prior art, the power module is used for managing power supply to power consuming mechanisms in a braking system, and mainly comprises a braking motor, a circuit on a motor control device and a sensor, and mainly comprises a protection circuit, a power converter and the like. The processing module can calculate the driving current provided for the braking motor according to the control signal, and outputs three-phase alternating current through the motor driving circuit.
Wherein the brake actuating mechanism is arranged on a front fork and a rear fork of the two-wheel vehicle, and the brake is usually a common caliper. The brake motor comprises a stator 42 and a motor shaft 47, the brake comprises a reduction gear assembly and a motion conversion assembly, the reduction gear assembly is driven by the brake motor, the reduction gear assembly transmits rotary motion to the motion conversion assembly, and the motion conversion assembly converts the rotary motion into linear motion. In addition, the reduction gear assembly may also be integrated with the brake motor.
In some embodiments, the reduction gear assembly comprises a secondary reduction gear assembly 48 and a planetary reduction assembly 49, wherein the secondary reduction gear assembly comprises a meshed first-stage pinion and a second-stage big gear, the first-stage pinion is fixed with a motor shaft of a brake motor, an output shaft of the second-stage big gear is connected with an input end of the planetary reduction assembly, and the motion conversion assembly is a ball screw assembly. The motor shaft 47, the reduction gear assembly 48, and the planetary gear assembly 49 are sequentially driven to transmit rotational motion to the ball screw 52. The brake motor receives the control signal to operate, and through transmission, the rotation of the motor shaft is converted into the movement of the nut 52A on the ball screw, so that the brake disc 53 is pushed to move, and the brake disc 60 on the front wheel hub is clamped or loosened. The first brake motor 40 is provided with an encoder 43 to detect the motor position, improving the control accuracy.
The driver gives a braking instruction by pinching the right brake handle, the wheels are provided with wheel speed sensors, and the vehicle body is provided with an inertial sensor or the like (not shown). The motor control device calculates the braking demand of the wheel according to the signal reflecting the reaction force of the first sensor on the braking handle or simultaneously combining the information such as the wheel speed, the inertia and the like, generates a control signal and supplies the electric energy of the power supply to the braking executing mechanism of the wheel.
It will be appreciated that a combination of brake pedal and right brake handle may also be employed as the steering unit, as well as a cable 26 connected by a left brake handle 25. Similarly, the hinge connection between the brake pedal and the pedal bracket, the angle between the brake pedal and the pedal bracket and the angle between the brake pedal and the pedal bracket are reduced after the brake pedal is controlled, and the hinge or the elastic piece is provided with a first force sensor for detecting the reaction force received by the brake pedal when the brake pedal is controlled, the first force sensor is electrically connected with the second motor control device, and the first force sensor transmits signals to the second motor control device.
While the invention has been described in terms of specific embodiments, it will be appreciated by those skilled in the art that the invention is not limited thereto but includes, but is not limited to, the drawings and the description of the specific embodiments. Any modifications which do not depart from the functional and structural principles of the invention are intended to be included within the scope of the appended claims.

Claims (10)

1.两轮车电子机械制动系统,其特征在于, 包括:1. A two-wheeled vehicle electromechanical braking system, characterized in that it comprises: 操控单元,所述操控单元为右制动手柄和左制动手柄其中之一、制动踏板,或其中一个制动手柄与制动踏板的组合,在被操控后,执行操控动作,并产生操控信号;The control unit is one of the right brake handle and the left brake handle, the brake pedal, or a combination of one of the brake handles and the brake pedal. After being controlled, the control unit performs the control action and generates the control signal. 主制动线路,所述主制动线路包括设于两轮车的前轮和后轮的制动执行机构,制动执行机构包括电机控制装置、制动电机和制动器,电机控制装置根据操控信号,产生对制动电机的控制信号,制动电机驱动制动器,实现制动或释放;The main braking circuit includes braking actuators located on the front and rear wheels of the two-wheeled vehicle. The braking actuators include a motor control device, a brake motor, and a brake. The motor control device generates a control signal for the brake motor based on the control signal, and the brake motor drives the brake to achieve braking or release. 副制动线路,所述副制动线路包括与另一制动手柄连接的拉索,另一制动手柄通过拉索输出拉力,操控后轮的制动执行机构;A secondary braking circuit includes a cable connected to another brake handle, which outputs tension through the cable to control the braking actuator of the rear wheels. 当主制动线路出现故障时,切换至副制动线路执行后轮制动。When the main braking circuit fails, the system switches to the auxiliary braking circuit to apply the rear wheel brakes. 2.根据权利要求1所述的两轮车电子机械制动系统,其特征在于,其中后轮的制动执行机构的电机控制装置设有监测主制动线路的主制动线路监测模块,并在监测到主制动线路出现故障时,切换至副制动线路执行后轮制动。2. The two-wheeled vehicle electromechanical braking system according to claim 1, characterized in that the motor control device of the rear wheel braking actuator is provided with a main braking circuit monitoring module for monitoring the main braking circuit, and when a fault is detected in the main braking circuit, it switches to the auxiliary braking circuit to perform rear wheel braking. 3.根据权利要求2所述的两轮车电子机械制动系统,其特征在于,所述副制动线路还包括与拉索连接的第二力传感器,第二力传感器连接后轮的制动执行机构的电机控制装置,当主制动线路监测模块监测到主制动线路出现故障时、且第二力传感器有输入信号时,切换至根据第二力传感器的信号,由副制动线路执行后轮制动。3. The two-wheeled vehicle electromechanical braking system according to claim 2, characterized in that the auxiliary braking circuit further includes a second force sensor connected to the cable, the second force sensor being connected to the motor control device of the rear wheel braking actuator, and when the main braking circuit monitoring module detects a fault in the main braking circuit and the second force sensor has an input signal, it switches to the auxiliary braking circuit to perform rear wheel braking according to the signal of the second force sensor. 4.根据权利要求1所述的两轮车电子机械制动系统,其特征在于,所述电机控制装置包括电源模块、处理模块和电机驱动电路,所述电源模块将车载电源供电进行转换,向制动系统供电,所述处理模块进行操控信号的分析和计算,以产生对制动电机的控制指令,并通过电机驱动电路驱动制动电机。4. The two-wheeled vehicle electromechanical braking system according to claim 1, characterized in that the motor control device includes a power supply module, a processing module and a motor drive circuit, the power supply module converts the on-board power supply to supply power to the braking system, the processing module analyzes and calculates the control signals to generate control commands for the brake motor, and drives the brake motor through the motor drive circuit. 5.根据权利要求1所述的两轮车电子机械制动系统,其特征在于,制动手柄与摩托车把手铰链连接,制动手柄与摩托车把手之间存在角度且制动手柄被操控后角度减小,制动手柄连接有在被操控后复位的弹性件,铰链上或者弹性件上设置第一力传感器,用于检测制动手柄被操控时受到的反作用力,第一力传感器将信号传递给电机控制装置。5. The two-wheeled vehicle electromechanical braking system according to claim 1, characterized in that the brake handle is hinged to the motorcycle handlebars, there is an angle between the brake handle and the motorcycle handlebars and the angle decreases after the brake handle is operated, the brake handle is connected to an elastic element that resets after being operated, a first force sensor is provided on the hinge or the elastic element to detect the reaction force received by the brake handle when it is operated, and the first force sensor transmits the signal to the motor control device. 6.根据权利要求1所述的两轮车电子机械制动系统,其特征在于,制动踏板与踏板支架之间铰链连接,制动踏板与踏板支架之间存在角度且制动踏板被操控后角度减小,制动踏板连接有在被操控后复位的弹性件,铰链上或者弹性件上设置第一力传感器,用于检测制动踏板被操控时受到的反作用力,第一力传感器将信号传递给电机控制装置。6. The two-wheeled vehicle electromechanical braking system according to claim 1, characterized in that the brake pedal and the pedal bracket are hinged, there is an angle between the brake pedal and the pedal bracket and the angle decreases after the brake pedal is operated, the brake pedal is connected to an elastic element that resets after being operated, a first force sensor is provided on the hinge or the elastic element for detecting the reaction force received by the brake pedal when it is operated, and the first force sensor transmits the signal to the motor control device. 7.根据权利要求1所述的两轮车电子机械制动系统,其特征在于,所述制动器包括减速齿轮组件、运动转换组件,所述制动电机驱动所述减速齿轮组件,所述减速齿轮组件向所述运动转换组件传递旋转运动,由所述运动转换组件将旋转运动转换为直线运动。7. The two-wheeled vehicle electromechanical braking system according to claim 1, characterized in that the brake includes a reduction gear assembly and a motion conversion assembly, the brake motor drives the reduction gear assembly, the reduction gear assembly transmits rotational motion to the motion conversion assembly, and the motion conversion assembly converts the rotational motion into linear motion. 8.根据权利要求7所述的两轮车电子机械制动系统,其特征在于,所述减速齿轮组件包括二级减速齿轮组件和行星减速组件,其中二级减速齿轮组件包括啮合的第一级小齿轮和第二级大齿轮,第一级小齿轮与制动电机的电机轴固定,第二级大齿轮的输出轴与行星减速组件的输入端连接;和/或,所述运动转换组件为滚珠丝杠组件。8. The two-wheeled vehicle electromechanical braking system according to claim 7, characterized in that the reduction gear assembly includes a two-stage reduction gear assembly and a planetary reduction assembly, wherein the two-stage reduction gear assembly includes a meshing first-stage pinion and a second-stage large gear, the first-stage pinion is fixed to the motor shaft of the brake motor, and the output shaft of the second-stage large gear is connected to the input end of the planetary reduction assembly; and/or, the motion conversion assembly is a ball screw assembly. 9.一种两轮车,其特征在于,包括权利要求1至8中任意一项所述的电子机械制动系统。9. A two-wheeled vehicle, characterized in that it includes the electromechanical braking system according to any one of claims 1 to 8. 10.根据权利要求9所述的两轮车,其特征在于,其中车轮设有轮速传感器,车身设有惯性传感器。10. The two-wheeled vehicle according to claim 9, wherein the wheels are equipped with wheel speed sensors and the vehicle body is equipped with inertial sensors.
CN202511651705.4A 2025-11-12 2025-11-12 Two-wheeled vehicles and their electromechanical braking systems Pending CN121201004A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202511651705.4A CN121201004A (en) 2025-11-12 2025-11-12 Two-wheeled vehicles and their electromechanical braking systems

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202511651705.4A CN121201004A (en) 2025-11-12 2025-11-12 Two-wheeled vehicles and their electromechanical braking systems

Publications (1)

Publication Number Publication Date
CN121201004A true CN121201004A (en) 2025-12-26

Family

ID=98112550

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202511651705.4A Pending CN121201004A (en) 2025-11-12 2025-11-12 Two-wheeled vehicles and their electromechanical braking systems

Country Status (1)

Country Link
CN (1) CN121201004A (en)

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