Hybrid all-terrain vehicle
Through the gear transmission and multiple drive modes of the hybrid system, all-terrain vehicles have solved the problems of low transmission efficiency and range anxiety, achieving high power performance and fuel economy, and reducing maintenance costs.
Patent Information
- Application Number
- CN202423297929.3
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-31
- Publication Date
- 2025-11-28
- Estimated Expiration
- 2034-12-31
AI Technical Summary
Existing all-terrain vehicles have low transmission efficiency in their fuel-powered systems, resulting in high fuel consumption and insufficient power. Furthermore, pure electric vehicles face range anxiety in off-road environments, and there is a lack of charging infrastructure and limited battery performance.
The system employs a hybrid system, including an engine, a generator, and a drive motor. It replaces the CVT with gear transmission to achieve multiple driving modes such as pure electric drive, engine hybrid, and series range extender. Combined with spiral bevel gears and a differential, it optimizes power transmission.
It improves power performance and fuel economy, reduces maintenance costs, enhances battery range, reduces range anxiety in the wild, and improves the overall driving efficiency and user experience of the vehicle.
Smart Images

Figure CN223605459U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to all terrain vehicle power technical field especially relates to a hybrid all terrain vehicle. BACKGROUND
[0002] At present, all terrain vehicles on the market are all fuel power, most of the vehicles adopt the belt CVT stepless speed change system, the transmission system has the shortcoming of low transmission efficiency, the heat energy generated raises the CVT box temperature, causes the belt to work in a high temperature environment, causes the belt to break easily, and regular maintenance is needed, increases the maintenance cost;
[0003] The all terrain vehicle (ATV / UTV) uses the special environment, usually drives in the open country, desert, snowfield and other complex road conditions, the engine start-stop variable speed working condition accounts for a large proportion, in some bad road surface or escape environment, the torque requirement in the low speed region of the engine is higher, therefore, it is difficult to consider the power performance and fuel economy of each working condition on the vehicle driven by the fuel power engine, in the prior art, since the power source is a gasoline engine, and the transmission efficiency of the CVT structure is low, the current fuel power all terrain vehicle has the defects of high fuel consumption and insufficient power in some specific working conditions.
[0004] With the progress of science and technology, the driving mode of the all terrain vehicle gradually develops from fuel driving to hybrid and pure electric driving, but the pure electric vehicle has the obvious defects such as lack of charging facilities in the wild, long charging time, short endurance mileage and the like. Especially in the harsh high and low temperature environment in the wild, the complex terrain road conditions and other unfavorable factors, the battery system performance and collision safety exist certain challenges; the hybrid system plays the advantages of low speed large torque of the motor and high speed efficiency of the engine, can make the driving efficiency of the all terrain vehicle higher, the power performance better, at the same time, the requirements of the battery performance, capacity, cost and weight are reduced, the endurance anxiety is less in the wild off-road, the experience is better.
[0005] To solve the above problems, a hybrid all terrain vehicle is provided in the application. Utility model content
[0006] (I) utility model purpose
[0007] To solve at least one technical problem in the background art, the utility model provides a hybrid all terrain vehicle.
[0008] (II) technical scheme
[0009] To solve the above problems, the utility model provides a kind of hybrid all-terrain vehicle, including engine, generator, drive motor, engine input shaft gear, engine connecting shaft gear, clutch, drive input shaft gear, drive output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, rear axle power output shaft, front drive axle and rear drive axle;The crankshaft of the engine is connected with generator, and the other side of crankshaft is engaged with engine connecting shaft gear by engine input shaft gear, and engine connecting shaft gear is connected with clutch one end, and the other end of clutch is connected with drive input shaft gear, and drive input shaft gear is connected with drive motor power, and drive motor is engaged with drive input shaft gear by drive output shaft gear, and drive output shaft gear is coaxially arranged with driving spiral bevel gear, and driving spiral bevel gear is engaged with driven spiral bevel gear, and front axle power output shaft and rear axle power output shaft are all transmission connection with driven spiral bevel gear, to transmit power to front drive axle and rear drive axle;Clutch is embedded clutch, and is embedded in the rotor of drive motor.
[0010] The utility model provides a kind of hybrid all-terrain vehicle, including engine, generator, drive motor, engine input shaft gear, engine connecting shaft gear, clutch, drive input shaft gear, drive output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, rear axle power output shaft, front drive axle and rear drive axle;
[0011] Generator is directly connected with engine, and clutch is embedded in the rotor inside generator, and engine input shaft gear is connected with clutch, and engine input shaft gear is engaged with engine connecting shaft gear, and drive input shaft gear is connected with drive motor power, and drive motor is engaged with drive input shaft gear by drive output shaft gear, and drive output shaft gear is coaxially arranged with driving spiral bevel gear, and driving spiral bevel gear is engaged with driven spiral bevel gear, and front axle power output shaft and rear axle power output shaft are all transmission connection with driven spiral bevel gear, to transmit power to front drive axle and rear drive axle.
[0012] The utility model provides a kind of hybrid all-terrain vehicle, including engine, generator, drive motor, engine input shaft gear, engine connecting shaft gear, clutch, drive input shaft gear, drive output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, rear axle power output shaft, front drive axle and rear drive axle;
[0013] The engine crankshaft is directly connected with an engine input shaft gear, the engine input shaft gear is engaged with an engine connecting shaft gear, the engine connecting shaft gear is connected with a driving input shaft gear, the driving input shaft gear is connected with a driving motor, the driving motor is engaged with a driving output shaft gear through a driving input shaft gear, the driving output shaft gear is coaxially arranged with a driving spiral bevel gear, the driving spiral bevel gear is engaged with a driven spiral bevel gear, and the front axle power output shaft and the rear axle power output shaft are both connected with the driven spiral bevel gear, so that power is transmitted to the front drive axle and the rear drive axle.
[0014] The utility model provides a kind of hybrid full terrain vehicle, including engine, generator, driving motor, engine input shaft gear, engine connecting shaft gear, clutch, driving input shaft gear, driving output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, rear axle power output shaft, front drive axle and rear drive axle;
[0015] The engine crankshaft is directly connected with an engine input shaft gear, the engine input shaft gear is engaged with an engine connecting shaft gear, the engine connecting shaft gear is connected with a driving input shaft gear, the driving input shaft gear is connected with a driving motor, the driving motor is engaged with a driving output shaft gear through a driving input shaft gear, the driving output shaft gear is coaxially arranged with a driving spiral bevel gear, the driving spiral bevel gear is engaged with a driven spiral bevel gear, and the front axle power output shaft and the rear axle power output shaft are both connected with the driven spiral bevel gear, so that power is transmitted to the front drive axle and the rear drive axle.
[0016] The utility model provides a kind of hybrid full terrain vehicle, including engine, generator, driving motor, engine input shaft gear, engine connecting shaft gear, clutch, driving input shaft gear, driving output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, front drive axle, differential, first half shaft and second half shaft;
[0017] The engine crankshaft is directly connected with an engine input shaft gear, the engine input shaft gear is engaged with an engine connecting shaft gear, the engine connecting shaft gear is connected with a driving input shaft gear, the driving input shaft gear is connected with a driving motor, the driving motor is engaged with a driving output shaft gear through a driving input shaft gear, the driving output shaft gear is coaxially arranged with a driving spiral bevel gear, the driving spiral bevel gear is engaged with a driven spiral bevel gear, and the front axle power output shaft and the rear axle power output shaft are both connected with the driven spiral bevel gear, so that power is transmitted to the front drive axle and the rear drive axle.
[0018] The utility model provides a kind of hybrid full terrain vehicle, including engine, generator, drive motor, engine input shaft gear, engine connecting shaft gear, clutch, drive input shaft gear, drive output shaft gear, driving spiral bevel gear, driven spiral bevel gear, front axle power output shaft, front drive axle, differential, first half shaft and second half shaft;
[0019] Engine output connects generator, generator output connects clutch one end, clutch other end connects engine input shaft gear, drive motor output shaft is commonly connected to engine connecting shaft gear, engine input shaft gear is engaged with engine connecting shaft gear, engine connecting shaft gear is coaxially connected with drive input shaft gear, drive input shaft gear is engaged with drive output shaft gear, the drive output shaft gear is coaxially arranged with driving spiral bevel gear, driving spiral bevel gear is engaged with driven spiral bevel gear, front axle power output shaft is transmission connected with driven spiral bevel gear, to transmit power to front drive axle;The output end of driving spiral bevel gear is transmission connected with differential through gear transmission, and the differential is provided with first half shaft and second half shaft respectively on both sides.
[0020] The above technical scheme of the utility model has the following beneficial technical effects:
[0021] The utility model can realize pure electric drive, engine hybrid, series range extension and various driving modes, improve the whole vehicle power performance and fuel economy, save the maintenance cost of CVT belt replacement, improve the power system reliability and transmission efficiency, reduce the requirement of battery performance, capacity, cost and weight, have no endurance anxiety in field cross-country, and experience is better. BRIEF DESCRIPTION OF DRAWINGS
[0022] Figure 1 It is the structure schematic diagram of embodiment one in the utility model;
[0023] Figure 2 It is the structure schematic diagram of embodiment two in the utility model;
[0024] Figure 3 It is the structure schematic diagram of embodiment three in the utility model;
[0025] Figure 4 It is the structure schematic diagram of embodiment four in the utility model;
[0026] Figure 5 It is the structure schematic diagram of embodiment five in the utility model;
[0027] Figure 6 It is the structure schematic diagram of embodiment six in the utility model.
[0028] In the drawing:
[0029] 1. Engine; 2. Generator; 3. Drive motor; 4. Engine input shaft gear; 5. Engine connecting shaft gear; 6. Clutch; 7. Drive input shaft gear; 8. Drive output shaft gear; 9. Driving spiral bevel gear; 10. Driven spiral bevel gear; 11. Front axle power take-off shaft; 12. Rear axle power take-off shaft; 13. Front drive axle; 14. Rear drive axle; 15. Differential; 16. First half-shaft; 17. Second half-shaft. Detailed Implementation
[0030] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings. It should be understood that these descriptions are merely exemplary and not intended to limit the scope of this utility model. Furthermore, descriptions of well-known structures and technologies are omitted in the following description to avoid unnecessarily obscuring the concept of this utility model.
[0031] Example 1:
[0032] like Figure 1 As shown, the system includes an engine 1, a generator 2, a drive motor 3, an engine input shaft gear 4, an engine connecting shaft gear 5, a clutch 6, a drive input shaft gear 7, a drive output shaft gear 8, a driving spiral bevel gear 9, a driven spiral bevel gear 10, a front axle power output shaft 11, a rear axle power output shaft 12, a front drive axle 13, and a rear drive axle 14. The crankshaft of the engine 1 is connected to the generator 2. The other side of the crankshaft meshes with the engine connecting shaft gear 5 through the engine input shaft gear 4. The engine connecting shaft gear 5 is connected to one end of the clutch 6, and the other end of the clutch 6 is connected to the drive input shaft gear 7. The drive input shaft gear 7 is poweredly connected to the drive motor 3. The drive motor 3 meshes with the drive input shaft gear 7 through the drive output shaft gear 8. The drive output shaft gear 8 is coaxially arranged with the driving spiral bevel gear 9. The driving spiral bevel gear 9 meshes with the driven spiral bevel gear 10. The front axle power output shaft 11 and the rear axle power output shaft 12 are both connected to the driven spiral bevel gear 10 to transmit power to the front drive axle 13 and the rear drive axle 14.
[0033] The hybrid scheme arrangement cancels the traditional CVT transmission, adopts gear transmission, improves transmission efficiency and reliability, saves maintenance cost, the crankshaft of the engine 1 is connected with the generator 2, the other side of the crankshaft is connected with the input gear, and the input gear is connected with the built-in clutch in the driving motor 3 through gear transmission, the clutch is used as the engine intervention power transmission and disconnection. Since the ATV axial space requirement is shorter, the engine 1 and the driving motor 3 are arranged in parallel, the clutch 6 is built in the rotor of the driving motor 3, and the axial space is further reduced; since the all-terrain vehicle has high power requirement, four-wheel drive is usually adopted, the output end of the hybrid system adopts the spiral bevel gear, the power is output to the front and rear drive axles to realize the four-wheel drive function; the specific power mode is as follows:
[0034] Pure electric drive: the clutch 6 is disconnected, the engine 1 and the generator 2 are not started, the power is taken from the vehicle power battery, the driving motor 3 drives the gear pair to transmit the power to the driving spiral bevel gear 9 to drive the driven spiral bevel gear 10, and the driving force is transmitted to the front drive axle 13 and the rear drive axle 14 through the front axle power output shaft 11 and the rear axle power output shaft 12; the front axle power output shaft 11 and the rear axle power output shaft 12 are in transmission connection with the driven spiral bevel gear 10; since the motor has the characteristics of low speed and large torque, the low speed and large torque climbing in the all-terrain vehicle can be realized; the engine running time is reduced, and the fuel consumption is saved;
[0035] Engine series range increasing mode: the clutch 6 is disconnected, the generator 2 starts the engine 1 to run, the engine 1 is started to stably generate power, and the electric energy generated by the generator 2 is directly provided for the driving motor 3 to reduce the power consumption of the power battery, while meeting the power demand of the driving motor 3, the excess electric energy can be charged into the power battery; this working condition is mostly light load operation; since the ATV all-terrain vehicle itself requires a lightweight vehicle body, the complex working conditions of off-road and jumping require high performance and capacity of the battery, and the charging facilities are not complete in the wild, so the range increasing power generation function is provided, the capacity requirement of the power battery is further reduced, and a small capacity battery can be adopted, which is systematic optimization for the lightweight, safety and cost of the whole vehicle;
[0036] Engine parallel drive mode: the clutch 6 is combined, the engine 1 is started, the engine power and the driving motor 3 power are connected in parallel to drive the output shaft, and the power is transmitted to the front and rear drive axles; this mode is usually high-power output; when the vehicle speed reaches medium and high speed, the torque output of the driving motor 3 is controlled to maintain the engine power direct drive as much as possible, the engine is in high efficient drive at this time, the high speed electric energy consumption of the driving motor 3 is reduced, and the surplus power of the engine can also make the generator 1 generate power to charge the battery to supplement the power of the battery;
[0037] Parking power generation mode: clutch 6 is disconnected, drive motor 3 stops working, engine 1 drives generator 2 to generate electricity to charge power battery; due to the lack of charging facilities in the wild, the charging time is long, and the pure electric charging is more inconvenient; the hybrid system can realize parking power generation, greatly make up for the pain point of off-road vehicle power supply in the wild, and also increase the experience
[0038] Escape or limit mode: when complex extreme road conditions appear in the wild and need to escape, the generator 2 can be used as a drive motor for a short time, when the power battery power meets the power output, the engine 1 and the generator 2 and the drive motor 3 can realize three power parallel driving for a short time, the maximum power of the system is output to the front and rear axle wheels, and the vehicle limit off-road or escape is realized;
[0039] Brake energy recovery: when the vehicle decelerates, the drive motor 3 is controlled by negative torque and enters the power generation mode, directly recovers and converts the vehicle kinetic energy into electric energy to recharge the power battery, realizing brake energy recovery;
[0040] Example two:
[0041] As shown in the accompanying Figure 2 For the single-sided output of the all-terrain vehicle engine, the generator 2 and the clutch 6, the engine input shaft gear 4 are arranged at the original CVT position; the generator 2 is directly connected with the engine 1, the clutch 6 is embedded in the rotor of the generator 2, the rotor of the generator 2 is connected with one end of the clutch 6, and the engine input shaft gear 4 is connected with the other end of the clutch 6;
[0042] Its advantages are that the engine is less changed, the output space of the original CVT gearbox is borrowed, the generator 2 and the clutch 6 are integrated, the spline shaft structure is arranged on the same side, which is more compact, and the lubrication structure and method are more convenient; the power mode is similar to that of example one;
[0043] Example three:
[0044] As shown in the accompanying Figure 3 For the straddle ATV all-terrain vehicle, the vehicle body is narrow, and the axial distance requirement of the engine is shorter, so the structure is more suitable for the arrangement of the extremely short axial output requirement; the engine 1 crankshaft is directly connected with the engine input shaft gear 4, the engine connecting shaft gear 5 is connected with the generator 2, the generator 2 is connected with one end of the clutch 6, the other end of the clutch 6 is connected with the drive input shaft gear 7, the drive input shaft 7 is connected with the drive motor 3, and the power is output to the front drive axle 13 and the rear drive axle 14 through the power output shaft gear 8, the driving helical bevel gear 9 and the driven helical bevel gear 10;
[0045] The advantages are that the engine does not need to be modified, the original crankshaft power output structure is connected with the hybrid system, and the power is transmitted through the gear instead of the CVT belt or steel belt; at the same time, the double motors are coaxial and arranged in parallel with the engine, which further optimizes the axial space and engine modification, has wider adaptability, and has higher efficiency and reliability compared with the CVT transmission.
[0046] Example Four
[0047] As shown in the accompanying Figure 4 For a wider all-terrain vehicle, the drive motor 3 can also be coaxially arranged with the engine 1; one end of the engine 1 crankshaft is connected with the generator 2, the other end of the engine crankshaft is connected with one side of the clutch 6, the other side of the clutch 6 is connected with the drive motor 3, and the power is output to the front and rear drive axles through the gear pair transmission;
[0048] The advantages are that the structure adopts coaxial arrangement of double motors and engine, has high integration, independent transmission system, occupies smaller X-direction size of the whole vehicle, and is more convenient for arranging the power battery for the hybrid vehicle;
[0049] The above implementation schemes are mainly used for straddle-type ATV hybrid vehicles, which are small and light in weight, and the engine usually adopts a 500cc / 1000cc single-cylinder or two-cylinder engine, the power system adopts an engine-centered four-wheel drive and front and rear drive axle structure, and is suitable for straddle-type vehicles with short axial distance.
[0050] For the wider all-terrain vehicle UTV and SSV side-by-side vehicle body, the power system usually adopts an engine-rear four-wheel drive structure, and for such UTV and SSV all-terrain vehicles, the power system is similar to the traditional automobile structure, the hybrid system will adopt an integrated differential and divider, the rear drive axle 14 and the rear axle power output shaft 12 are cancelled, the rear wheels adopt a half shaft output mode, the differential and the divider are integrated in the hybrid box, the power is output to the front drive axle through the spiral bevel gear, and the four-wheel drive function is realized, the structure is further highly integrated, the power system structure is more compact, the size and weight are small, and the procurement cost and weight of the rear drive axle are reduced, and the specific implementation is as follows:
[0051] Example Five
[0052] As shown in the accompanying Figure 5As shown, the output of engine 1 is connected to one end of clutch 6, and the other end of clutch 6 is connected to drive motor 3. Clutch 6 can be embedded in the rotor of drive motor 3, which can reduce the axial size. The crankshaft on the other side of engine 1 is connected to generator 2. Engine input shaft gear 4 and engine connecting shaft gear 5 are connected to drive motor 3 output shaft. Drive input shaft gear 7 is connected to drive motor 3 connecting shaft gear 5. Drive output shaft gear 8 transmits power to main differential gear 15, which is then transmitted to the rear wheels through left and right half shafts 16 and 17. At the same time, drive spiral bevel gear 9 is connected to drive output shaft gear 8. Power is transmitted through drive spiral bevel gear 9 to driven spiral bevel gear 10 and front axle power output shaft 11 to drive front drive axle 13 to drive the front wheels, realizing four-wheel drive function.
[0053] Its advantages are: the hybrid structure adopts a rear-mounted four-wheel drive, which is highly integrated with the rear drive axle differential and transfer case, resulting in fewer parts and reduced overall vehicle cost. At the same time, the rear wheels directly drive the wheels through the half-shaft, resulting in higher transmission efficiency and improved drive and braking energy recovery efficiency of the power system. The hybrid powertrain is smaller and lighter, which facilitates vehicle layout and achieves overall vehicle lightweighting.
[0054] Example 6:
[0055] As attached Figure 6 As shown, the output of engine 1 is connected to generator 2, the output of generator 2 is connected to one end of clutch 6, the other end of clutch 6 is connected to engine input shaft gear 4, and together with the output shaft of drive motor 3, it is connected to engine connecting shaft gear 5. By closing and opening clutch 6, pure electric drive of drive motor 3, series range extension, and parallel power output of engine 1 and drive motor 3 to front and rear wheels can be realized.
[0056] Its advantages are as follows: In this hybrid structure, the drive motor 3, engine 1, and generator 2 are arranged in parallel shafts, which shortens the axial space and makes the drive motor arrangement more flexible. It is suitable for models with requirements for axial space. The clutch 6 can be embedded in the rotor of generator 2, which further shortens the axial space. Its position is the original engine output CVT transmission space position, and the original engine output structure can be used. There is no need to modify the dual output of the engine crankshaft. The arrangement can be achieved with minimal changes to the whole vehicle and power system.
[0057] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.
Claims
1. A hybrid ATV, characterized in that The utility model relates to an engine (1), generator (2), drive motor (3), engine input shaft gear (4), engine connecting axle gear (5), clutch (6), drive input shaft gear (7), drive output shaft gear (8), driving spiral bevel gear (9), driven spiral bevel gear (10), front axle power output shaft (11), rear axle power output shaft (12), front drive axle (13) and rear drive axle (14) are included, the crankshaft of engine (1) is connected with generator (2), and the other side passes through engine input shaft gear (4) and is engaged with engine connecting axle gear (5), and engine connecting axle gear (5) is connected with clutch (6) one end, and clutch (6) other end is connected with drive input shaft gear (7), and drive input shaft gear (7) is connected with drive motor (3) power, and drive motor (3) is engaged with drive input shaft gear (7) through drive output shaft gear (8), and drive output shaft gear (8) is coaxial with driving spiral bevel gear (9) and is arranged, and driving spiral bevel gear (9) is engaged with driven spiral bevel gear (10), and front axle power output shaft (11) and rear axle power output shaft (12) are all transmission connection with driven spiral bevel gear (10) to transmit power to front drive axle (13) and rear drive axle (14), and clutch (6) is the inner embedded clutch, and is embedded in the rotor of drive motor (3).
2. A hybrid ATV, characterized in that The utility model relates to an engine (1), generator (2), drive motor (3), engine input shaft gear (4), engine connecting axle gear (5), clutch (6), drive input shaft gear (7), drive output shaft gear (8), driving spiral bevel gear (9), driven spiral bevel gear (10), front axle power output shaft (11), rear axle power output shaft (12), front drive axle (13) and rear drive axle (14) are included, Generator (2) is connected directly with engine (1), and clutch (6) is embedded in the rotor inside generator (2), and engine input shaft gear (4) is connected with clutch (6), and engine input shaft gear (4) is engaged with engine connecting axle gear (5), and drive input shaft gear (7) is connected with drive motor (3) power, and drive motor (3) is engaged with drive input shaft gear (7) through drive output shaft gear (8), and drive output shaft gear (8) is coaxial with driving spiral bevel gear (9) and is arranged, and driving spiral bevel gear (9) is engaged with driven spiral bevel gear (10), and front axle power output shaft (11) and rear axle power output shaft (12) are all transmission connection with driven spiral bevel gear (10) to transmit power to front drive axle (13) and rear drive axle (14).
3. A hybrid ATV, characterized in that The utility model relates to an engine (1), generator (2), drive motor (3), engine input shaft gear (4), engine connecting axle gear (5), clutch (6), drive input shaft gear (7), drive output shaft gear (8), driving spiral bevel gear (9), driven spiral bevel gear (10), front axle power output shaft (11), rear axle power output shaft (12), front drive axle (13) and rear drive axle (14) are included, The engine (1) is directly connected with the engine input shaft gear (4), the engine input shaft gear (4) is engaged with the engine connecting shaft gear (5), the engine connecting shaft gear (5) is connected with the generator (2), the generator (2) is connected with one end of the clutch (6), the other end of the clutch (6) is connected with the driving input shaft gear (7), the driving input shaft gear (7) is connected with the driving motor (3), the driving motor (3) is engaged with the driving output shaft gear (8) through the driving input shaft gear (7), the driving output shaft gear (8) is coaxially arranged with the driving bevel gear (9), the driving bevel gear (9) is engaged with the driven bevel gear (10), and the front axle power output shaft (11) and the rear axle power output shaft (12) are both connected with the driven bevel gear (10) in a transmission mode, so as to transmit power to the front drive axle (13) and the rear drive axle (14).
4. A hybrid ATV, characterized in that The engine (1), the generator (2), the driving motor (3), the engine input shaft gear (4), the engine connecting shaft gear (5), the clutch (6), the driving input shaft gear (7), the driving output shaft gear (8), the driving bevel gear (9), the driven bevel gear (10), the front axle power output shaft (11), the rear axle power output shaft (12), the front drive axle (13) and the rear drive axle (14) are included. The engine (1) is connected with the generator (2) at one end, and connected with one side of the clutch (6) at the other end; the other side of the clutch (6) is connected with the driving motor (3); the engine input shaft gear (4) is engaged with the engine connecting shaft gear (5), the engine connecting shaft gear (5) is coaxially connected with the driving input shaft gear (7), the driving input shaft gear (7) is engaged with the driving output shaft gear (8), the driving output shaft gear (8) is coaxially arranged with the driving bevel gear (9), the driving bevel gear (9) is engaged with the driven bevel gear (10), and the front axle power output shaft (11) and the rear axle power output shaft (12) are both connected with the driven bevel gear (10) in a transmission mode, so as to transmit power to the front drive axle (13) and the rear drive axle (14).
5. A hybrid ATV, characterized in that The engine (1), the generator (2), the driving motor (3), the engine input shaft gear (4), the engine connecting shaft gear (5), the clutch (6), the driving input shaft gear (7), the driving output shaft gear (8), the driving bevel gear (9), the driven bevel gear (10), the front axle power output shaft (11), the front drive axle (13), the differential (15), the first half shaft (16) and the second half shaft (17) are included. The engine (1) is connected with the generator (2) at one end of the crankshaft, and is connected with the clutch (6) at the other end. The clutch (6) is connected with the driving motor (3) at the other end. The clutch (6) is connected with the engine input shaft gear (4) at the other end. The engine input shaft gear (4) is engaged with the engine connecting shaft gear (5). The engine connecting shaft gear (5) is coaxially connected with the driving input shaft gear (7). The driving input shaft gear (7) is engaged with the driving output shaft gear (8). The driving output shaft gear (8) is coaxially arranged with the driving spiral bevel gear (9). The driving spiral bevel gear (9) is engaged with the driven spiral bevel gear (10). The front axle power output shaft (11) is drivingly connected with the driven spiral bevel gear (10) to transmit power to the front drive axle (13). The output end of the driving spiral bevel gear (9) is drivingly connected with the differential (15) through gear transmission. The differential (15) is provided with the first half shaft (16) and the second half shaft (17) at the two sides respectively.
6. A hybrid ATV, characterized in that The engine (1), the generator (2), the driving motor (3), the engine input shaft gear (4), the engine connecting shaft gear (5), the clutch (6), the driving input shaft gear (7), the driving output shaft gear (8), the driving spiral bevel gear (9), the driven spiral bevel gear (10), the front axle power output shaft (11), the front drive axle (13), the differential (15), the first half shaft (16) and the second half shaft (17) are included. The engine (1) is connected with the generator (2). The generator (2) is connected with one end of the clutch (6). The other end of the clutch (6) is connected with the engine input shaft gear (4). The output shafts of the driving motor (3) are jointly connected with the engine connecting shaft gear (5). The engine input shaft gear (4) is engaged with the engine connecting shaft gear (5). The engine connecting shaft gear (5) is coaxially connected with the driving input shaft gear (7). The driving input shaft gear (7) is engaged with the driving output shaft gear (8). The driving output shaft gear (8) is coaxially arranged with the driving spiral bevel gear (9). The driving spiral bevel gear (9) is engaged with the driven spiral bevel gear (10). The front axle power output shaft (11) is drivingly connected with the driven spiral bevel gear (10) to transmit power to the front drive axle (13). The output end of the driving spiral bevel gear (9) is drivingly connected with the differential (15) through gear transmission. The differential (15) is provided with the first half shaft (16) and the second half shaft (17) at the two sides respectively.
Citation Information
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