Disclosure of Invention
The utility model discloses demand and weak point to the present technical development provide an electric drive system of amphibious passenger train, can solve the problem that amphibious passenger train is big to fuel consumption, can solve the problem of the unable fast switch over mode of traveling of amphibious passenger train.
The utility model discloses an electric drive system of amphibious passenger train solves the technical scheme that above-mentioned technical problem adopted as follows:
an electric drive system of an amphibious passenger car is based on a gear shifting assembly, a vehicle control system, a vehicle-mounted display screen, a front wheel drive axle, a rear wheel drive axle and a marine propulsion device of the amphibious passenger car, and comprises a power supply part and a drive part;
the power supply part adopts a storage battery pack;
the driving part comprises a motor, a gearbox and a transfer case which are connected in sequence, the transfer case is provided with a first output shaft, a second output shaft and a third output shaft, the first output shaft of the transfer case is connected with the power input end of a front wheel driving axle of the amphibious passenger car through a first electromagnetic clutch, the second output shaft of the transfer case is connected with the power input end of a rear wheel driving axle of the amphibious passenger car through a second electromagnetic clutch, and the third output shaft of the transfer case is connected with the power input end of a marine propulsion device through a third electromagnetic clutch;
on one hand, the vehicle control system receives an output signal of the gear shifting assembly, on the other hand, a running mode of the amphibious passenger car is selected through the vehicle-mounted display screen, and the vehicle control system controls the first electromagnetic clutch and the second electromagnetic clutch to be in a closed state or controls the third electromagnetic clutch to be in a closed state according to the running mode.
Specifically, the power supply part comprises a storage battery information collector, and the storage battery information collector is used for collecting voltage and current parameters of each storage battery in real time, transmitting the voltage and current parameters to a vehicle control system and finally displaying the voltage and current parameters on a vehicle-mounted interface of the vehicle control system.
More specifically, the power supply part further comprises a storage battery fault diagnosis instrument, wherein the storage battery fault diagnosis instrument is used for monitoring the service condition of each storage battery in real time and transmitting the service condition to the vehicle control system, and the vehicle control system predicts the service performance of the storage battery according to the parameter information and the monitoring data.
More specifically, the power supply section of the present invention further includes a temperature sensor for detecting a temperature of a single secondary battery, and a temperature controller for current-limiting control of input or output of the secondary battery when a detection result of the temperature sensor exceeds a threshold value.
In particular, the running modes of the amphibious coach comprise an on-water running mode and a land running mode;
when the amphibious coach is started, the motor works, the overwater running mode of the amphibious coach is selected through the vehicle-mounted display screen, the electromagnetic clutch III connected with the overwater propulsion device receives a closing electric signal, and the output shaft III of the transfer case drives the overwater propulsion device to enter a working state under the action of the motor;
when the amphibious passenger car is started, the motor works, the land running mode of the amphibious passenger car is selected through the vehicle-mounted display screen, the first electromagnetic clutch and the second electromagnetic clutch receive closing electric signals at the same time, and under the action of the motor, the first output shaft and the second output shaft of the transfer case drive the front wheel drive axle and the rear wheel drive axle to enter a working state.
The utility model discloses an electric drive system of amphibious passenger train compares the beneficial effect who has with prior art and is:
(1) the utility model has simple structure, low cost, light weight, no influence on the running stability of the amphibious passenger car, can solve the problem of large fuel consumption of the amphibious passenger car, can solve the problem of large overall mass of the amphibious passenger car, and has the advantages of energy saving and environmental protection;
(2) the utility model discloses a drive division is provided power by a motor, by the different power end of gear box output to adopt electric signal control, under electromagnetic clutch's effect, realize the switching between the different traveling mode of amphibious passenger train.
Detailed Description
For making the technical scheme, the technical problem and the technological effect of solution of the utility model more clearly understand, combine specific embodiment below, it is right to the technical scheme of the utility model clear, complete description.
The first embodiment is as follows:
with reference to fig. 1, the present embodiment provides an electric drive system for a amphibious passenger vehicle, which includes a power supply portion and a drive portion.
The implementation of this embodiment relates to the gear shift assembly, vehicle control system, on-board display screen, front wheel drive axle 10, rear wheel drive axle 6, marine propulsion means 8 of an amphibious passenger vehicle.
The power supply part adopts a storage battery pack 1.
With reference to fig. 1, 2 and 3, the driving part comprises a motor 2, a gearbox 3 and a transfer case 4 which are connected in sequence, the transfer case 4 is provided with a first output shaft 9, a second output shaft 5 and a third output shaft 7, the first output shaft 9 of the transfer case 4 is connected with a power input end a of a front wheel driving axle 10 of the amphibious passenger car through a first electromagnetic clutch 11, the second output shaft 5 of the transfer case 4 is connected with a power input end b of a rear wheel driving axle 6 of the amphibious passenger car through a second electromagnetic clutch 12, and the third output shaft 7 of the transfer case 4 is connected with a power input end c of an aquatic propulsion device 8 through a third electromagnetic clutch 13.
On one hand, the vehicle control system receives an output signal of the gear shifting assembly, on the other hand, a running mode of the amphibious passenger car is selected through the vehicle-mounted display screen, and the vehicle control system controls the first electromagnetic clutch 11 and the second electromagnetic clutch 12 to be in a closed state or controls the third electromagnetic clutch 13 to be in a closed state according to the running mode.
With reference to fig. 2, 3 and 4, in the embodiment, the driving modes of the amphibious coach comprise an on-water driving mode and a land driving mode;
(a) when the amphibious coach is started, the motor 2 works, a water running mode of the amphibious coach is selected through the vehicle-mounted display screen, the electromagnetic clutch III 13 connected with the power input end c of the water propulsion device 8 receives a closing electric signal sent by a vehicle control system, and the output shaft III 7 of the transfer case 4 drives the water propulsion device 8 to enter a working state under the action of the motor 2;
(b) when the amphibious passenger car is started, the motor 2 works, a land driving mode of the amphibious passenger car is selected through the vehicle-mounted display screen, the first electromagnetic clutch 11 and the second electromagnetic clutch 12 receive closing electric signals sent by a car control system at the same time, and under the action of the motor 2, the first output shaft 9 and the second output shaft 5 of the transfer case 4 drive the front wheel drive axle 10 and the rear wheel drive axle 6 to enter a working state at the same time.
In conjunction with fig. 2, 3 and 4, the present embodiment operates:
(1) the storage battery pack 1 is used as a power supply;
(2) starting the amphibious coach, selecting a running mode by a driver through an on-board interface of a vehicle control system:
(a) in the land driving mode, a vehicle control system sends a closing signal to a first electromagnetic clutch 11 and a second electromagnetic clutch 12, gear engagement is carried out through a gear shifting assembly, the vehicle control system receives an output signal of the gear shifting assembly, the clutch is stepped, the motor 2 works, and an output shaft I9 and an output shaft II 5 of the transfer case 4 drive a power input end a of a front wheel drive axle 10 and a power input end b of a rear wheel drive axle 6 to be in a synchronous rotation state, so that land driving of the amphibious passenger car is realized;
(b) and in the water running mode, the vehicle control system sends a closing signal to the electromagnetic clutch III 13, the gear shifting assembly is used for engaging, the vehicle control system receives an output signal of the gear shifting assembly, the motor 2 works, and the output shaft III 7 of the transfer case 4 drives the power input end c of the water propulsion device 8, so that the water running of the amphibious passenger car is realized.
Example two:
with reference to fig. 1, the present embodiment provides an electric drive system for a amphibious passenger vehicle, which includes a power supply portion and a drive portion.
The implementation of this embodiment relates to the gear shift assembly, vehicle control system, on-board display screen, front wheel drive axle 10, rear wheel drive axle 6, marine propulsion means 8 of an amphibious passenger vehicle.
The power supply part comprises a storage battery pack 1, a storage battery information collector and a storage battery fault diagnosis instrument; the storage battery information collector is used for collecting the voltage and current parameters of each storage battery in real time, transmitting the voltage and current parameters to the vehicle control system and finally displaying the voltage and current parameters on a vehicle-mounted interface of the vehicle control system; the storage battery fault diagnosis instrument is used for monitoring the service condition of each storage battery in real time and transmitting the service condition to the vehicle control system, and the vehicle control system predicts the service performance of the storage battery according to the parameter information and the monitoring data.
The power supply part also comprises a temperature sensor and a temperature controller, wherein the temperature sensor is used for detecting the temperature of the single storage battery, and the temperature controller carries out current-limiting control on the input or the output of the storage battery when the detection result of the temperature sensor exceeds a threshold value.
With reference to fig. 1, 2 and 3, the driving part comprises a motor 2, a gearbox 3 and a transfer case 4 which are connected in sequence, the transfer case 4 is provided with a first output shaft 9, a second output shaft 5 and a third output shaft 7, the first output shaft 9 of the transfer case 4 is connected with a power input end a of a front wheel driving axle 10 of the amphibious passenger car through a first electromagnetic clutch 11, the second output shaft 5 of the transfer case 4 is connected with a power input end b of a rear wheel driving axle 6 of the amphibious passenger car through a second electromagnetic clutch 12, and the third output shaft 7 of the transfer case 4 is connected with a power input end c of an aquatic propulsion device 8 through a third electromagnetic clutch 13.
And the vehicle control system receives the output signal of the gear shifting assembly and controls the first electromagnetic clutch 11 and the second electromagnetic clutch 12 to be in a closed state or controls the third electromagnetic clutch 13 to be in a closed state according to the running mode of the amphibious passenger car.
With reference to fig. 2, 3 and 4, in the embodiment, the driving modes of the amphibious coach comprise a water driving mode and a land driving mode;
(a) when the amphibious coach is started, the motor 2 works, a water running mode of the amphibious coach is selected through the vehicle-mounted display screen, the electromagnetic clutch III 13 connected with the water propulsion device 8 receives a closing electric signal sent by a vehicle control system, and the output shaft III 7 of the transfer case 4 drives the water propulsion device 8 to enter a working state under the action of the motor 2;
(b) when the amphibious coach is started, the motor 2 works, a land running mode of the amphibious coach is selected through the vehicle-mounted display screen, the first electromagnetic clutch 11 and the second electromagnetic clutch 12 simultaneously receive closing electric signals sent by a vehicle control system, and under the action of the motor 2, the first output shaft 9 and the second output shaft 5 of the transfer case 4 simultaneously drive the front wheel drive axle 10 and the rear wheel drive axle 6 to enter a working state.
In conjunction with fig. 2, 3 and 4, the present embodiment operates:
(1) the storage battery pack 1 is used as a power supply, the vehicle controller can acquire the voltage and current parameters of each storage battery in real time through the storage battery information collector, monitor the service condition of each storage battery in real time through the storage battery fault diagnosis instrument, and can also perform current-limiting control on the storage batteries through the temperature sensor and the temperature controller, thereby avoiding overcharge and overdischarge of the storage batteries and prolonging the service life of the batteries;
(2) starting the amphibious coach, selecting a running mode by a driver through an on-board interface of a vehicle control system:
(a) in the land driving mode, a vehicle control system sends a closing signal to a first electromagnetic clutch 11 and a second electromagnetic clutch 12, gear engagement is carried out through a gear shifting assembly, the vehicle control system receives an output signal of the gear shifting assembly, the clutch is stepped, the motor 2 works, and an output shaft I9 and an output shaft II 5 of the transfer case 4 drive a power input end 10 of a front wheel driving axle and a power input end 6 of a rear wheel driving axle to be in a synchronous rotation state, so that land driving of the amphibious passenger car is realized;
(b) and in the water running mode, the vehicle control system sends a closing signal to the electromagnetic clutch III 13, the gear shifting assembly is used for engaging, the vehicle control system receives an output signal of the gear shifting assembly, the motor 2 works, and the output shaft III 7 of the transfer case 4 drives the power input end of the water propulsion device 8, so that the water running of the amphibious passenger car is realized.
To sum up, adopt the utility model discloses an electric drive system of amphibious passenger train can solve the big problem of land and water passenger train to fuel consumption, can solve the big problem on the large side of the whole car quality of land and water passenger train, has energy-concerving and environment-protective advantage.
The foregoing has outlined rather in detail the principles and implementations of the present invention using specific examples, which are provided to assist in understanding the core technology of the present invention. Based on the above-mentioned specific embodiment of the utility model, this technical field's technical personnel is not deviating from the utility model discloses under the prerequisite of principle, right the utility model discloses any improvement and modification made all should fall into the utility model discloses a patent protection scope.