阅读说明：本技术 智能型移动载具 (Intelligent mobile carrier ) 是由 黄学正 于 2019-07-25 设计创作，主要内容包括：一种智能型移动载具,包括：具有容置空间的车体；设置于车体底部的底盘,底盘具有与车体相连接的悬吊系统；由圆型单元所构成的两驱动轮设置于车体的两侧的轮框内；提供智能型移动载具驱动电力的模块；设置于任两个圆型单元的中间或任一圆型单元的表面上的马达,马达与电池模块电性连接,藉由马达的扭力输出以带动两驱动轮转动；以及分别与马达及电池模块电性连接以输送监控讯号的整车控制器。藉此,本发明智能型移动载具为电池动力车不会在路面排放废气,且该智能型移动载具具有两个大轮径的圆形车轮,可达到在水陆行驶的目的。(An intelligent mobile vehicle comprising: a vehicle body having an accommodating space; the chassis is arranged at the bottom of the vehicle body and is provided with a suspension system connected with the vehicle body; two driving wheels formed by circular units are arranged in wheel frames at two sides of the vehicle body; a module for providing driving power for the intelligent mobile carrier; the motor is arranged between any two circular units or on the surface of any circular unit, and is electrically connected with the battery module, and the torque output of the motor drives the two driving wheels to rotate; and the vehicle control unit is electrically connected with the motor and the battery module respectively to transmit the monitoring signal. Therefore, the intelligent mobile carrier of the invention is a battery power vehicle which can not discharge waste gas on the road surface, and the intelligent mobile carrier is provided with two round wheels with large wheel diameters, thereby achieving the purpose of driving on water and land.)

1. An intelligent mobile carrier, characterized in that it includes:

a vehicle body having an accommodating space;

the chassis is a symmetrical chassis, is arranged at the bottom of the vehicle body and is provided with a suspension system, a brake system and a steering system, and the suspension system is connected with the vehicle body;

the two driving wheels are arranged in two wheel frames at two sides of the vehicle body, the two wheel frames are connected with a chassis frame through at least two locking pieces, the steering of the two driving wheels is controlled through a rocker module and a steering system, the two driving wheels are respectively provided with a groove, a plurality of spheres are arranged in the grooves, and the spheres are fixed in the grooves through a fixing structure and a positioning piece;

a battery module for providing driving power for the intelligent mobile carrier;

the plurality of motors are arranged between any two circular units or on one surface of any one circular unit, and are electrically connected with the battery module, and the two driving wheels are driven to rotate by the torque output of the motors; and

and the vehicle control unit is electrically connected with the motors and the battery module respectively so as to transmit a monitoring signal.

2. The intelligent mobile carrier as in claim 1, wherein the suspension system has two or more pneumatic suspensions or bladders, one or more hydraulic suspensions, a tire, a spring and a gear system.

3. The intelligent mobile carrier as claimed in claim 1, wherein the braking system comprises a brake pedal and a pressure sensor, the brake pedal is actuated to brake the intelligent mobile carrier by foot when being stepped on, the braking system is actuated to perform deceleration braking action on the two driving wheels, the vehicle controller is connected to the pressure sensor to receive a pressure received by the pressure sensor, convert the pressure into the monitoring signal and transmit the monitoring signal to the brake caliper to brake the large wheel disc; alternatively, a transmission shaft in a gear box is braked and decelerated or a clutch is decelerated to brake.

4. The intelligent mobile carrier as claimed in claim 1, further comprising an optical sensor connected to the vehicle controller for obtaining a distance between the vehicle body and the ground through optical reflection and transmitting the distance to the vehicle controller.

5. The intelligent mobile carrier as claimed in claim 1, further comprising a weight sensor connected to the vehicle controller, wherein the weight sensor is a level or a gyroscope to obtain a level value of the intelligent mobile carrier and transmit the level value to the vehicle controller.

6. The intelligent mobile carrier as claimed in claim 1, further comprising at least one cover movably disposed on the two wheel frames, the cover being designed to have an outer pointed cone structure or a V-shaped structure; and a plurality of magnetic components are embedded in the two wheel frames, and the magnetic components are used for generating electricity or signals.

7. The intelligent mobile carrier as claimed in claim 1, wherein the steering system further comprises a plurality of gear boxes connected to the motors, the gear boxes having an accelerator reducer, the accelerator reducer being used to generate a differential speed between the two driving wheels to steer the intelligent mobile carrier.

8. The intelligent mobile carrier as claimed in claim 1, further comprising a tilt wheel having a pulley structure for supporting the intelligent mobile carrier when the intelligent mobile carrier is overturned; alternatively, the pulley structure provides a center of gravity or vertical height of a cabin for land and water operation by means of gears according to the ambient conditions of the intelligent mobile vehicle.

9. The intelligent mobile carrier as claimed in claim 1, further comprising a control unit installed in the vehicle controller, wherein when the intelligent mobile carrier turns, the control unit calculates the weight distribution of the intelligent mobile carrier through a spring coefficient of a shock absorber and hardness control of the two driving wheels; when the intelligent mobile carrier turns, a centripetal force and a counter-centripetal force are generated, and when the rolling center of the centripetal force exceeds the relationship between the two driving wheels and the gravity center of the intelligent mobile carrier, the control unit can correct the stability of the intelligent mobile carrier.

10. The intelligent mobile carrier as claimed in claim 1, wherein the mobile carrier further comprises a floor structure capable of lifting and lowering arc, connected to the suspension system, and acting as an infinite walking platform for game through an external shock absorber or a push rod.

Technical Field

The present invention relates to an intelligent mobile carrier, and more particularly to an intelligent mobile carrier with a novel vehicle body and a unique chassis design.

Background

Air pollution is a major issue to be dealt with by governments in various countries today, and many large cities suffer from air pollution hazards. Most of the current commercial vehicles use fuel oil as a main power source, and gasoline power generation motorcycles, automobiles or trucks can be seen in many places, and because gasoline power generation generates pollutants, the problem of air pollution is more and more serious in the places. In addition, to avoid the air pollution becoming more serious, many countries are beginning to ban the sale of internal combustion engine vehicles in full to achieve full zero emissions from the vehicle.

Today, hybrid electric and all-electric vehicles can meet the fuel saving requirements, but due to the high and centralized mass production, the overall pollution in densely populated areas can be reduced. But still depends on the industry of the large country and the transport across the sea to effectively serve the market, and the quality of life of people is seriously influenced along with the rise of protection.

Furthermore, the research on hybrid electric vehicles and all-electric vehicles in various countries puts a lot of efforts, but the demand of unmanned vehicles in the future still remains in the concept of traffic, and if the unmanned system populates the vehicles, the vehicles must provide functions and comfort close to buildings, and then the security system must integrate more life safety functions besides traffic.

In summary, the usage of petrochemical energy and the emission of pollutants can be reduced by charging the electric vehicle, however, the usage and operation of the electric vehicle do not completely meet the needs of consumers, and with the increase of the demand of communication network, the vehicle needs to effectively form a network system by itself, so that there is a need for a mobile vehicle to improve the safety of the electric vehicle and achieve the purpose of multiple functionalities of the electric vehicle.

Disclosure of Invention

In view of the safety and functionality problems of the electric vehicle in the prior art, an object of the present invention is to provide an intelligent mobile vehicle, which has a separate design of a vehicle body and a chassis, and on one hand, a circular wheel having two large wheel diameters and a central annular wheel can form a complete damping plane, so as to achieve the purposes of increasing buoyancy and improving impact resistance and easy maintenance in water and on land.

To achieve the above object, the present invention provides an intelligent mobile carrier, which comprises: the vehicle comprises a vehicle body, a chassis, two driving wheels, a battery module, a plurality of motors and a vehicle control unit. First, the vehicle body may have an accommodating space, and the accommodating space may be a square structure. The chassis may be a symmetric chassis, may be set in the bottom of the vehicle body, and may have one suspension system connected to the vehicle body, one brake system and one steering system. The two driving wheels can be arranged in two wheel frames at two sides of the vehicle body, the two wheel frames are connected with a chassis frame through at least two locking pieces, the steering of the two driving wheels is controlled through a rocker module and a steering system, the two driving wheels can respectively have a groove, a plurality of spheres can be arranged in the groove, and the spheres can be fixed in the groove through a fixing structure and a positioning piece. Moreover, the battery module can provide driving power for the intelligent mobile carrier; the motors can be arranged between any two circular units or on one surface of any circular unit, and the motors can be electrically connected with the battery module, so that the torque output of the motors can drive the two driving wheels to rotate. In addition, the vehicle control unit can be electrically connected with the motors and the battery module respectively to transmit a monitoring signal.

In the above-mentioned intelligent mobile carrier of the present invention, the suspension system may have more than two pneumatic suspensions or air bags, more than one hydraulic suspension, more than one center tire, a damping spring and a gear transmission system. The built-in tire can also be made by a ring-type combination of magnetic, elastic or electromagnetic structural systems.

In the aforementioned intelligent mobile carrier of the present invention, the brake system may include a brake pedal and a pressure sensor, the brake pedal is foot-braked when being stepped on to drive the brake system to decelerate and brake the two driving wheels, the vehicle controller is connected to the pressure sensor to receive a pressure received by the pressure sensor, convert the pressure into the monitoring signal and transmit the monitoring signal to the brake caliper to brake the disc or drum of the large wheel.

The vehicle body may further include a light sensor, the light sensor is connected to the vehicle controller, obtains a distance between the vehicle body and the ground through reflection, and transmits the distance to the vehicle controller.

In the above-mentioned intelligent mobile carrier of the present invention, the vehicle control unit may further comprise a weight sensor, the weight sensor is connected to the vehicle control unit, and may be a level or a gyroscope, so as to obtain a level value of the intelligent mobile carrier and transmit the level value to the vehicle control unit.

In the above-mentioned intelligent mobile carrier of the present invention, it may further have an outer cover movably disposed on the two wheel frames, the outer cover being designed to have an outer pointed cone structure or a V-shaped structure; and a plurality of magnetic components are embedded in the two wheel frames, and the magnetic components can be used as a power generation mechanism or a structure for sensing the position of the wheel moment.

In the above-mentioned intelligent mobile carrier of the present invention, the steering system may further include a plurality of gear boxes connected to the motors, the gear boxes have an acceleration reducing machine, and the acceleration reducing machine is used to generate a differential speed between the two driving wheels to steer the intelligent mobile carrier.

In the above-mentioned intelligent mobile carrier of the present invention, the vehicle further comprises an oblique wheel, wherein the oblique wheel is a pulley structure and can be used for supporting the cabin of the intelligent mobile carrier; or, according to the surrounding environment condition of the intelligent mobile carrier, the pulley structure provides the adjustment of the center of gravity or the vertical height of the cabin body through the gear, and when the center of gravity or the vertical height of the cabin body is adjusted to be higher than the water surface, the intelligent mobile carrier can run on the water surface; when the center of gravity or the vertical height of the cabin body is at a common position, the intelligent mobile vehicle can drive on the road. Meanwhile, the relative density of the carrier can be corrected by matching with the tires in the chassis so as to adjust the sinking and floating degree of the carrier in water.

In the above-mentioned intelligent mobile carrier of the present invention, a control unit may be further included, which is installed in the vehicle controller, and when the intelligent mobile carrier turns, the control unit calculates the weight distribution of the intelligent mobile carrier through a spring coefficient of a shock absorber and hardness control of the two driving wheels. Secondly, when the intelligent mobile carrier turns, a centripetal force and a counter-centripetal force are generated, and when the rolling center of the centripetal force exceeds the relation between the two driving wheels and the gravity center of the intelligent mobile carrier, the control unit can perform various actions of a damping mechanism to correct the stability of the intelligent mobile carrier.

In the above-mentioned intelligent mobile carrier of the present invention, the floor structure of the cabin body can have the function of lifting and drawing arc through the toughness of the material, and the outer frame or the floor of the cabin body can also be connected with the suspension system, and can be moved outside through the action of the external shock absorber or the push rod, or can be controlled by the push rod together with accessories to be used as a board platform for the infinite movement of the virtual reality game.

The intelligent mobile carrier of the invention is further provided with a chassis structure which can be connected in series from front to back and in parallel from left to right, and a gravity energy storage system can be additionally arranged at the center of the intelligent mobile carrier to express the vertical rotation function of a gyroscope and input and output electric power.

The intelligent mobile carrier of the invention can not discharge waste gas on the road surface, thus not causing air pollution. Secondly, the intelligent mobile carrier can achieve the purpose of traveling in water and on the ground, and overcomes the limitation that an electric vehicle can only travel on the ground. In addition, the intelligent mobile carrier has a circular structure, so that the safety of the vehicle can be improved.

In view of the above advantages, and in order to enable an examiner to further understand the present invention, a preferred embodiment is disclosed as follows, in which the constituent elements and effects achieved by the present invention are described in detail in conjunction with the drawings and figures.

Drawings

Fig. 1 is a side view of an intelligent mobile vehicle according to an embodiment of the present invention;

fig. 2 is a schematic perspective view of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 3 is a block diagram of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 4 is a schematic top view of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 5a is a schematic perspective view of a suspension system of an intelligent mobile vehicle according to an embodiment of the present invention;

fig. 5b is a schematic perspective view of a suspension system of an intelligent mobile carrier with additional springs according to an embodiment of the present invention;

fig. 6 is a schematic view illustrating a motor of an intelligent mobile carrier driving two driving wheels to move forward according to an embodiment of the present invention;

fig. 7 is a schematic view of a motor arrangement of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 8 is a schematic view of a motor arrangement of a second intelligent mobile carrier according to an embodiment of the present invention;

fig. 9 is a schematic perspective view of two driving wheels of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 10a is a schematic view of a weight sensor of an intelligent mobile carrier according to an embodiment of the present invention;

fig. 10b is a schematic view of a weight sensor of a third intelligent mobile carrier according to an embodiment of the present invention;

fig. 11 is a schematic view of a cover of an intelligent mobile carrier according to an embodiment of the invention;

fig. 12 is a schematic diagram illustrating a control mode of an intelligent mobile vehicle according to an embodiment of the present invention;

fig. 13a is a graph showing the relationship between the actual control rate and the joystick control value of the intelligent mobile carrier according to the present invention;

fig. 13b is a graph of a rocker module of the intelligent mobile carrier;

fig. 13c is a graph of the relationship between the actual control angle and the speed of the intelligent mobile carrier;

fig. 13d is a graph showing the relationship between the actual control angle and the operation angle of the intelligent mobile carrier.

Description of the symbols:

1 Intelligent mobile carrier

10 vehicle body

101 fixing device

11 accommodating space

12 display

20 base plate

201 Chassis frame

2011 pipe column

2012 suite

21 suspension system

211 air pressure suspension

212 oil pressure suspension

213 tire

214 spring

215 gear transmission system

22 brake system

221 brake pedal

222 pressure sensor

23 steering system

231 gearbox

232 deceleration and acceleration machine

233 magnetic assembly

30 driving wheel

31 wheel frame

311 locking part

32 circular unit

321 carbon fiber board

33 Rocker Module

34 groove

40 cell module

50 motor

501 fixed seat

60 vehicle control unit

601 control unit

61 monitor signal

62 light sensor

63 weight sensor

64-door starting controller

65 door sensor

70 outer cover

71 floor structure

72 camera.

Detailed Description

The following embodiments of the present invention are provided as examples, and other advantages and effects of the present invention will be readily apparent to those skilled in the art from the disclosure of the present invention. Moreover, the invention is capable of other and different embodiments and of being practiced or being carried out in various ways without departing from the spirit of the invention.

Referring to fig. 1 to 3, fig. 1 is a cross-sectional side view of an intelligent mobile carrier according to embodiment 1 of the present invention; fig. 2 is a schematic perspective view of an intelligent mobile carrier according to embodiment 1 of the present invention; fig. 3 is a block diagram of an intelligent mobile carrier according to embodiment 1 of the present invention.

As shown in fig. 1 to 3, the present invention is an intelligent mobile vehicle 1, which includes a vehicle body 10, a chassis 20, two driving wheels 30, a battery module 40, a plurality of motors 50, and a vehicle controller 60. First, the vehicle body 10 has an accommodating space 11, the accommodating space 11 is a square structure, the vehicle body 10 is composed of a plurality of plates or a plurality of pipes, in an embodiment, a lifting structure is provided between the vehicle body 10 and the chassis 20, so that the vehicle body 10 can be lifted. Secondly, the chassis 20 is a symmetric chassis, and is disposed at the bottom of the vehicle body 10, the chassis 20 has a suspension system 21, a brake system 22 and a steering system 23, the suspension system 21 is connected to the vehicle body 10; the suspension system 21 has two or more pneumatic suspensions 211 or air bags (not shown), one or more hydraulic suspensions 212, a tire 213, a spring 214, and a gear system 215. Next, the two driving wheels 30 are composed of a plurality of circular units 32, each circular unit 32 is composed of a plurality of metal, wood or carbon fiber plates 321, the two driving wheels 30 are disposed in two wheel frames 31 on two sides of the vehicle body 10, the two wheel frames 31 are connected with a chassis frame 201 by at least two fasteners 311, the steering of the two driving wheels 30 is controlled by a joystick module 33 and a steering system 23, the two driving wheels 30 respectively have a groove 34, the groove 34 has a plurality of balls, and the balls are fixed in the groove 34 by a fixing structure and a positioning member. Any one of the spheres may be a PU sphere, a rubber sphere, or a strong and elastic sphere, which may act as a gas exchange device and dissipate heat. Secondly, the PU ball may have a liquid or a coolant therein, the flow of which may remove heat generated by the two drive wheels 30. Furthermore, the battery module 40 provides the driving power for the intelligent mobile carrier 1, and the battery module 40 is a gravity battery; and a plurality of motors 50 are disposed between any two of the circular units 32 or on a surface of any one of the circular units 32, the motors 50 are electrically connected to the battery module 40, the torque output of the motors 50 drives the two driving wheels 30 to rotate, and the vehicle controller 60 is electrically connected to the motors 50 and the battery module 40 respectively to transmit a monitoring signal 61.

As shown in fig. 2, the shape of the chassis frame 201 may be changed according to the needs of the user, and the shape of the chassis frame 201 may be a hexagon, an ellipse, or a circle, but the present invention is not limited thereto, and the hexagon of the chassis frame 201 is used for passengers, and the ellipse of the chassis frame 201 is used for industry, which is stronger. Next, the chassis frame 201 is formed of a plurality of columns 2011 that are secured together by a plurality of sleeves 2012; the shape of the columns 2011 may be changed according to the needs of the user, and the columns 2011 may be a triangle, a square, a circle or a polygon, but the present invention is not limited thereto. In one embodiment, the columns 2011 may be different shapes of columns or the same shape of columns to form the chassis frame 201 by locking the columns 2011 together with the sleeves 2012; in another embodiment, the posts 2011 may be formed by welding techniques to the chassis frame 201; in another embodiment, the posts 2011 may be press fit into the chassis frame 201; in another embodiment, the posts 2011 may be joined to form the chassis frame 201 by a sleeve, which may be made of a tough PU material and a cast iron or composite material. As mentioned above, the locking position of the pipe columns 2011 can be in the area of the suspension system 21, or the locking position of the pipe bundles 2012 in the middle of the vehicle, so as to determine that the two driving wheels 30 of the intelligent mobile vehicle 1 have a certain degree of two-sided damping during the up-and-down displacement. Furthermore, the columns 2011 may be filled with a gas or a foam (e.g., PU foam), such that the columns 2011 may be buoyant. In addition, the material of the columns 2011 may be changed according to the needs of the user, and the columns 2011 may be made of a metal material, a carbon fiber composite material, or a hard material with high impact resistance, but the present invention is not limited thereto, and the outer surfaces of the columns 2011 may be further waterproofed by the existing waterproofing technology. In a preferred embodiment, the columns 2011 may be straight pipes, and the straight pipes may be covered with carbon fiber pipes, and the straight pipes may be filled with gas or foam.

As shown in fig. 2, the vehicle body 10 of the intelligent mobile vehicle 1 of the present invention is almost a square carrier, and therefore, the center of gravity of the intelligent mobile vehicle 1 is very low. Since the intelligent mobile carrier 1 can be considered as one unit, the intelligent mobile carrier 1 can be connected in series with one side of any type of carrier or space. Thus, it can be made in any type, for example circular, square or cubic, and can be connected to a vehicle or a space in series or in parallel on each side of the intelligent mobile vehicle 1. Since the intelligent mobile carrier 1 can be integrated into an airtight chamber, the intelligent mobile carrier 1 can be used as other space, such as a seabed, outer space or vacuum environment.

As shown in fig. 1 to 2, the intelligent mobile vehicle 1 of the present invention is designed to separate the two driving wheels 30 from the chassis 20, so that when the intelligent mobile vehicle 1 collides, the person seated therein will not be hurt, and when the two wheel frames 31 of the two driving wheels 30 collide, the circular design of the intelligent mobile vehicle 1 will make the two driving wheels 30 flick, roll or crack, so that the person seated in the vehicle body 10 is very safe. The two driving wheels 30 are circular in shape, which can provide very large torque, and in addition, since the two wheel frames 31 are large and rotate slowly, the diameter of the two driving wheels 30 is large and has high capacity in any field. The power logic for the two drive wheels 30 uses the concept of an eccentric shaft, one for each point of the shaft, 50, where 1 to 10 motors can be mounted in either of the two wheel frames 31 to provide 1 to 10 times the torque. The two drive wheels 30 of the present invention may be used in high torque applications or vehicles, such as emergency pumps, elevators, excavators, earth moving machinery, or differential drives.

In addition, the size of the two driving wheels 30 of the present invention can be changed according to the user's requirement, the diameter of the two driving wheels 30 of the intelligent mobile carrier 1 is between 1.5 and 2.2 meters, the thickness of any one of the two driving wheels 30 is 15 centimeters, and a person can directly walk into the vehicle body 10, but the present invention is not limited thereto. The shape of the two driving wheels 30 can be changed according to the user's needs, and the two driving wheels 30 are in the shape of a single circle, a multi-circle tube, a plate, a modular tube, a water drop in the cutting section, a circle, a rectangle, a polygon or any shape, and in a preferred embodiment, the two driving wheels 30 are in the shape of a circle. Furthermore, the motors 50 are all located at the bottom third of the two drive wheels 30, so the center of gravity is very low. In addition, the power of each of the motors 50 is between 3-20 kw.

As shown in fig. 1 and fig. 3, the steering system 23 further includes a plurality of gear boxes 231 connected to the motors 50, the gear boxes 231 have an accelerator 232, and the two driving wheels 30 are driven to generate a differential speed by the accelerator 232 to steer the intelligent mobile vehicle 1. When the intelligent mobile vehicle 1 turns to the left, the left wheel speed of the two driving wheels 30 is higher than the right wheel speed, and when the person sitting on the left is heavy, a larger torque force needs to be applied. When the rotation speed of the intelligent mobile carrier 1 exceeds a specific value, the inclined wheel is ejected, and in a preferred embodiment of the present invention, the specific value is 60-80km/h, but the present invention is not limited thereto. The oblique wheel is of a pulley structure, and when the intelligent mobile carrier 1 is overturned, the oblique wheel can support the intelligent mobile carrier 1 to avoid overturning; or, according to the surrounding environment condition of the intelligent mobile carrier 1, the pulley structure provides the center of gravity or the vertical height of a vehicle cabin through the gear, and when the center of gravity or the vertical height of the vehicle cabin is adjusted to be higher than the water surface, the intelligent mobile carrier can run on the water surface; when the center of gravity or the vertical height of the cabin body is at a common position, the intelligent mobile vehicle can drive on the road.

Referring to fig. 4, 5a and 5b, fig. 4 is a schematic top view of an intelligent mobile carrier according to embodiment 1 of the present invention; fig. 5a is a schematic perspective view of a suspension system of an intelligent mobile carrier according to embodiment 1 of the present invention; fig. 5b is a schematic perspective view of a suspension system of an intelligent mobile carrier in accordance with embodiment 1 of the present invention with additional springs.

As shown in fig. 5a and 5b, the suspension system 21 has two or more pneumatic suspensions 211, one or more hydraulic suspensions (not shown), a tire 213, a spring (not shown), and a gear system (not shown). When the intelligent mobile vehicle 1 is impacted, the pneumatic suspension 211 can bear a first stage of impact, the tire 213 can bear a second stage of impact, the tire 213 has tension of air, and when the impact occurs, the air in the tire 213 flows into an air bag (not shown) in the two driving wheels 30. As shown in fig. 5b, the suspension system 21 further comprises a spring 214, and the suspension system 21 has an extension capability to keep the intelligent mobile vehicle 1 perpendicular to the center of the earth in an uphill or downhill situation. During a fall of the intelligent mobile vehicle 1, the large propulsion device will automatically set to natural rotation and the suspension system 21 can be extended to a maximum value based on the light sensor readings to know the true distance between the ground and the car to determine the impact force, the intelligent mobile vehicle 1 moves forward at impact by the rotation of the two driving wheels 30 and provides maximum safety for the passengers in the intelligent mobile vehicle 1. Next, as shown in fig. 5a, the intelligent mobile carrier further includes a floor structure 71 capable of lifting and lowering arc, which is connected to the suspension system, and is used as an infinite walking platform for game through an external shock absorber or a push rod.

As shown in fig. 4, due to the unique shape of the body 10 of the intelligent mobile vehicle 1, the space within the body 10 may be marked with elastic ropes, straps, systems or circular rings and held or tied to the player's limbs and torso by an extendable pole base to simulate a flying rollover or other motion. The two driving wheels 30 of the intelligent mobile vehicle 1 can be regarded as a huge out environment, and the inner binding ring can be regarded as a travel pod or foam in myth. The action of the person may be seen as the person moving in the intelligent mobile carrier 1, which creates a multi-layer or multiple rotational dimensions with at least one display 12 displayed as a large screen or projection in the game. The intelligent mobile carrier 1 and interior trim ring use transparent glass or a monitor as a window and can also be used as a projected image, or a dimpled screen as a bullet wound or glass perforation to simulate various visual impacts of a gunfight scene in a game. Due to the power belt and the floor shape of the lifting arc-drawing floor structure 71, various natural movements in games can be simulated. Further, a camera 72 may be mounted on the roof (or using an autonomous camera as a light source), inside or outside the vehicle to capture the view from a first view of the intelligent mobile vehicle 1 and a second view of the windshield. The camera 72 of the intelligent mobile carrier 1 communicates with the cloud server and is connected to the cloud server of the surrounding security cameras, and the cloud server injects the captured environment or elements into the game, thereby providing a plurality of third person perspective views to construct a real and almost real-time response scene or story line to interact with the player or give a unique visual effect to the passenger, and correspondingly introduce and interact with the connection of the scenic spot of the corresponding actuation space simulation or driving route and the building story or the related video content. Furthermore, the intelligent mobile carrier 1 of the present invention has a door actuating controller 64 and at least one door sensor 65, wherein the door actuating controller 64 is connected to the vehicle control unit 60 and the door sensor electrical apparatus 65. Secondly, the door opening mode of the intelligent mobile carrier 1 can be divided into: door push-out and move-up, multi-leaf opening and swing-out.

Referring to fig. 6, fig. 6 is a schematic view illustrating a motor of an intelligent mobile carrier driving two driving wheels to move forward according to embodiment 1 of the present invention.

As shown in fig. 3 and fig. 6, the braking system 22 includes a brake pedal 221 and a pressure sensor 222, the brake pedal 221 performs foot braking on the intelligent mobile vehicle 1 when being stepped on to drive the braking system 22 to perform deceleration braking operation on the two driving wheels 30, the vehicle controller 60 is connected to the pressure sensor 222 to receive a pressure received by the pressure sensor 222, convert the pressure into the monitoring signal and transmit the monitoring signal to the brake caliper to brake the large wheel disc; the motors 50 are connected to the vehicle controller 60, and determine the braking force of the motors 50 on the intelligent mobile vehicle 1 according to the monitoring signal. As shown in fig. 6, the two driving wheels 30 can be divided into four regions, i.e., a 1 st region, a 2 nd region, a 3 rd region and a 4 th region, the motors 50 are numbered as a 0 th motor, a 1 st motor, a 2 nd motor and a 9 th motor, in an embodiment of the present invention, the two driving wheels 30 are driven to advance in the arrow direction by the following driving sequence of the motors 50, which is the sequence of driving the 9 th motor, the 2 nd motor of the 4 th region, the 2 nd motor of the 3 rd region, the 1 st motor of the 4 th region, the 1 st motor of the 3 rd region, the 2 nd motor of the 2 nd region, the 0 th motor, the 2 nd motor of the 1 st region, the 1 st motor of the 2 nd region and the 1 st motor of the 1 st region.

Referring to fig. 7, fig. 7 is a schematic view of a motor arrangement of an intelligent mobile carrier according to embodiment 1 of the present invention.

As shown in fig. 7, the motors 50 are disposed between any two of the circular units 32, the gear box 231 and the magnetic members 233 are disposed on the circular units 32, the gear box 231 and the magnetic members 233 are operated on the circular units 32, and the torque output of the motors 50 drives the two driving wheels 30 to move.

Referring to fig. 8, fig. 8 is a schematic view of a motor arrangement of an intelligent mobile carrier according to embodiment 2 of the present invention.

As shown in fig. 8, the motors 50 are disposed on a surface of any one of the circular units 32 by a fixing base 501, the motors 50 are electrically connected to the battery module (not shown), and the torque output of the motors 50 drives the two driving wheels 30 to rotate.

Referring to fig. 9, fig. 9 is a schematic perspective view of two driving wheels of an intelligent mobile carrier according to embodiment 1 of the present invention.

As shown in fig. 9, each circular unit 32 is formed by assembling a plurality of metal, wood or carbon fiber plates 321, and aluminum, nylon or wear-resistant foam is disposed between the metal, wood or carbon fiber plates 321 to reduce noise. In a preferred embodiment of the invention, each circular unit 32 is constructed by assembling 6 metal, wood or carbon fiber plates.

Referring to fig. 10a and 10b, fig. 10a is a schematic view of a weight sensor of an intelligent mobile carrier according to embodiment 1 of the present invention; fig. 10b is a schematic view of a weight sensor of an intelligent mobile carrier according to embodiment 3 of the present invention.

As shown in fig. 10a and 10b, the weight sensors 63 can be a level meter or a gyroscope, and the torque of the two driving wheels 30 can be corrected by a weight sensing value sensed by the weight sensors 63. The intelligent mobile carrier 1 further comprises a control unit 601, and when the intelligent mobile carrier 1 turns, the control unit 601 calculates the weight distribution of the intelligent mobile carrier through a spring coefficient of a shock absorber and a hardness control coefficient of the two driving wheels.

Referring to fig. 11, fig. 11 is a schematic view of an outer cover of an intelligent mobile carrier according to embodiment 1 of the present invention.

As shown in fig. 11, the intelligent mobile carrier 1 further has at least one outer cover 70 movably disposed on the two wheel frames 31, wherein the outer cover 70 is designed to have an outer pointed cone structure or a V-shaped structure; the magnetic elements 231 can be embedded in the two wheel frames 31, and the magnetic elements can be used for generating electricity or signals. Second, a tapered shape of the cover 70 can be used as a strong ballistic structure to prevent side attacks. The conical shape can also be used as a conical tip parallel to the direction of travel, in particular in the case of a super-tubular mobile movement, the two wheel frames 31 having the loop formed by the magnetic elements to ensure floating of the intelligent mobile carrier 1, as well as to power the two driving wheels 30 of the intelligent mobile carrier 1 by means of the magnetic element response designed as described above, as a floating support in super-circulation systems and the like, or as a rotating mechanism like a fast spindle, without tilting or loosing the balance during travel. Furthermore, since the intelligent mobile carrier 1 has the property of separating the two driving wheels 30 from the vehicle body 10, the vehicle body 10 can also be mounted by a vertical fixing device 101 or a clip (not shown) or a clamp (not shown).

Referring to fig. 12, fig. 12 is a schematic view of a control mode of an intelligent mobile vehicle according to embodiment 1 of the present invention.

As shown in fig. 12, the system start mode of the intelligent mobile carrier of the present invention can be divided into a normal driving mode, an amphibious mode and a primary power mode; the normal driving mode and the amphibious mode can be divided into a standby mode (namely a neutral mode), a designated driving mode and a transportation mode (namely a braking mode), wherein the braking mode comprises deceleration parking, downhill stabilization and parking; the designated driving mode can be classified into a safety mode (i.e., fail-safe mode), an emergency crash mode, and a maintenance mode.

Referring to fig. 13a, fig. 13a is a graph illustrating a relationship between an actual control speed and a joystick control value of the intelligent mobile carrier according to the present invention. As shown in fig. 13a, the intelligent mobile vehicle 1 is unstable in vehicle conditions due to excessive steering deflection caused by over-sensitive control under different speeds, and therefore, the following mathematical equation is used:

SF： F(x)=(22.22)*(e^(x/60)-1)，

sf (sensitive function): a speed control sensitivity function;

the x axis is as follows: JS (Joystick speed): the rocker module controls a numerical value which can be an angle or voltage, the three dimension is defined by a plane xy, and the angle is defined by a coordinate xy position; the voltage is defined by the xy position.

And a y axis: cs (control speed): the actual control rate, in km/hr.

Referring to fig. 13b, fig. 13b is a graph of a joystick module of the intelligent mobile carrier. As shown in fig. 13b, the range represented by the circle represents the range in which the rocker is movable, and the range of the angle (θ) is +180 to-180; ADC (X, Y) represents a speed control sensitivity function; theta represents a numerical value of a control angle of the rocker; c θ (control θ) controls the angle value.

Referring to fig. 13c, fig. 13c is a graph illustrating a relationship between an actual control angle and a speed of the intelligent mobile carrier. As shown in fig. 13c, the x-axis is the actual control angle and the y-axis is the velocity. The actual rate of C θ = θ cos (CS/67) control reduces the sensitivity of the intelligent vehicle due to the actual speed of the vehicle, avoiding excessive speed steering situations.

Referring to fig. 13d, fig. 13d is a graph illustrating a relationship between an actual control angle and an operation angle of the intelligent mobile carrier. As shown in FIG. 13d, the x-axis is the actual control angle, the y-axis is the steering angle, the blue line represents speed 25(km/hr), the red line represents speed 50(km/hr), the gray line represents speed 75(km/hr) and the yellow line represents speed 100 (km/hr). In addition, the left motor control quantity (LM) of the motors provided at the left driving wheel of the intelligent mobile vehicle: LM = CS (1-C θ); right motor control amount (RM): RM = CS (1-C θ); c θ = θ cos (CS/67); actual control rate: CS = (22.22) < e > (JS/60) -1), wherein the function considers angles from +90 to-90, greater than this (rewind), will have been processed at fixed speed.

The above-mentioned embodiments are merely exemplary for convenience of description, and the claimed invention should not be limited to the above-mentioned embodiments, but should be limited only by the claims.