Design of springless suspension usingbevel gears

 Design of springless suspension using bevel gears

1 .Bevel gears are a type of gears that have a conical shape and

intersecting axes, allowing them to transmit rotational motion

between non-parallel shafts. They are used in a wide range of

applications, including automotive, aerospace, marine, and

industrial machinery. Bevel gears are designed to mesh together at

a specific angle, known as the "pitch angle" or "cone angle,"

which determines the gear ratio and the motion transfer

characteristics

2. Rubber visa wheels

A springless suspension system for an automobile can be designed

using bevel gears and components from rubber-visa wheels.

Rubber-visa wheels, also known as airless or non-pneumatic

wheels, are made from solid rubber or similar materials,

eliminating the need for air-filled tires and providing a unique

suspension capability. Bevel gears with cone-shaped teeth can be

used to transfer power and torque from the vehicle's axle to the

rubber-visa wheels, providing a form of suspension that absorbs

shocks and vibrations. The rubber-visa wheels can act as flexible

elements that deform and absorb impacts, providing a cushioning

effect similar to traditional springs. Proper engineering design and

calculations should be considered to ensure that the bevel gears

and rubber-visa wheels are appropriately integrated into the

suspension system to provide the desired performance, stability,

and comfort for the specific application in the automobile. Testing

and validation should also be conducted to ensure the safe and

reliable operation of the springless suspension system using the

bevel gears and components from rubber-visa wheels

3.Mild steel plates

Mild steel plates, also known as low carbon steel plates, are widely used

in a variety of applications due to their high strength, durability,

machinability, and cost-effectiveness. They are commonly used in

structural applications, automotive and transportation manufacturing,

machinery and equipment fabrication, storage tanks and containers,

construction and infrastructure projects, energy and power generation

equipment, and general fabrication, such as welding and machining.

Mild steel plates provide structural support, corrosion resistance, and

versatility, making them suitable for a wide range of industries and

purposes. Proper engineering design and material selection should be

considered to ensure that mild steel plates are used appropriately for

their intended purpose.

4.Centershaft Dc motor 45 rpm

A springless suspension system for an automobile can be designed

using bevel gears and components from a center shaft DC motor witha

rotation speed of 45 RPM. Bevel gears with cone-shaped teeth can be

used to transfer power and torque from the motor to the suspension

system, eliminating the need for traditional springs. The center shaftDC

motor can provide the necessary rotational motion for the suspension

system to function. Components from the motor, such as the gears,

shafts, and housing, can be repurposed and modified to serve asintegral

parts of the suspension system. Proper engineering design and

calculations should be considered to ensure that the bevel gears and

motor components are appropriately integrated into the suspension

system to provide the desired performance, stability, and durabilityfor

the specific application in the automobile. Testing and validationshould

also be conducted to ensure the safe and reliable operation of the

springless suspension system using the bevel gears and components

from the center shaft DC motor with a rotation speed of 45 RPM.

5.Circuit

A springless suspension system for an automobile can be designed

using bevel gears and components commonly used in electronic

circuits. Bevel gears with cone-shaped teeth can be utilized to

transfer power and torque from the vehicle's axle to the suspension

system, providing a mechanical means of absorbing shocks and

vibrations. Components such as gears, shafts, and housings used in

electronic circuits, such as printed circuit boards (PCBs), can be

repurposed and modified to serve as integral parts of the

suspension system. For example, PCB materials can be used to

create flexible elements that deform and provide cushioning

effects similar to traditional springs. Proper engineering design

and calculations should be considered to ensure that the bevel

gears and electronic circuit components are appropriately

integrated into the suspension system to provide the desired

performance, stability, and durability for the specific application

in the automobile. Testing and validation should also be conducted

to ensure the safe and reliable operation of the springless

suspension system using the bevel gears and components from

electronic circuits