The document summarizes a presentation on the design of an FSAE supra vehicle. A team of engineering students designed a small formula-style race car to meet competition rules while ensuring performance and safety. Key aspects of the design included a lightweight chassis, pushrod suspension for improved handling, and safety features like fire extinguishers. Analysis showed the frame could withstand significant impact forces with a safety factor of 1.74. The final vehicle design was 4.12 meters long, 1.8 meters wide, and weighed 350 kilograms.
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SUPRA SAE
1. MINOR PROJECT PRESENTATION
ON
FSAE SUPRA VEHICLE
Guided By:-
Vikas Sharma
Asst. Prof.
(Dept. of Automobile Engg.)
Submitted By:-
TEAM AUTO VARP
Aayush Verma
Priyesh Patel
Rajat Sharma
Vijay Pratap Tomar
4th Year
(Dept. of Automobile Engg.)
2. 1. Introduction
2. Literature survey
3. Problem identification
4. Aim and objective
5. Proposed solution
6. Conclusion
7. References
3. Formula SAE is small Formula-style race car.
The prototype race car is to be evaluated for its
potential as a production item.
Each student team designs, builds and tests a prototype
based on a series of rules, whose purpose is both
performance and ensuring track safety.
4. S.No. Paper/ Book Name of author We extracted
1. Design and
Construction of a
Space-frame
Chassis
Brendan. J.
Waterman
University of
Western Australia
Focuses primarily on
space-frames,
readily available
materials used
2. Design of Student
Formula Race Car
Chassis
Abhijeet Das
University of Pune
IJSR
Design
Considerations &
Material Properties
3. Tune to win Croll smith
AERO
PUBLISHERS,
INC
Suspension,
Brakes
5. • Dealing off with material and manufacturing costs
• High Cost of manufacturing
• Aero dynamics drag
• Safety at high speed
6. • To design light weighted vehicle
• To maintain low cost but better reliability of the vehicle
with impressive performance
• To enhance the safety features of the vehicle by adding
some safety constraints and using proper materials
• Minimize the weight to stiffness ratio
• Maintain Low Center of Gravity
• Aesthetically pleasing design
7. Vehicle ground clearance is kept as low as possible
Giving appropriate space for driver
Using push rod suspension
Enhancing safety features by adding engine kill switches and
fire extinguishers.
9. Angle b/w upper arms
and lower arm : 90 degree
Seat angle : 50degree
Thigh angle : 50 degree
Steering wheel height : 250mm
Knee height : 370mm
Width of leg : 350mm
Leg angle : 100 degree angle
10. 1. Using ram air induction for improving efficiency in
low cost
2. Adjustable ABC
11. FRAME
The body and engine
are usually mounted to
the top of the chassis
with the suspension
being mounted below
CHASSIS
The frame, engine
and suspension as one
complete unit
The frame of the car
with the drive-train and
suspension being
considered entirely
separate items
throughout this project,
where the terms “chassis” and “frame” mean the same thing are
interchangeable.
12.
13. *
Stiffness of frame
Torsional stiffness
Triangulation law
Suspension points
Safety
Driver position and control
Ref. Brendan. J. Waterman University of Western Australia
Design and Construction of a Space-frame Chassis
Ref. Design of Student Formula Race Car Chassis
Abhijeet Das
IJSR
14. Properties SAE AISI
1018
Chromoly 4130
Steel
Density (g/cc) 7.8 7.8
Young’s Modulus (GPa) 210 210
Brinell Hardness 120 200
Strength to weight ratio at
Yield (kN-m/kg)
38 100
Yield Strength (MPa) 360 480
Ultimate Strength (MPa) 420 590
Thermal Conductivity:
Ambient (W-m/K)
50 42
Ref. Brendan. J. Waterman University of Western Australia
Design and Construction of a Space-frame Chassis
Ref. Design of Student Formula Race Car Chassis
Abhijeet Das
IJSR
17. ANALYSIS OF FRAME
Front Impact
•Force applied 8000 N
•Stress generated 274.36 Mpa (max.)
•Yield strength 480 Mpa
•Factor of safety 1.74
18. *
Over all length 4120mm
Over all width 1800mm
Over all height 900mm
Ref. 2015 Formula SAE® Rules
19. *
Brake is a mechanical device which applies force against the
direction of motion of the body.
Due to this force, vehicle prevents from motion
TYPES OF BRAKES
1. Drum brake
2. Disc brake
Ref. Croll Smith AERO PUBLISHERS, INC
20. The brake system converts the kinetic energy of vehicle
motion into heat
26. Steering is the mechanism
It allows any vehicle (car, motorcycle, bicycle) to follow
the desired course
Primary purpose of the steering system is to allow the
driver to guide the vehicle
27. The steering system is combination of :
1. Steering wheel
2. Steering column
3. Steering box
4. Tie rod
5. Wheel hub
28. On steering the steering
wheel torque provided is
transmitted to wheels via.
various linkages.
29. *
Suspension is the combination of:
Spring
Shock absorber
Push rod
Control arm
Wheel
Ref. Croll Smith AERO PUBLISHERS, INC
30. Vehicle's road holding/handling.
Keeping vehicle occupants comfortable and a ride quality.
38. Brendan. J. Waterman, University of Western Australia, Design and
Construction of a Space-frame Chassis
Abhijeet Das, IJSR, Design of Student Formula Race Car Chassis
Ref. 2015 Formula SAE® Rules
Croll Smith, AERO PUBLISHERS, INC
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