A. Increase the size of the fuel tank for longer race durations.

B. Streamline the car's aerodynamics to reduce drag and enhance speed.

C. Add extra weight to improve stability during turns.

D. Use heavier materials for increased durability.

A. Incorporate advanced driver-assistance systems (ADAS) for collision avoidance.

B. Remove safety features to reduce overall weight.

C. Decrease the thickness of the car's chassis to enhance flexibility.

D. Use outdated seatbelt designs to maintain a classic aesthetic.

A. Use non-recyclable materials to enhance the car's performance.

B. Implement an energy-efficient hybrid or electric engine.

C. Prioritize designs that contribute to air pollution.

D. Ignore fuel efficiency to focus solely on speed.

A. Stick to traditional manual controls for a classic feel.

B. Explore the use of artificial intelligence for autonomous racing.

C. Avoid incorporating digital displays and sensors.

D. Ignore advancements in materials and manufacturing processes.

A. Exceed the budget to ensure top-tier materials are used.

B. Choose materials solely based on aesthetics, regardless of cost.

C. Adapt the design to accommodate seasonal changes in temperature and weather.

D. Prioritize cost-effective materials without compromising safety and performance.