Question

In: Operations Management

Adam is driving down Burbank Blvd. and comes to a stop at a red light when...

  1. Adam is driving down Burbank Blvd. and comes to a stop at a red light when he is rear-ended by Eve, who was not paying attention because she was texting a friend. Adam suffers whiplash injuries to his neck and goes to a physical therapist. His injuries eventually heal, but he has to spend $10,000 on medical bills and misses a month of work and loses $4,000 in wages.

  1. What theory of tort liability would Adam sue Eve under? Intentional Tort, Negligence or Strict Liability?

  1. What was Eve’s duty of care at the time of the accident?

  1. What does Adam need to prove to show “but for causation” and “proximate causation”?

  1. How would Adam calculate his damages? What types of things would be included?

  1. If Eve had an auto insurance policy of $15,000, but no other assets, how much Adam likely get?

  1. In what type of court should Adam file his lawsuit (e.g. criminal, civil, district, bankruptcy, circuit court, etc.?) Who would be the plaintiff? The defendant?

  1. Assuming Adam was driving under the influence at the time of the accident. How could Eve use that to her advantage to avoid paying some or all of his damages?

NOTE: This question is from LAW 001 Business Law I

Solutions

Expert Solution

a. Adam would sue Eva under the theory of negligence. The tort that occurs when someone suffers injury due to the other party’s failure to exercise the duty of care is called tort of negligence. Here Adam had to suffer injuries due to Eva’s failure to exercise reasonable care while driving. Hence Adam can sue Eva for negligence.

b. Eva’s duty of care at the time of the accident was to exercise reasonable care while driving by paying attention to other passengers, vehicles and traffic signals and avoid causing accidents and injuries to others.

c. Adam can show but-for causation by showing that “but for” Eva’s failure to pay attention to the red signal which made him stop the car, the injury would not have occurred. The proximate cause can be proved by showing that the consequences of her lack of attention while driving was foreseeable to Eva.

d. The damages would be calculated based on compensatory as well as consequential damages. Hence the amount spent on medical bills ($10000), the loss suffered in lost wages($4000) and any other consequential losses based on the injury would be considered while calculating the damages.

e. Adam is likely to get a maximum of $15,000 because even if the damages exceed $15000, the maximum amount the insurer will pay is $15,000 and Eva has no other personal assets to cover the rest.

f. Adam should file the lawsuit in civil court because civil law enforces all the rights and duties between persons and this case based on negligence is a civil case as it is brought to make the other party pay for the damages caused by the failure to perform his/her duty. The plaintiff is the person who brings the lawsuit and the defendant is the person against whom the lawsuit is brought. Hence Adam is the plaintiff here and Eva is the defendant.

g. If Adam was driving under the influence at the time of the accident, Eva could use that to her advantage by using the defense of assumption of risk. As the chances of accidents are high while driving under influence, Eva can show that he has voluntarily assumed the injury from the accident by choosing to drive under influence. The plaintiff will not be allowed to recover on damages if the plaintiff has voluntarily entered into the risky situation understanding the risks involved.


Related Solutions

Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 4.7 m/s2 for 3.8 seconds. It then continues at a constant speed for 8.5 seconds, before applying the brakes such that the car’s speed decreases uniformly coming to rest 206.78 meters from where it started. The yellow car accelerates uniformly for the entire distance, finally catching the blue car just as the...
Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 3.4 m/s2 for 4.1 seconds. It then continues at a constant speed for 14.7 seconds, before applying the brakes such that the car’s speed decreases uniformly coming to rest 258.93 meters from where it started. The yellow car accelerates uniformly for the entire distance, finally catching the blue car just as the...
Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 4.7 m/s2 for 3.8 seconds. It then continues at a constant speed for 8.4 seconds, before applying the brakes such that the car’s speed decreases uniformly coming to rest 205 meters from where it started. The yellow car accelerates uniformly for the entire distance, finally catching the blue car just as the...
Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 3.4 m/s2 for 4.1 seconds. It then continues at a constant speed for 14.7 seconds, before applying the brakes such that the car’s speed decreases uniformly coming to rest 258.93 meters from where it started. The yellow car accelerates uniformly for the entire distance, finally catching the blue car just as the...
Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 4.7 m/s2 for 3.8 seconds. It then continues at a constant speed for 8.7 seconds, before applying the brakes such that the car’s speed decreases uniformly coming to rest 212 meters from where it started. The yellow car accelerates uniformly for the entire distance, finally catching the blue car just as the...
Two cars start from rest at a red stop light. When the light turns green, both...
Two cars start from rest at a red stop light. When the light turns green, both cars accelerate forward. The blue car accelerates uniformly at a rate of 3.6 m/s2 for 4.4 seconds. It then continues at a constant speed for 8.2 seconds, before applying the brakes such that the car
You are driving your car, and the traffic light ahead turns red. You apply the brakes...
You are driving your car, and the traffic light ahead turns red. You apply the brakes for 2.73 s, and the velocity of the car decreases to + 5.37 m/s. The car’s deceleration has a magnitude of 3.02 m/s2 during this time. What is the car’s displacement? x = A dynamite blast at a quarry launches a rock straight upward, and 1.8 s later it is rising at a rate of 10 m/s. Assuming air resistance has no effect on...
In Microbots, When you press the red stop button of the teach pendant in the middle...
In Microbots, When you press the red stop button of the teach pendant in the middle of the execution of a @STEP command, the Microbot stops immediately. Given that there are no sensors to independently determine the current position and orientation, how can you prepare for and recover from this event without having to recalibrate the robot manually to its home position? Assume that no slippage occurs. Please include algorithm in pseudocode to explain the solution.
A car sitting at a red light begins to accelerate at 2 m/s2 when the light...
A car sitting at a red light begins to accelerate at 2 m/s2 when the light turns green. It continues with this acceleration until it reaches a speed of 20 m/s. It then travels at this speed for another few minutes. How far does the car travel in the first 50 s after the light changes to green?
When the light turns yellow, should you stop or go through it? An article defines the...
When the light turns yellow, should you stop or go through it? An article defines the “indecision zone” as the period when a vehicle is between 2.5 and 5.5 seconds away from an intersection. It presents observations of 750 vehicles passing through various intersections in Vermont for which the light turned yellow in the indecision zone. Of the 750 vehicles, 89 ran a red light. a) Find a 90% confidence interval for the proportion of vehicles that will run the...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT