Wiki User
∙ 11y agoThis depends heavily on the vehicle in question. Stopping distance is a function of the mass of the vehicle, the width of the tires (i.e. friction area in contact with the pavement), and the type and "strength" of the brakes on the vehicle.
A typical mid-size sedan like a Toyota Camry can stop in roughly 30 feet from 30mph. A large SUV like a Ford Explorer requires about 35-40 feet, while a Semi-Tractor trailer cab with loaded trailer can stop in about 40 feet, despite weighing over 10 times that of the SUV, since it has much more powerful brakes and much more wheel contact area.
Wiki User
∙ 11y agoThe stopping distance, after decelerating from 60 mph to 0 mph, will depend on the efficiency of the brakes, the friction between the tyres and the road surface and the mass of the vehicle.The initial speed alone cannot give you an answer.
In the case of constant speed: distance = speed x time. Or, Total distance = Average speed * Total Time
Average Speed = Total Distance/Total Time.Instantaneous Speed = Derivative of Distance with respect to Time.
The average speed is the total distance divided by the time taken to cover the distance.
Mean Speed = Total Distance / Total Time taken to cover the distance
The total stopping distance for a car travelling at 30 mph on a dry surface is about 75 feet. However, you may wish to note that in most countries, driving a car on the pavement is illegal.
The color of the vehicle does not affect the total stopping distance. Factors that do affect stopping distance include speed, road conditions, driver reaction time, and vehicle condition.
That depends on type of vehicle, vehicle condition, weight in or being towed by vehicle, tire condition and model, ABS equipped? all sorts of things.
That distance is known as the total stopping distance, which consists of both the thinking distance (distance traveled while recognizing a hazard and reacting) and the braking distance (distance traveled from applying the brakes to coming to a complete stop). The total stopping distance can vary depending on factors such as speed, road conditions, and vehicle condition.
Stopping distance also increases.
The stopping distance of a vehicle is determined by factors such as the reaction time of the driver, the speed of the vehicle, road conditions (e.g., wet or dry pavement), tire traction, and the vehicle's braking system's effectiveness. A longer reaction time, a higher speed, poor traction, and a longer braking distance can all contribute to increasing the stopping distance.
Yes, as speed increases, both the reaction distance (distance traveled while identifying a hazard and initiating braking) and braking distance increase, leading to a longer total stopping distance. This is due to the greater momentum and energy that needs to be dissipated to come to a stop at higher speeds.
As a vehicle's speed increases, its stopping distance will also increase. This is because the kinetic energy of the vehicle increases with speed, requiring more distance to come to a complete stop once the brakes are applied. Additionally, reaction time and road conditions can also affect stopping distance.
It increases faster than the speed increase ... approximately the square of the speed. So twice the speed results in 4 times the stopping distance.
3 seconds behind him, no matter the speed on dry pavement. More on wet pavement.
The distance your vehicle travels while stopping depends on various factors such as your speed, road conditions, and reaction time. On average, a car traveling at 60 mph can take anywhere from 100-130 feet to come to a complete stop.
When a vehicle increases its speed, the stopping distance also increases. Stopping distance is dependent on the vehicle's speed, the reaction time of the driver, and the braking distance required to come to a stop. With higher speeds, it takes longer for the vehicle to come to a complete stop, resulting in a longer stopping distance.