Is it the mosquito that flies fast or the car that runs fast?

If the questioner is talking about mosquitoes in the car, then it can be seen as just as fast. As for whether mosquitoes will kill them, this one probably won't. If the mosquito flies in the space inside the car, because the mass of the mosquito is small, the effect of all the received air is obvious.

If the car is windy, once it drives violently, there is a danger of mosquitoes hanging, it is caused by the rapid flow of air, if there is no such obvious air flow in the car, then it is the same as in the house, the guy will still be very comfortable.

Anyway, questions always have to be pondered, and it's interesting for you to bring it up, hehe. I'm just taking it positively and hoping to give you some useful inspiration.

If we compare together, of course, the car runs faster, if the mosquito hitchhikes, or does not move, of course, it is the same fast, if the car does not move, the mosquito flies, of course, the mosquito is fast.

Of course, it was fast, because I was bitten by mosquitoes while driving, and I didn't escape mosquito bites even on the high-speed train.

Look where the mosquito is in the car, the car is the speed plus its real-time speed; Outside the car, do you say that they start at a speed or at a sustained speed, mosquitoes take off fast, cars start slowly.

It depends on how you walk, mosquitoes fly in the sky, cars walk on the road, mosquitoes can walk in a straight line, and cars can only walk along the road.

The speed of the car in a straight line is definitely faster than that of a mosquito.

The speed of a mosquito is meters per second, meters per second, and the average speed: meters per second is about kilometers per second.

So it's the car that runs fast.

If you are standing on the earth, and the earth travels 80,000 miles a day, do you have this speed? Then you weren't left behind by the earth, were you? It's the same thing.

Using the car as a frame of reference, the car itself has a speed of 0 and the mosquito has a speed in it. If the ground is used as a reference frame, the speed of the mosquito should be the speed of the ability plus the speed of the vehicle.

Nonsense, it must be the car that runs fast!! Is it a mosquito biting you in your car?

The speed of the mosquito flight is about 70km h, and as for the car, it depends on what kind of car you are! I can't talk about it here!

It depends on the species of mosquitoes, which are different from the species of cars, some mosquitoes are faster than cars, but some are not good.

Cars, no. The mosquito is light and can't hit it at all, and it has long been blown away by the wind.

If a mosquito flies in a car in a rapid form without any attachments, will he die on the wall of the car because he can't keep up with the speed of the car?

No, because in a car, mosquitoes and cars form a relatively stationary state, just like a person sitting in a high-speed car will not be hit and killed on the wall of the car because he can't keep up with the speed of the car.

Mosquitoes don't get hit and killed, it's stationary relative to cars.

You jump up on a speeding car, can you fall off? A truth.

It's a painful question.

It's up to you to try this question yourself.

Mosquitoes in the car no? There has to be a research object.

Mosquitoes can fly with the car in the car. Because the car and everything inside the car is endowed with inertia, resulting in consistent speed. Inertia represents how easy it is for an object to change its state of motion.

The magnitude of inertia is only related to the mass of the object. It is relatively difficult to change the motion state of an object with a large mass, that is, it has a large inertia; The motion state of an object with a small mass is relatively easy to change, that is, the inertia is small.

Attention to inertial knowledge points:

1. Inertia is not the same as the law of inertia. Inertia is the property of the object itself, while the law of inertia talks about the relationship between motion and force (force is not what maintains the motion of an object, force is what changes the motion of an object).

2. Inertia is an inherent property of an object, and it cannot be said that "inertia is obtained" due to the action of inertia. The correct one is "with inertia".

First of all, the transmission of force, when the train starts, there is power to provide acceleration, and this power acts on the train, and all objects that are fixed to the train are accelerated at the same time. People can also be accelerated when they are seated, but they will lean forward or backward, and if they are standing, they may even fall, all of which are related to the transmission of power (the static friction between you and the contact surface of the train) and the amount of acceleration.

Then let's talk about mosquitoes. Mosquitoes fly in the air, and mosquitoes can fly in the air of course because of the air, and mosquitoes flap their wings so that the air provides buoyancy and power to fly. The air is in the carriage, generally speaking, the carriage is closed, the carriage is not fixedly connected to the air, but the carriage movement will also drive the air movement (the collision of molecules in the air with the carriage wall), and then the air drives the mosquito movement, which is also the transmission of force, of course, this is a lag, after all, the static friction force that you are in direct contact with the train is very strong and the air is a fluid.

But as the velocity gradually stabilizes, the acceleration becomes 0, and all this will also stabilize, and eventually all the molecules in the air will have a velocity component that is the same as the speed of the train in the direction of the train, and all objects in the air, including dust, mosquitoes, etc., have this partial velocity, like all objects on the train, until there are other forces that bring other acceleration to change the speed (such as turning, accelerating, decelerating, etc.).

Finally, we can speculate on a more interesting problem, if the acceleration is large enough, just as we will be clinging to the seat or falling to the ground and rolling for a distance, the mosquito is also very likely to be thrown on the wall of the carriage, of course, this requires the mosquito to be in a daze or slow to react, after all, generally speaking, the mosquito reacts quickly and can immediately maintain its stability by inciting its wings.

If the landlord can't understand that the air in the car has the same speed as the car, you might as well open the window when you are in the car, the wind whistling outside the window can give you a deeper understanding, and once the wind blows in from the window, the mosquito can no longer fly freely in the high-speed car.

Because the wind resistance of the mosquito is relatively small, coupled with the fast flight speed, it can catch up with the speed of the car.

This is the concept of uniform motion in junior high school, in which the mosquito is at rest relative to the car. But if you want to get rid of the mosquitoes, it's very simple, open the window and add the effect of the wind speed, and the mosquitoes will be thrown off soon.

The mosquitoes in the car did not keep up with the speed of the car, because the mosquitoes were in the car, and it did not need to keep up with the speed in the car.

The mosquitoes hanging in the air in the hole in the car can keep up with the speed of the car, and the reason for the lack of stuffiness is because of inertia. When the external force acting on the object is zero, the inertia is manifested as the object keeping its state of motion unchanged, that is, keeping it at rest or moving in a straight line at a uniform speed;

When the external force acting on the object is not zero, inertia is expressed as the degree of difficulty with which the external force changes the state of motion of the object. Under the action of the same external force, the greater the mass of an object with the same acceleration, the greater the inertia.

Therefore, the inertia of an object will not change at any time (with or without external force) and under any circumstances (rest or motion), let alone disappear. Inertia is a property of matter itself.

Main advantage: In physics, inertia is the property of an object to resist a change in its state of motion. The inertia of an object can be measured in terms of its mass, and the greater the mass, the greater the inertia.

Isaac Newton defined inertia in his magnum opus, Principles of Mathematics in Natural Philosophy:

Inertia, an intrinsic property of matter, is a resistant, which exists in every object, proportional in size to the mass of the object, and tries to keep it in its existing state, whether at rest or in a uniform linear motion.