The volume will be doubled.
The area is multiplied by 4, not doubled.
quadrupled. :)
well...if it's doubled then its doubled (just treat it the same)
The area is doubled. a,b - cathetus; c - hypotenuse; h - height; S - area. S = (a*b)/2 = (c*h)/2 obviously if k is the doubled height. and A is the new area. A = (c*k)/2 = (c*2h)/2 = c*h and A = S*2
The speed of efflux refers to the rate at which a fluid flows out of a container through an opening. It is influenced by factors such as the size of the opening, the viscosity of the fluid, and the height of the fluid level above the opening. The speed of efflux can be calculated using principles of fluid dynamics.
The volume will be doubled.
The area is multiplied by 4, not doubled.
As area_of_parallelogram = base x height if they are both doubled then: new_area = (2 x base) x (2 x height) = 4 x (base x height) = 4 x area_of_parallelogram Thus, if the base and height of a parallelogram are [both] doubled, the area is quadrupled.
If the initial speed of a projectile is doubled, the projectile will have four times the kinetic energy compared to its initial state. This is because kinetic energy is proportional to the square of the velocity. The maximum height reached by the projectile will also be higher, as it will have more energy to overcome gravity.
The tree took 19 years to reach half its maximum height. Since it doubled in height each year, it was half of its maximum height in the year prior to reaching its full height.
This statement is not accurate. In reality, when speed is doubled, the braking distance is quadrupled, not doubled, assuming all other factors remain constant. This is because the braking distance is directly proportional to the square of the initial speed.
If the base stays the same, the area is also doubled.
The area gets doubled.
In the first case, the area will remain the same. In the second case, the area will doubled.
When the height of a body is doubled, its potential energy also doubles. This is because potential energy is directly proportional to the height of an object in a gravitational field.
The volume is doubled.