I'm doing the same question in my wkbk page..... But uh I think it's mass or density. Again. I think.
surface area
No, greater force is typically needed to move an object over a rough surface compared to a smooth surface. This is because the irregularities on a rough surface create more friction, making it harder to overcome resistance and move the object. Smooth surfaces offer less resistance to movement.
An object with a large surface area experiences greater air resistance because there is more surface for the air to push against as the object moves. This can slow down the object's motion more significantly compared to an object with a smaller surface area.
On a slippery surface, there is less friction between the object and the surface, which reduces the force acting against the object's motion. This means that it takes longer for the object to decelerate and come to a stop compared to a surface with more friction.
When an object is yanked from above a rough surface, the friction between the object and the surface will resist the motion, causing the object to slow down and possibly slide or tumble. If the force applied is strong enough to overcome the friction, the object will accelerate in the direction of the force until it is released.
surface area
Surface area refers to the total area that covers the surface of an object or structure. To decrease surface area, you can reduce the dimensions of the object or change its shape to be more compact. To increase surface area, you can add extensions, rough textures, or indentations to the object's surface.
No, greater force is typically needed to move an object over a rough surface compared to a smooth surface. This is because the irregularities on a rough surface create more friction, making it harder to overcome resistance and move the object. Smooth surfaces offer less resistance to movement.
An object with a large surface area experiences greater air resistance because there is more surface for the air to push against as the object moves. This can slow down the object's motion more significantly compared to an object with a smaller surface area.
On a slippery surface, there is less friction between the object and the surface, which reduces the force acting against the object's motion. This means that it takes longer for the object to decelerate and come to a stop compared to a surface with more friction.
When an object is yanked from above a rough surface, the friction between the object and the surface will resist the motion, causing the object to slow down and possibly slide or tumble. If the force applied is strong enough to overcome the friction, the object will accelerate in the direction of the force until it is released.
because it does
The object of the preposition "under" is "covers," as it is the noun that the preposition is referring to in relation to the verb "stay."
A moving object eventually comes to a stop on a frictional surface because the friction between the object and the surface creates a force that opposes the object's motion, gradually slowing it down until it stops.
A large object has a greater surface area, allowing it to absorb and emit radiation at a faster rate compared to a smaller object. This is because the larger surface area provides more contact points for radiation to be absorbed and emitted.
The surface area of a three-dimensional object refers to the total area that covers the object's outer surface. It is measured in square units and varies depending on the shape of the object. For example, the surface area of a cube can be calculated using the formula (6a^2), where (a) is the length of a side, while the surface area of a sphere is given by (4\pi r^2), where (r) is the radius. Overall, calculating surface area is essential in various fields, including engineering, architecture, and manufacturing.
The total surface occupied by an object refers to the area that covers its outer surface. This measurement is typically expressed in square units, such as square meters or square inches. It encompasses all the faces or surfaces of the object, providing a comprehensive understanding of how much space the object occupies externally. This concept is crucial in various fields, including geometry, architecture, and material science.