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∙ 9y agoThe size and shape of an object have a direct impact on its air resistance. Larger and bulkier objects experience more air resistance since they have a greater surface area coming into contact with the air. Objects with streamlined or aerodynamic shapes encounter less air resistance as they can move more smoothly through the air.
Density is determined by the mass of an object and its volume. Changing the shape or size of an object alters its volume but not necessarily its mass, so the density remains constant. The distribution of mass within the object may change, but overall density remains the same.
Size does not affect density, as density is a property that only depends on the mass and volume of an object. However, shape can impact density if the shape affects the volume of the object. A more compact shape will have a higher density compared to a more spread-out shape with the same mass.
The size of the striking object is directly proportional to the size of the crater it creates. A larger object will create a larger crater upon impact due to the increased energy and force involved. Additionally, the shape and density of the object also play a role in determining the final size and shape of the crater.
The internal composition or material of an object does not affect air resistance. Air resistance is mainly determined by an object's size, shape, and speed when moving through air.
Inertia varies depending on an object's mass. The greater the mass of an object, the greater its inertia. The shape and size of an object can also affect its inertia.
Density is determined by the mass of an object and its volume. Changing the shape or size of an object alters its volume but not necessarily its mass, so the density remains constant. The distribution of mass within the object may change, but overall density remains the same.
shape, size, and speed
Size does not affect density, as density is a property that only depends on the mass and volume of an object. However, shape can impact density if the shape affects the volume of the object. A more compact shape will have a higher density compared to a more spread-out shape with the same mass.
shape, size, and speed
The terminal velocity of a falling object depends upon its aerodynamics (which is to say, its shape) rather than its size and mass.
The size of the striking object is directly proportional to the size of the crater it creates. A larger object will create a larger crater upon impact due to the increased energy and force involved. Additionally, the shape and density of the object also play a role in determining the final size and shape of the crater.
The internal composition or material of an object does not affect air resistance. Air resistance is mainly determined by an object's size, shape, and speed when moving through air.
Inertia varies depending on an object's mass. The greater the mass of an object, the greater its inertia. The shape and size of an object can also affect its inertia.
The feature characteristic of an object that does not affect air resistance is the object's mass. Air resistance is determined by the object's shape, size, and speed through the air, but not its mass.
Speed, shape and frontal cross-section. Viscosity, texture, friction, gravity, velocity, size, and shape can all affect air resistance.
The pitch of a sound is determined by the frequency of the vibrations. Larger objects tend to produce lower pitched sounds because they vibrate more slowly due to their size. The shape of the object can affect how the vibrations travel through it, which can also influence the pitch of the sound produced.
The size and direction of an object can be changed by applying a force to it. Forces can cause objects to accelerate, decelerate, change shape, or change direction. Additionally, factors such as temperature, pressure, and external influences can also affect the size or direction of an object.