It depends on how the axes are defined. If the for motion in one dimension, if the positive direction is defined direction of motion, then yes, because friction opposes motion. If the motion is in two or three directions, then the force of friction is a vector and, strictly speaking, neither positive not negative. The sign (if any) of any force is arbitrary, as long as all forces in the diagram use the same frame of reference.
In a free body diagram of a roller coaster, the forces acting on it are gravity, normal force, friction, and air resistance.
Any external or internal force acting on an object would be represented as a force arrow in a free-body diagram. For example, forces like gravity, friction, tension, and normal force would all be depicted with force arrows in a free-body diagram.
A free body diagram for a car would show the forces acting on the car, such as gravity, friction, and normal force. It would typically include arrows to represent the direction and magnitude of these forces.
To identify errors in a diagram and draw a correct free-body diagram, you need to look for missing or incorrect forces acting on the object. A free-body diagram should include all forces acting on the object, such as gravity, normal force, friction, tension, and any other external forces. Make sure to accurately represent the direction and magnitude of each force in the diagram.
The most common forces shown in a free body diagram are gravity (weight), normal force, tension, friction, and applied forces. These forces represent the interactions acting on an object in a given situation.
In a free body diagram of a roller coaster, the forces acting on it are gravity, normal force, friction, and air resistance.
Any external or internal force acting on an object would be represented as a force arrow in a free-body diagram. For example, forces like gravity, friction, tension, and normal force would all be depicted with force arrows in a free-body diagram.
A free body diagram for a car would show the forces acting on the car, such as gravity, friction, and normal force. It would typically include arrows to represent the direction and magnitude of these forces.
To identify errors in a diagram and draw a correct free-body diagram, you need to look for missing or incorrect forces acting on the object. A free-body diagram should include all forces acting on the object, such as gravity, normal force, friction, tension, and any other external forces. Make sure to accurately represent the direction and magnitude of each force in the diagram.
The most common forces shown in a free body diagram are gravity (weight), normal force, tension, friction, and applied forces. These forces represent the interactions acting on an object in a given situation.
The free body diagram of a block on an incline shows the forces acting on the block, including gravity, normal force, and friction. It helps to analyze how these forces affect the motion of the block on the incline.
The forces included on a free-body diagram typically include gravity, normal force, friction, tension, and any other external forces acting on the object. These forces are depicted as vectors to show their magnitudes and directions in relation to the object.
free body diagram
The key components of a free body diagram for a vehicle navigating a banked curve include the forces acting on the vehicle, such as gravity, normal force, friction, and centripetal force. These forces help to show how the vehicle's motion is affected by the curve and the banking angle.
Free Body Diagram
a free body diagram of a ball
a helicopter lifting off a landing pad, how would u draw a free-body diagram of that?