What this deck covers
This deck focuses on Explain Energy Transfer Through Interactions, giving you a quick way to review the definitions, rules, and examples that matter most for Physics.
Study Explain Energy Transfer Through Interactions in Physics with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
0% Complete
Identify the energy transfer mechanism when a hot mug warms a colder hand touching it.
Tap card or press Space to flip
Heating transfers energy from mug to hand. Temperature difference drives thermal energy flow.
How well did you know it?
Card 1 / 34
Space to flip · ← / → to move · once flipped, → Got it · ← Still learning
This deck focuses on Explain Energy Transfer Through Interactions, giving you a quick way to review the definitions, rules, and examples that matter most for Physics.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Heating transfers energy from mug to hand. Temperature difference drives thermal energy flow.
Answer: Total energy stays constant; energy only changes form within the system. Energy cannot be created or destroyed in isolated systems.
Answer: Work done by friction transfers energy to thermal energy. Friction does negative work, converting kinetic to thermal energy.
Answer: Energy transferred per unit time. Measures how quickly energy is transferred or transformed.
Answer: Gravitational potential energy transfers to kinetic energy. Height decreases while speed increases, conserving total energy.
Answer: Energy of motion. Depends on mass and speed of the object.
Answer: Negative work, W<0. Force opposes motion, removing energy from system.
Answer: Negative work. Force opposes motion, removing energy from the system.
Answer: W=Fd. Force and displacement must be parallel.
Answer: Radiation. Electromagnetic waves carry energy without a medium.
Answer: Energy stored due to elastic deformation. Springs store energy when compressed or stretched.
Answer: Ee=21kx2. Energy stored is proportional to displacement squared.
Answer: Total energy of the system remains constant. Energy cannot be created or destroyed in isolated systems.
Answer: The object or group of objects chosen for study. Defines the boundary for energy accounting.
Answer: W=Fdcosθ. Accounts for force component along displacement.
Answer: Energy transfer by electromagnetic waves. No medium needed; travels at speed of light.
Answer: Energy stored due to elastic deformation. Springs store energy when compressed or stretched.
Answer: Work. Applied force causes displacement, transferring energy.
Answer: P=tW. Average power equals work divided by time interval.
Answer: Wnet=ΔK. Net work equals change in kinetic energy.
Answer: Energy transfer due to a temperature difference. Heat flows from hot to cold spontaneously.
Answer: Energy due to height in a gravitational field. Objects gain energy when lifted against gravity.
Answer: Energy transfer by bulk motion of a fluid. Moving fluids carry thermal energy with them.
Answer: Energy moving from one system to another due to forces or heating. Forces do work or temperature differences cause heating.
Answer: K=21mv2. Half mass times velocity squared gives kinetic energy.
Answer: Ek=21mv2. Kinetic energy is proportional to mass and speed squared.
Answer: ΔEg=mgΔh. Change in height determines potential energy change.
Answer: Energy stored due to position in a gravitational field. Higher position stores more gravitational energy.
Answer: W=Fdcosθ. Accounts for angle between force and displacement vectors.
Answer: Everything outside the chosen system that can interact with it. Includes all matter and fields not in the system.
Answer: Rate of energy transfer per time. Measured in watts (W) or joules per second.
Answer: Us=21kx2. Half spring constant times displacement squared.
Answer: Energy transfer through direct contact within a material. Heat flows through materials via molecular collisions.
Answer: Energy transfer by a force acting through a displacement. Force must move object to transfer energy.