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This deck focuses on Conservation Of Linear Momentum, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 1.
Study Conservation Of Linear Momentum in AP Physics 1 with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Identify the type of collision where kinetic energy is conserved.
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Elastic collision. Both momentum and kinetic energy are conserved in this collision type.
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This deck focuses on Conservation Of Linear Momentum, giving you a quick way to review the definitions, rules, and examples that matter most for AP Physics 1.
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: Elastic collision. Both momentum and kinetic energy are conserved in this collision type.
Answer: Total kinetic energy decreases. Some kinetic energy converts to other forms during collision.
Answer: Impulse. Force applied over time creates impulse.
Answer: Momentum before equals momentum after. Conservation law requires momentum equality before and after.
Answer: Total momentum remains constant in an isolated system. A fundamental law stating momentum is conserved without external forces.
Answer: Momentum. Universal conservation law for all collision scenarios.
Answer: m1v1+m2v2=m1v1′+m2v2′. Mathematical expression of momentum conservation for two objects.
Answer: Momentum. Standard physics notation for momentum in equations.
Answer: Newton's Third Law. Equal and opposite forces result in momentum conservation.
Answer: Isolated system. No external forces acting on the system are required.
Answer: 50 kg·m/s. Change in momentum: 10(5)−10(0)=50 kg·m/s.
Answer: They stick together. Objects combine and move together with shared velocity.
Answer: v. Standard symbol for velocity in physics equations.
Answer: p=mv. The product of mass and velocity defines momentum.
Answer: 2 m/s. Using conservation: (5)(4)+(5)(0)=(10)v, so v=2 m/s.
Answer: Sum of individual momenta before collision equals sum after. Conservation law: initial total momentum equals final total momentum.
Answer: Momentum doubles. Momentum is proportional to mass at constant velocity.
Answer: It can change the momentum. External forces can alter the system's total momentum.
Answer: v. Standard symbol for velocity in physics equations.
Answer: m1v1+m2v2=m1v1′+m2v2′. Mathematical expression of momentum conservation for two objects.
Answer: Momentum remains constant. No external forces means no change in total momentum.
Answer: 4 m/s. Impulse equals change in momentum: 16/4=4 m/s change.
Answer: Momentum doubles. Momentum is proportional to velocity at constant mass.
Answer: Impulse equals change in momentum. The impulse-momentum theorem connects these quantities.
Answer: Momentum is conserved. Momentum conservation applies to all collision types.
Answer: 0 kg·m/s. At rest means velocity is zero, so momentum is zero.
Answer: m. Standard symbol for mass in physics equations.
Answer: Impulse equals change in momentum. The impulse-momentum theorem connects these quantities.
Answer: Total kinetic energy decreases. Some kinetic energy converts to other forms during collision.
Answer: Force. Newton's second law: F=dp/dt.
Answer: 50 kg·m/s. Using p=mv: 5×10=50 kg·m/s.
Answer: -6 kg·m/s. Negative velocity gives negative momentum: 2×(−3).
Answer: Newton's Third Law. Equal and opposite forces result in momentum conservation.
Answer: 8 kg·m/s. Change: 2(7)−2(3)=14−6=8 kg·m/s.
Answer: Momentum. Universal conservation law for all collision scenarios.
Answer: 3 m/s. Using v=p/m: 9/3=3 m/s.
Answer: Momentum doubles. Momentum is proportional to mass at constant velocity.
Answer: 3 m/s. Using v=p/m: 9/3=3 m/s.
Answer: -6 kg·m/s. Negative velocity gives negative momentum: 2×(−3).
Answer: Change in momentum. Impulse measures how momentum changes over time.
Answer: They stick together. Objects combine and move together with shared velocity.
Answer: Isolated system. No external forces acting on the system are required.
Answer: 0 kg·m/s. Zero velocity means zero momentum since p=mv.
Answer: Velocity. Momentum divided by mass equals velocity (p/m=v).
Answer: Total momentum remains constant in an isolated system. A fundamental law stating momentum is conserved without external forces.
Answer: It can change the momentum. External forces can alter the system's total momentum.
Answer: Momentum is a vector; kinetic energy is a scalar. Momentum has direction; kinetic energy is always positive.
Answer: Velocity. Momentum divided by mass equals velocity (p/m=v).
Answer: Inelastic collision. Momentum is conserved but kinetic energy is lost.
Answer: 50 kg·m/s. Change in momentum: 10(5)−10(0)=50 kg·m/s.
Answer: 0 kg·m/s. Zero velocity means zero momentum since p=mv.
Answer: Elastic collision. Both momentum and kinetic energy are conserved in this collision type.
Answer: Change in momentum. Impulse measures how momentum changes over time.
Answer: Momentum before equals momentum after. Conservation law requires momentum equality before and after.
Answer: 4 m/s. Impulse equals change in momentum: 16/4=4 m/s change.
Answer: Conservation of momentum. Fundamental principle stating momentum is conserved in isolated systems.
Answer: Conservation of momentum. Fundamental principle stating momentum is conserved in isolated systems.
Answer: 0 kg·m/s. At rest means velocity is zero, so momentum is zero.
Answer: Momentum remains constant. No external forces means no change in total momentum.
Answer: Kilogram meter per second (kg·m/s). Derived from mass (kg) times velocity (m/s).
Answer: Momentum. Standard physics notation for momentum in equations.
Answer: Momentum doubles. Momentum is proportional to velocity at constant mass.
Answer: 50 kg·m/s. Using p=mv: 5×10=50 kg·m/s.
Answer: 8 kg·m/s. Change: 2(7)−2(3)=14−6=8 kg·m/s.
Answer: Inelastic collision. Momentum is conserved but kinetic energy is lost.
Answer: Sum of individual momenta before collision equals sum after. Conservation law: initial total momentum equals final total momentum.
Answer: Kilogram meter per second (kg·m/s). Derived from mass (kg) times velocity (m/s).
Answer: Momentum is a vector; kinetic energy is a scalar. Momentum has direction; kinetic energy is always positive.
Answer: All types of collisions. Momentum conservation is universal for all collision types.
Answer: Force. Newton's second law: F=dp/dt.
Answer: 2 m/s. Using conservation: (5)(4)+(5)(0)=(10)v, so v=2 m/s.
Answer: m. Standard symbol for mass in physics equations.
Answer: Momentum is conserved. Momentum conservation applies to all collision types.
Answer: Impulse. Force applied over time creates impulse.
Answer: p=mv. The product of mass and velocity defines momentum.
Answer: All types of collisions. Momentum conservation is universal for all collision types.