Photo AI
Question 26
A tennis ball has a mass of 58 g. The ball is dropped from rest from a height of 1.8 m above the ground and falls vertically. The ball rebounds vertically to a heigh... show full transcript
Step 1
Answer
First, we will convert the mass of the tennis ball from grams to kilograms: 58 g = 0.058 kg.
Next, we calculate the velocity of the ball just before it hits the ground using the formula for gravitational potential energy and kinetic energy:
Potential energy at height 1.8 m is converted to kinetic energy just before impact:
Solving for the velocity, we use:
Substituting the values, we get:
Thus, the momentum just before hitting the ground is: $$p = mv = 0.058 \times 5.88 = 0.341 ext{ kg m/s}.$
Step 2
Answer
Now, we calculate the momentum of the ball just after rebounding to a height of 1.1 m:
Similarly, the velocity just after rebounding can be calculated using:
Substituting the values, we find:
Thus, the momentum just after rebounding is: $$p' = mv' = 0.058 \times 4.67 = 0.271 ext{ kg m/s}.$
Step 3
Report Improved Results
Recommend to friends
Students Supported
Questions answered
Use of SI Units & Their Prefixes
Physics - AQA
Limitation of Physical Measurements
Physics - AQA
Atomic Structure & Decay Equations
Physics - AQA
Classification of Particles
Physics - AQA
Conservation Laws & Particle Interactions
Physics - AQA
The Photoelectric Effect
Physics - AQA
Energy Levels & Photon Emission
Physics - AQA
Longitudinal & Transverse Waves
Physics - AQA
Stationary Waves
Physics - AQA
Interference
Physics - AQA
Diffraction
Physics - AQA
Refraction
Physics - AQA
Scalars & Vectors
Physics - AQA
Moments
Physics - AQA
Equations of Motion
Physics - AQA
Newtons Laws of Motion
Physics - AQA
Linear Momentum & Conservation
Physics - AQA
Work, Energy & Power
Physics - AQA
Bulk Properties of Solids
Physics - AQA
The Young Modulus
Physics - AQA
Current–Voltage Characteristics
Physics - AQA
Resistance & Resistivity
Physics - AQA
Circuits & The Potential Divider
Physics - AQA
Electromotive Force & Internal Resistance
Physics - AQA
Circular Motion
Physics - AQA
Simple Harmonic Motion
Physics - AQA
Forced Vibrations & Resonance
Physics - AQA
Thermal Energy Transfer
Physics - AQA
Ideal Gases
Physics - AQA
Molecular Kinetic Theory Model
Physics - AQA
Gravitational Fields
Physics - AQA
Gravitational Potential
Physics - AQA
Orbits of Planets & Satellites
Physics - AQA
Electric Fields
Physics - AQA
Electric Potential
Physics - AQA
Capacitance
Physics - AQA
Capacitor Charge & Discharge
Physics - AQA
Magnetic Fields
Physics - AQA
Electromagnetic Induction
Physics - AQA
Alternating Currents & Transformers
Physics - AQA
Alpha, Beta & Gamma Radiation
Physics - AQA
Radioactive Decay
Physics - AQA
Nuclear Instability & Radius
Physics - AQA
Nuclear Fusion & Fission
Physics - AQA
Telescopes
Physics - AQA
Classification of Stars
Physics - AQA
Cosmology
Physics - AQA
Rotational Dynamics
Physics - AQA
Thermodynamics & Engines
Physics - AQA
The Discovery of the Electron
Physics - AQA
Special Relativity
Physics - AQA