Photo AI
Question 31
Mg can decay by beta minus emission to one of two possible excited states of Al. Both excited states decay by the emission of a gamma photon directly to the ground s... show full transcript
Step 1
Answer
To find the maximum possible kinetic energy of the beta particle emitted, we need to consider the difference in energy between the excited state and the ground state.
Identify the energies involved:
The excited states are given as 1.33 x 10^{-13} J and 1.63 x 10^{-13} J.
The ground state energy (final energy) is 4.18 x 10^{-13} J.
Calculate the energy released:
The maximum kinetic energy of the beta particle emitted will be the difference between the energy of the excited state and the ground state energy of Al. Hence:
For the excited state of 1.33 x 10^{-13} J:
For the excited state of 1.63 x 10^{-13} J:
Determine the maximum kinetic energy:
The maximum possible kinetic energy for the beta particle emitted corresponds to the higher excited state energy of 1.63 x 10^{-13} J since it directly influences the kinetic energy calculation.
Thus, the answer will be given as:
Answer: 1.63 x 10^{-13} J.
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