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Physics II: Electricity, Magnetism and Light Phenomena
Home
Announcements
Lessons
Electric Charge
Electric Field
Gauss's Law and Electric Field Configurations
Electric Potential
Capacitance and Capacitors
Electric Current and Resistance
DC-Circuits
Magnets and Magnetic Field
Electromagnetism
Electromagnetic Induction
Electric Generators and AC-Current
Electric Oscillations and Electric Resonance
Electromagnetic Waves
Nature of Light: Particles Model
Images and Illusions
Wave Optics
Atoms, Line Spectra and Photo-Electric Effect
Wave Function and Uncertainty Principle
Relativity
Elements of Nuclear Physics
Review Vibration and Waves
Laboratory
Reports Requirements
Electrostatics
Electric Fields and Equipotentials
Ohm's Law
Resistors in Series and Parallel
Wheatstone Bridge
RC Time Constant
RLC-Circuit and Resonance
Reflection and Refraction
Spherical Mirrors and Lenses (Handout)
Transmission Diffraction Grating
Sample Report
Tests
Test 1 Results Fall 2016
Test 1 Results Spring 2017
Test 2 Results Fall 2016
Test 2 Results Spring 2017
Test 3 Results Fall 2016
Test 3 Results Spring 2017
Test 4 Results Fall 2016
Test 4 Results Spring 2017
Test 5 Results Fall 2016
Test 5 Results Spring 2017
Test 1 Fall 2021
Test 2 Fall 2021
Test 3 Fall 2021
Test 4 Fall 2021
Test 5 Fall 2021
Final Exam Fall 2021
Test 1 Fall 2022
Test 2 Fall 2022
Test 3 Fall 2022
Test 4 Fall 2022
Final Exam Fall 2022
Test 1 Spring 2023
Tutoring Resources Spring 2023
Test 1 Results Spring 2023
Test 2 Spring 2023
Test 3 Spring 2023
Test 4 Spring 2023
Test 5 Spring 2023
Final Exam Spring 2023
Test 1 Fall 2023
Test 2 Fall 2023
Test 3 Fall 2023
Test 4 Fall 2023
Test 5 Fall 2023
Final Exam Fall 2023
Test 1 Fall 2024
Test 2 Fall 2024
Test 3 Fall 2024
Test 4 Fall 2024
Test 5 Fall 2024
Final Exam Fall 2024
Office Hours
Projects
Student Survey
Physics II: Electricity, Magnetism and Light Phenomena
Home
Announcements
Lessons
Electric Charge
Electric Field
Gauss's Law and Electric Field Configurations
Electric Potential
Capacitance and Capacitors
Electric Current and Resistance
DC-Circuits
Magnets and Magnetic Field
Electromagnetism
Electromagnetic Induction
Electric Generators and AC-Current
Electric Oscillations and Electric Resonance
Electromagnetic Waves
Nature of Light: Particles Model
Images and Illusions
Wave Optics
Atoms, Line Spectra and Photo-Electric Effect
Wave Function and Uncertainty Principle
Relativity
Elements of Nuclear Physics
Review Vibration and Waves
Laboratory
Reports Requirements
Electrostatics
Electric Fields and Equipotentials
Ohm's Law
Resistors in Series and Parallel
Wheatstone Bridge
RC Time Constant
RLC-Circuit and Resonance
Reflection and Refraction
Spherical Mirrors and Lenses (Handout)
Transmission Diffraction Grating
Sample Report
Tests
Test 1 Results Fall 2016
Test 1 Results Spring 2017
Test 2 Results Fall 2016
Test 2 Results Spring 2017
Test 3 Results Fall 2016
Test 3 Results Spring 2017
Test 4 Results Fall 2016
Test 4 Results Spring 2017
Test 5 Results Fall 2016
Test 5 Results Spring 2017
Test 1 Fall 2021
Test 2 Fall 2021
Test 3 Fall 2021
Test 4 Fall 2021
Test 5 Fall 2021
Final Exam Fall 2021
Test 1 Fall 2022
Test 2 Fall 2022
Test 3 Fall 2022
Test 4 Fall 2022
Final Exam Fall 2022
Test 1 Spring 2023
Tutoring Resources Spring 2023
Test 1 Results Spring 2023
Test 2 Spring 2023
Test 3 Spring 2023
Test 4 Spring 2023
Test 5 Spring 2023
Final Exam Spring 2023
Test 1 Fall 2023
Test 2 Fall 2023
Test 3 Fall 2023
Test 4 Fall 2023
Test 5 Fall 2023
Final Exam Fall 2023
Test 1 Fall 2024
Test 2 Fall 2024
Test 3 Fall 2024
Test 4 Fall 2024
Test 5 Fall 2024
Final Exam Fall 2024
Office Hours
Projects
Student Survey
More
Home
Announcements
Lessons
Electric Charge
Electric Field
Gauss's Law and Electric Field Configurations
Electric Potential
Capacitance and Capacitors
Electric Current and Resistance
DC-Circuits
Magnets and Magnetic Field
Electromagnetism
Electromagnetic Induction
Electric Generators and AC-Current
Electric Oscillations and Electric Resonance
Electromagnetic Waves
Nature of Light: Particles Model
Images and Illusions
Wave Optics
Atoms, Line Spectra and Photo-Electric Effect
Wave Function and Uncertainty Principle
Relativity
Elements of Nuclear Physics
Review Vibration and Waves
Laboratory
Reports Requirements
Electrostatics
Electric Fields and Equipotentials
Ohm's Law
Resistors in Series and Parallel
Wheatstone Bridge
RC Time Constant
RLC-Circuit and Resonance
Reflection and Refraction
Spherical Mirrors and Lenses (Handout)
Transmission Diffraction Grating
Sample Report
Tests
Test 1 Results Fall 2016
Test 1 Results Spring 2017
Test 2 Results Fall 2016
Test 2 Results Spring 2017
Test 3 Results Fall 2016
Test 3 Results Spring 2017
Test 4 Results Fall 2016
Test 4 Results Spring 2017
Test 5 Results Fall 2016
Test 5 Results Spring 2017
Test 1 Fall 2021
Test 2 Fall 2021
Test 3 Fall 2021
Test 4 Fall 2021
Test 5 Fall 2021
Final Exam Fall 2021
Test 1 Fall 2022
Test 2 Fall 2022
Test 3 Fall 2022
Test 4 Fall 2022
Final Exam Fall 2022
Test 1 Spring 2023
Tutoring Resources Spring 2023
Test 1 Results Spring 2023
Test 2 Spring 2023
Test 3 Spring 2023
Test 4 Spring 2023
Test 5 Spring 2023
Final Exam Spring 2023
Test 1 Fall 2023
Test 2 Fall 2023
Test 3 Fall 2023
Test 4 Fall 2023
Test 5 Fall 2023
Final Exam Fall 2023
Test 1 Fall 2024
Test 2 Fall 2024
Test 3 Fall 2024
Test 4 Fall 2024
Test 5 Fall 2024
Final Exam Fall 2024
Office Hours
Projects
Student Survey
Spherical Mirrors and Lenses
Do not use the Lab Manual for this Lab Activity. Rather review the experiment in the Lab Supplement given to you at the beginning of the class.
Review the following web materials before performing the Lab Activity
Images formed by mirrors and lenses
Lab Report should include:
1. Objective
2. Experimental Procedures
3. Data tables 1 - 5
4. Graphs for tables 1, 4
5. Calculations
6. Questions:
a) Describe the properties of the image formed by the converging lens. How does magnification factor depend on object distance?
b) Explain why for a given screen-to-object distance there are two lens positions where a clear image is formed.
c) For a given focal length f what is the minimum screen-to-object distance when a clear image is formed. What is the limit in your case?
d) Describe the properties of the image formed by the concave mirror. How does magnification factor depend on object distance?
e) What are the sources of experimental errors in this experiment?
7. Discussion and Conclusion
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