Monday, September 21, 2020

Applied Physics Lesson Plan

Andhra Loyola Institute of Engineering and Technology

VIJAYAWADA-520008.

Approved by AICTE, New Delhi and Affiliated to JNTU Kakinada.

(An ISO 9001: 2015 Certified Institution)

Department of Science & Humanities

Lesson Plan for a Day

Course Name: Applied Physics                                                        Course Code: C113

Credits (L-T-P-C): 3-0-0-3                                                                  Subject Code: R19BS1204

Number of Students:                                                                         Program: First Year B.Tech ( Sem - II)

Name of Faculty: Y. Sudhakar                                                         Branch: CSE

 

Course Objectives

·       Impart Knowledge of Physical Optics phenomena like Interference and Diffraction required to design instruments with higher resolution.

·       Understand the physics of Semiconductors and their working mechanism for their utility in sensors.

·       To impart the knowledge of materials with characteristic utility in appliances.

 

 

 

 

 

 

 

 

 

 

 

Unit-1 WAVE OPTICS

Outcome:

The students will be able to

·       explain the need of coherent sources and the conditions for sustained interference.

·       analyze the differences between interference and diffraction with applications.

·       illustrate the resolving power of various optical instruments.

Knowledge Categories

1

Factual

Remembering the basics related to characteristics of waves. 

2

Conceptual

Understand the phenomenon of interference, diffraction. The concepts of constructive and destructive interference

3

Procedural

Sequence of steps to obtain the conditions in thin films, silts.

By using methods to obtain expression for resolving power

 

4

Applied

Assignments, Problem solving in interference and diffraction

 

 

 

 

 

 

 

 

 

 

 

 

Schedule and Sequence:

  Day Plan for unit- 1 - WAVE OPTICS

   Total 09 hrs

Session/week/ Module -1

Total Classes -4

Topic

Objectives

Before Class - Videos, e-Books, Case studies

In-Class – Activities, Quiz

(Micro teaching)

Post Class - Assignment, Discussion Forum

 

Day-1

Principle of Superposition - Interference of light

To remember  about superposition of waves

https://www.youtube.com/watch?v=G_qOV3lTG2o

 

“Engineering Physics” by D.K. Bhattacharya and Poonam Tandon, Oxford press (2015).

Phenomenon

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand interference with different phases

 

Able to solve problems

 

 

Day-2

Conditions for sustained Interference

To understand about sustained interference, thin film reflection  geometry

https://www.youtube.com/watch?v=meq9j_WJQrA

 

conditions

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand conditions

Day – 3

Interference in thin films (reflected geometry)

To understand about thin film reflection  geometry

https://www.youtube.com/watch?v=CDrGtZYqLA4

 

Concept, Sequence of steps teaching

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand thickness of films

 

 

Able to solve problems

 

 

Day – 4

Newton’s Rings (reflected geometry).

To understand about path difference in air films

https://www.youtube.com/watch?v=MFOCQnKuvgE

 

Concept, Sequence of steps

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand diameter derivations

Able to solve problems

 

 

Day - 5

 

 

 

 

 

Diffraction -Fraunhofer Diffraction

To understand about bending of light waves

https://www.youtube.com/watch?v=X1PcupzuBm0

 

Procedures, Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand bending of light

 

Able to solve problems

 

Day – 6

Diffraction due to Single slit (quantitative),

To understand about huygens principle

https://www.youtube.com/watch?v=Tq7V_nWupTg

 

Concepts, Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand mathematical equations

Able to solve problems

 

 

Day – 7

Double slit, N -slits and circular aperture (qualitative)- Intensity distribution curves

To understand about N-slits, angle of resolution

https://www.youtube.com/watch?v=TgO1iiv21Eg

https://www.youtube.com/watch?v=e3oh3HvKlY0

 

 

Procedure, Sequence of steps 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand resolution and power

 

 

Day – 8

Diffraction Grating – Grating spectrum – missing order

To understand about transmission grating

https://www.youtube.com/watch?v=F6dZjuw1KUo

 

Sequence of steps 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand grating spectrum

 

Able to solve problems

 

Day – 9

Resolving powers of Microscope, Telescope and grating (qualitative)

To understand about resolving power of different optical instruments

https://www.youtube.com/watch?v=xPVGWdul0tI

 

Sequence of steps 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand applications of telescope and microscope

Able to solve problems

 

Assignment / test on LMS

 

Day – 10

Resolving powers grating (qualitative)

To understand about power of grating

https://www.youtube.com/watch?v=NnPx-nRnNjI

 

Procedure, Sequence of steps 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand spectral resolving power

 

 

Assignment / test on LMS

 

 

Unit-2: QUANTUM MECHANICS

Outcome:

The students will be able to

·       explain the fundamental concepts of quantum mechanics.

·       analyze the physical significance of wave function.

·       Apply schrodinger wave equation for energy values of a free particle.

Knowledge Categories

1

Factual

Rememberingthe basics related to Quantum theory and basic quantum laws, matter waves and their properties

2

Conceptual

Understand the concepts related to wave function and its conditions, quantization of energy and particle and wave nature of light. Theory and experiment related to electron diffraction 

3

Procedural

Sequence of steps to obtain Schrodinger wave equation and the energy of a particle in a box.

 

4

Applied

Assignments, Problem solving related to wavelength of the matter wave.

 

 

 

Schedule and Sequence:

  Day Plan for unit- 2 - QUANTUM MECHANICS

   Total 07 hrs

Session/week/ Module -1

Total Classes -4

Topic

Objectives

Before Class - Videos, e-Books, Case studies

In-Class – Activities, Quiz

(Micro teaching)

Post Class - Assignment, Discussion Forum

 

Day-1

Introduction – Matter waves – de Broglie’s hypothesis

To understand about wave nature of particle

https://www.youtube.com/watch?v=iTRxuBxttj8

 

 

 

 

A text book of Engineering Physics by P G Kshirsagar & M N Avadhanulu, S Chand & company Ltd.

concept

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand modern physics

 

 

Able to solve problems

 

 

Day-2

Davisson-Germer experiment

To understand about experimental evidence of matter waves

https://www.youtube.com/watch?v=U8hotafnZkA

 

Experimental method

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand method

 

Able to solve problems

 

 

Day - 3

G. P. Thomson experiment

To understand about experimental evidence of matter waves

https://www.youtube.com/watch?v=6DDmoDHZwn0

 

Experimental method

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand method

 

 

 

Day - 4

 

 

 

 

 

Heisenberg’s Uncertainity Principle –interpretation of wave function

To understand about principle

https://www.youtube.com/watch?v=BNYz5EKXVeI

 

Phenomenon

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Principle with different microscopic quantities 

Able to solve problems

 

 

Day – 5

Schröedinger Time Independent and

To understand physical representation of wave equations

https://www.youtube.com/watch?v=Dt_VKsSggAo

 

Sequence of steps

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Quantum wave equations

 

 

Day – 6

Time Dependent wave equations

To understand physical representation of wave equations

https://www.youtube.com/watch?v=QmlYottGRFk

 

Sequence of steps

 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Quantum wave equations

 

 

Day – 7

Particle in a potential box.

To understand about energy of particle

https://www.youtube.com/watch?v=uK60QAKooyM

 

Sequence of steps

 (30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

Energy is quantised

Able to solve problems

 

 

 

 

 

 

 

 

 

 

 

Unit-3: FREE ELECTRON THEORY & BAND THEORY OF SOLIDS

Outcome:

The students will be able to explain

Ø  The various electron theories.

Ø   Calculate the Fermi energy.

Ø  Analyze the physical significance of wave function.

Ø  Interpret the effects of temperature on Fermi Dirac distribution function.

Ø  Summaries various types of solids based on band theory

Knowledge Categories

1

Factual

Remembering the basics related to electron theories like classical and quantum free electron theory. Different types of bands in solid.

2

Conceptual

Understand the concepts related electrical conductivity, electron distribution function and its temperature dependence, periodical potential and effective mass of an electron and hole.

3

Procedural

Sequence of steps to obtain the equation for electrical conductivity, Bloch’s theorem.  Kroing-Penney model and equation for effective mass of an electron.

 

4

Applied

Assignments, Problem solving related to mean free path and conductivity and Fermi distribution function.

 

Schedule and Sequence:

Day Plan for unit-3 - FREE ELECTRON THEORY & BAND THEORY OF SOLIDS

Total 10 hrs

Session/week/ Module -1

Total Classes -4

Topic

Objectives

Before Class - Videos, e-Books, Case studies

In-Class – Activities, Quiz

(Micro teaching)

Post Class - Assignment, Discussion Forum

 

Day-1

Introduction– Classical free electron theory (merits and demerits only)

To understand about electron theories

https://www.youtube.com/watch?v=L-eOdZFt9BY

 

 

A text book of Engineering Physics by P G Kshirsagar& M N Avadhanulu, S Chand & company Ltd.

concept

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand how the electrons behave in metals.

 

 

Able to solve problems

 

 

Day-2

Quantum Free electron theory

To understand about quantum nature of electron behaviour.

https://www.youtube.com/watch?v=L-eOdZFt9BY

Experimental method

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand quantum laws for electrons in metals.

 

Able to solve problems

 

 

Day -3

electrical conductivity based on quantum free electron theory

To understand about derivative part of electrical conductivity

https://www.youtube.com/watch?v=L-eOdZFt9BY

Experimental method

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand derive expression for electrical conductivity.

 

 

Day - 4

 

 

 

 

 

Fermi Dirac distribution function – Temperature dependence of Fermi-Dirac distribution function

To understand about electron distribution in metals at RT

https://www.youtube.com/watch?v=L-eOdZFt9BY

Phenomenon

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Electron behaviour.

Able to solve problems

 

 

Day – 5

expression for Fermi energy -

Density of states.

To understand energy levels of electrons and available states for electrons.

https://www.youtube.com/watch?v=L-eOdZFt9BY

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Fermi energy concept.

 

 

Day – 6

Bloch’s theorem (qualitative)

To understand periodical potential and electron behaviour.

https://www.youtube.com/watch?v=JvPT9EOjS9o

Sequence of steps

 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Electron in periodical potential and different types of bands.

 

 

Day – 7

Kronig-Penney model(qualitative).

To understand about energy spectrum of an electron in periodical potential.

 https://www.youtube.com/watch?v=JvPT9EOjS9o h?v=uK60QAKooyM

 

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

Allowed and forbidden bands

Able to solve problems

 

 

Day-8

energy bands in crystalline solids – E Vs K diagram

To understand about energy spectrum and E Vs K diagram

https://www.youtube.com/watch?v=JvPT9EOjS9o

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

Allowed and forbidden bands

 

Day-9

classification of crystalline solids

To understand about different type of solids

https://www.youtube.com/watch?v=JvPT9EOjS9o

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

About conductors, semi conductors and insulators

 

Day-10

effective mass of electron – m* Vs K diagram - concept of hole.

To understand about changes in mass of the electron in bands

https://www.youtube.com/watch?v=uK60QAKooyM

 

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

About changes in electron mass.

 

 

 

 

 

 

Unit-4: SEMICONDUCTOR PHYSICS

Outcome:

The students will be able to

 

Ø  Classify the energy bands of semiconductors.

Ø  Outline the properties of n-type and p-type semiconductors.

Ø  Identify the type of semiconductor using Hall Effect.

 

Knowledge Categories

1

Factual

Remembering the basics related to semiconductors and their classification.

2

Conceptual

Understand the concepts related to doping of semiconductors and associated changes. Carrier concentration, drift and diffusion currents and Hall effect.

3

Procedural

Sequence of steps to obtain the expression for carrier concentration, Einstein’s relation and experimental study of hall effect and its applications. 

 

4

Applied

Assignments, Problem solving related to carrier concentration and hall effect.

Schedule and Sequence:

Day Plan for unit-4 - SEMICONDUCTOR PHYSICS

Total 09 hrs

Session/week/ Module -1

Total Classes -4

Topic

Objectives

Before Class - Videos, e-Books, Case studies

In-Class – Activities, Quiz

(Micro teaching)

Post Class - Assignment, Discussion Forum

 

Day-1

Introduction to semiconductors

To understand about theory of semiconductors

https://www.youtube.com/watch?v=OVnVN0vSXn0

 

 

A text book of Engineering Physics by P G Kshirsagar& M N Avadhanulu, S Chand & company Ltd.

concept

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand basics of semiconductors.

 

 

Able to solve problems

 

 

Day-2

Intrinsic semi conductors - density of charge carriers

To understand about intrinsic semiconductors and their properties.

https://www.youtube.com/watch?v=OVnVN0vSXn0

Experimental method

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand carrier concentration in intrinsic semi conductor.

 

Able to solve problems

 

 

Day -3

Electrical conductivity – Fermi level

To understand about electrical conductivity and Fermi level in semiconductors

https://www.youtube.com/watch?v=OVnVN0vSXn0

Experimental method

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand electrical conductivity in semiconductors.

 

 

Day - 4

 

 

 

 

 

extrinsic semiconductors - p-type & n-type - Density of charge carriers

To understand about extrinsic semiconductors.

https://www.youtube.com/watch?v=OVnVN0vSXn0

Phenomenon

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

different types of extrinsic semiconductors. 

Able to solve problems

 

 

Day – 5

Dependence of Fermi energy on carrier concentration and temperature

To understand changes in Fermi energy of extrinsic semiconductor

https://www.youtube.com/watch?v=OVnVN0vSXn0

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

About carrier concentration and Fermi energy in extrinsic semiconductors.

 

 

Day – 6

Hall effect- Hall coefficient - Applications of Hall effect

To understand hall effect in semiconductors and its mechanism

https://www.youtube.com/watch?v=RlC9oaoP5iQ

Sequence of steps

 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand

Hall effect and its applications.

 

 

Day – 7

Drift current in semiconductors

To understand about current in semiconductors.

https://www.youtube.com/watch?v=1DRHT61Z_JI

 

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

About drift current in semiconductors

 

 

Day –8

Diffusion current

To understand about current in semiconductors.

https://www.youtube.com/watch?v=uK60QAKooyM

 

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min

 

Students understand

About diffusion current in semiconductors

 

Day – 9

Einstein’s equation.

To understand about relation between drift and diffusion currents in semiconductors.

https://www.youtube.com/watch?v=1DRHT61Z_JI

Sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min

 

Students understand

About relation between drift current and diffusion currents in semiconductors

 

 

 

 

 

 

 

 

 

 

 

Unit-5 MAGNETISM & DIELECTRICS

Outcome:

The students will be able to

·       explain the concept of dielectric constant and polarization in dielectric materials.

·       summarize various types of polarization of dielectrics.

·       interpret Lorentz field and Claussius_Mosotti relation in dielectrics.

·       classify the magnetic materials based on susceptibility and their temperature dependence.

·       explain the applications of dielectric and magnetic materials.

·       Apply the concept of magnetism to magnetic devices.

Knowledge Categories

1

Factual

Remembering the basics related to magnetism, insulators in macroscopic level

2

Conceptual

Understand the concept of  domain, Weiss, Bohr, lorentz theories

3

Procedural

Sequence of steps need to obtain the expression in magnetism and dielectrics

4

Applied

Assignments, Problem solving related to magnetism and dielectrics

 

Schedule and Sequence:

  Day Plan for unit- 5 - MAGNETISM & DIELECTRICS

   Total 11 hrs

Session/week/ Module -1

Total Classes -4

Topic

Objectives

Before Class - Videos, e-Books, Case studies

In-Class – Activities, Quiz

(Micro teaching)

Post Class - Assignment, Discussion Forum

 

Day-1

Introduction Magnetic dipole moment Magnetization-

Magnetic susceptibility and permeability

To remember  about basics of magnetism

https://www.youtube.com/watch?v=YGAiq9-QPWE

A text book of Engineering Physics by P G Kshirsagar & M N Avadhanulu, S Chand & company Ltd.

concept

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand magnetic materials

 

 

Able to solve problems

 

 

Day-2

Origin of permanent magnetic moment-Bohr Magneton

To understand how magnetism developed

https://www.youtube.com/watch?v=WwAtd6vj1c8

 

Principles

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand origin of magnetic moment

 

 

Day - 3

Classification of magnetic materials (Dia, Para and Ferro)

To understand about presence of magnetic dipoles

https://www.youtube.com/watch?v=1xFRtdN5IJA

 

phenomenon

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand nature of dipoles

 

 

 

Day - 4

 

 

 

 

 

Domain concept of Ferromagnetism

To understand about permanent dipoles

https://www.youtube.com/watch?v=YcvccsSHnkc

 

concepts

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand concept of domains

 

 

Day – 5

Hysteresis soft and hard magnetic materials

To understand about loops in ferromagnetic materials

https://www.youtube.com/watch?v=qNVWdI79FN4

 

Concepts

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand about ferromagnetic nature

 

 

Day – 6

Applications of Ferromagnetic materials.

To understand about temporary and permanent magnetic materials

https://www.youtube.com/watch?v=YcvccsSHnkc

 

applications

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand Weiss theory

Day – 7

Dielectric polarization Dielectric polarizability, Susceptibility and Dielectric

constant

To understand about damping due to invisible forces

https://www.youtube.com/watch?v=FfJZIAVSN20

 

concept

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

 (15 min)

Learning outcome

 

Students understand

About dielectric materials

Able to solve problems

 

 

Day – 8

types of polarizations: Electronic and Ionic (Quantitative), Orientational polarizations (qualitative)

To make students understand about resonance and their factors

https://www.youtube.com/watch?v=5e_RBvSj0TE

 

Concept, sequence of steps

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand polarisation depends on electric filed

 

Able to solve problems

 

 

Day-9

Lorentz internal field Claussius_Mossoti equation

To make students understand about fields developed between atoms

https://www.youtube.com/watch?v=2e1LqtFf_oU

 

Sequence of steps 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand internal fields in solids

Able to solve problems

 

 

 

Day-10

Frequency dependence of polarization

To make students understand AC and DC fields

https://www.youtube.com/watch?v=tErQDwN-qVs

 

concept 

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand AC fields in dielectrics

 

Day-11

Applications of dielectrics

To make students understand various applications

https://www.youtube.com/watch?v=R5ecGEVXtUQ

 

application

(30 mins)

 

Video (15 min)

 

Recap key concepts and questions

(15 min)

Learning outcome

 

Students understand various applications

 

Assignment / test on LMS

 

 


Applied Physics Lesson Plan

Andhra Loyola Institute of Engineeri...