Basic Physics detailed Syllabus for Electronics & Communication Engineering (DECE), C18 curriculum has been taken from the TSSBTET official website and presented for the diploma students. For Course Code, Course Name, Lectures, Tutorial, Practical/Drawing, Internal Marks, Max Marks, Total Marks, Min Marks and other information, do visit full semester subjects post given below.
For all other Diploma in Electronics & Communication Engineering (DECE) Syllabus for 1st Sem C18 Curriculum TSSBTET, do visit Diploma in Electronics & Communication Engineering (DECE) Syllabus for 1st Sem C18 Curriculum TSSBTET Subjects. The detailed Syllabus for basic physics is as follows.
Prerequisites:
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Course Objective:
After studying this course, the student will be able to understand and appreciate the role of Engineering Physics in different areas of engineering and technology.
Course Outcome:
On successful completion of the course, the student will have the ability to attain below
- Write the correct units and dimensions of physical quantities and know the concept of friction
- Apply knowledge of vectors as a tool to solve engineering problems
- Apply knowledge of mechanics to solve engineering problems
- Apply knowledge of properties of matter to understand engineering problems
- Apply Heat and thermodynamic processes to solve engineering problems
- Apply conservation laws to engineering problems and utilization of energy sources
Unit – 1, Dimensions and Friction
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Unit – 2 Elements of Vectors
Scalar and vector quantities – definitions and examples – Graphical representation of a vector – Classification of vectors (Proper vector, ut vector, Equal vector, Negative vector, Collinear vector and Position vector) Resolution of vector – Triangle law of vector addition – Parallelogram law of vectors – statement- expression for magnitude and direction of resultant vector -derivation- illustrations(working of sling and flying bird) -Representation of a vector in unit vectors i, j and k – Dot product of vectors-definition- application to work done by force – properties of dot product – Cross product of vectors -definition – Right hand thumb rule and right hand screw rule – application to moment of force – properties of vector product – area of parallelogram and triangle in terms of cross product – – related problems
Unit – 3 Mechanics
Projectile motion – definition – examples – Horizontal projection – Time of flight and Horizontal range – derivations – Oblique projection – Expression for path of a projectile in oblique projection – derivation- Maximum height, Time of ascent, Time of descent, Time of flight and Horizontal range and maximum horizontal range – derivations – Circular motion, angular velocity, time period and frequency of revolutions-Definitions- Relation between linear velocity and angular velocity – derivation-centripetal force – centrifugal force – definitions and expressions only- application (banking of curved path) – angle of banking- expression only – related problems
Unit – 4 Properties of Matter
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Unit – 5 Heat and Thermodynamics
Heat – expansion of gases – Boyles law -concept of absolute zero – Absolute scale of temperature – Charles laws – Ideal gas equation – derivation – value of universal gas constant R – Isothermal and Adiabatic, processes – Differences between isothermal and adiabatic processes – Internal energy and external work done – Expression for work done – derivation – first law of thermodynamics -application of first law to isothermal, and adiabatic processes – second law of thermodynamics – specific heat of a gas – molar specific heat of a gas – definitions – derive relation between CP and Cv- related problems.
Unit – 6 Conservation Laws and Energy Sources
Work and Energy – Potential Energy and kinetic energy-examples – expressions for PE and KE-derivations – Work- Energy theorem – derivation – Law of conservation of energy – examples – Law of conservation of energy in the case of freely falling body -proof – Illustration of conservation of energy in the case of simple pendulum- Non renewable and renewable energy sources – definition and applications (solar cooker, wind mill and biogas) – Green house effect – related problems
References:
For the complete Syllabus, results, class timetable, and many other features kindly download the iStudy App
It is a lightweight, easy to use, no images, and no pdfs platform to make students’s lives easier..
Course Outcome:
Upon completion of the course the student shall be able to
Know the Concepts of Units, Dimensions and Friction
- Define Physical quantity, fundamental quantity and derived physical quantities
- Define ut.
- List advantages of S.I. units
- Define dimensions and dimensional formula.
- Write dimensional formulae of physical quantities
- State principle of homogeneity of dimensions.
- State applications of dimensional analysis.
- Define friction and state its causes.
- State types of friction
- Explain normal reaction.
- State laws of friction.
- Define coefficients of friction.
- Derive expression for acceleration of a body moving on rough horizontal surface.
- Derive expressions for displacement and time taken to come to rest and work done in the case of a body moving on a rough horizontal surface.
- List the advantages and disadvantages of friction.
- Solve related numerical problems in friction only.
Know the Concepts of Elements of Vectors
- Define scalar and vector quantities with examples.
- Represent a vector graphically.
- Classify types of vectors – Proper vector, U=nit vector, Equal vector, Negative vector, Collinear vector and Position vector.
- Resolve a vector – Vector and Scalar components and relation between them.
- State and explain Triangle law of vector addition
- State Parallelogram law – derive expression for magnitude and direction of resultant vector.
- Illustrations of parallelogram law – working of sling and flying bird.
- Representation of vector in terms of unit vectors (i,j,k)
- Define Dot product of vectors
- Application of dot product for work done by force.
- List the properties of dot product.
- Define Cross product of vectors.
- Apply cross product in the case of moment of force.
- Explain Right hand screw rule and right hand thumb rule.
- Expressions for area of parallelogram and triangle in terms of cross product.
- List the properties of cross product.
- Solve related problems
Know the Concepts of Mechanics
- Define Projectile motion with examples
- Define Horizontal projection – Derive expressions for (a) Time of flight (b) Horizontal range
- Define Oblique projection- Derive expression for path of a projectile in oblique projection.
- Derive expressions for (a) Maximum height (b) Time of ascent (c) Time of descent (d) Time of flight (e) Horizontal range and (f) maximum horizontal range in oblique projection.
- Define circular motion.
- Define angular velocity, time period and frequency of revolutions in circular motion.
- Derive the relation between linear velocity and angular velocity.
- Define centripetal and centrifugal forces.
- Define angle of banking.
- Explain banking of curved path and write the expression for angle of banking.
- Solve related numerical problems.
Know the Concepts of Properties of Matter
- Define the terms Elasticity and Plasticity with examples
- Define Stress and Strain and write their expressions.
- Define elastic limit and state Hookes law.
- Define modulus of elasticity.
- Define Youngs modulus
- Derive the formula for Youngs modulus.
- Define cohesive force and adhesive force.
- Define Surface tension. Give illustrations of Surface tension
- Define capillarity and angle of contact.
- List the examples for capillarity.
- Write the formula for Surface tension T = hdgr based on capillarity.
- Define Viscosity. Give illustrations of viscosity.
- Derive Newtons formula for viscous force.
- Define coefficient of viscosity.
- Write Poiseuilles equation for coefficient of viscosity.
- Discuss effect of temperature on viscosity of liquids and gases.
- Define streamline flow, turbulent flow.
- Define Reynolds number.
- State equation of continuity and explain the terms with diagram.
- Solve related problems
Know the Concepts of Heat and Thermodynamics
- Explain expansion of gases.
- State and explain Boyles law and its limitations
- Explain concept of absolute zero using the relations Pt=P0(1+t/273) and Vt= V0(1+ t/273)
- Define Absolute scale of temperature
- State Charles law in terms of absolute temperature
- Define Ideal gas and derive ideal gas equation
- Calculate the value of Universal gas constant (R)
- State gas equation in terms of density
- Define Isothermal and Adiabatic processes.
- Distinguish between isothermal and adiabatic processes.
- Explain the terms internal energy and external work done
- Derive the expression for work done by the gas [W=P(V2-V1)]
- State first law of thermodynamics.
- Application of first law to isothermal and adiabatic processes.
- State second law of thermodynamics.
- Define specific heat a gas.
- Define molar specific heat of a gas.
- Derive the relation between CP, Cv and R.
- Solve related problems
Know the Concepts of Conservation Laws and Energy Sources
- Define work and energy.
- Define potential and kinetic energy with examples
- Derive the expressions for Potential energy and Kinetic energy.
- State and prove Work-Energy theorem.
- State law of conservation of energy with example.
- Derive the law of conservation of energy in the case of a freely falling body.
- Illustrate law of conservation of energy in the case of simple pendulum.
- Define non renewable and renewable energy sources. Give examples
- Explain solar cooker, wind mill and biogas.
- Explain briefly Green house effect.
- Solve related numerical problems.
Suggested Student Activities
- Student visits Library to refer Text books, reference books and manuals to find their specifications.
- Student inspects the available equipment in the Physics Lab to familiarize with them.
- Quiz
- Seminar
- Group discussion
- Surprise test
For detail Syllabus of all other subjects of Electronics & Communication Engineering, C18 curriculum do visit Diploma In Electronics & Communication Engineering 1st Sem Syllabus for C18 curriculum.
For all Electronics & Communication Engineering results, visit TSSBTET DECE all semester results direct links.
Physics lab