Class 12 • Physics Resources

Class 12 Physics Olympiad

Olympiad Exam Registration for Class 12th Physics : Prepare for SCO International Physics Olympiad Class 12 with free study materials, sample papers, exam dates, and expert tips. Register now to compete globally.

Prepare for SCO International Physics Olympiad Class 12: Registration, Syllabus & Tips

Updated on: 31 Dec 2025

Engaging in a physics Olympiad sharpens conceptual understanding, hones analytical skills, and enhances academic profiles. The SCO International Physics Olympiad (SCO IPhO) for Class 12, organized by School Connect Olympiad, offers Grade 12 students worldwide a structured platform to challenge themselves in advanced physics topics and gain global recognition.

Why Choose SCO IPhO for Class 12?

Participating in SCO IPhO brings benefits that extend well beyond a certificate:

  • Deepens Curriculum Mastery: The exam questions push learners to apply Class 12 physics concepts (electromagnetism, optics, modern physics) in novel contexts rather than mere textbook recall. This cultivates genuine understanding and problem-solving agility.
  • Boosts Higher-Education Prospects: A strong Olympiad result signals analytical aptitude and dedication on university applications or scholarship forms. Competitive achievements stand out in STEM-oriented admissions.
  • Prepares for Other Competitions: Regular practice under Olympiad-style questions readies students for national/international exams such as INPhO or other physics contests, by familiarizing them with time-bound problem-solving.
  • Global Benchmarking: Students compare their performance against peers worldwide, gaining perspective on strengths and areas for improvement.
  • Access to Structured Resources: SCO provides free study materials, mock tests, and expert-led sessions to guide preparation systematically.
  • Recognition & Motivation: Certificates for all participants, plus merit distinctions or awards for top performers, inspire continued excellence and can be highlighted in portfolios or resumes.

Overview of SCO IPhO Exam Format

  • Mode: Available online (proctored) and at selected offline centers, enabling participation regardless of location.
  • Sessions: Multiple opportunities throughout the year; in 2025, sessions include dates such as 14 June, 15 October, and 12 November (verify on the portal)
  • Question Type: Primarily multiple-choice questions (MCQs) focusing on application-based scenarios across core physics areas.
  • Papers & Duration: Typically structured into three sections or papers, totaling around 150 marks; each section has a set time limit to practice time management.
  • Scoring: Full marks for correct answers, with no penalty for wrong answers (confirm via official guidelines), encouraging attempts on all items.
  • Result Timeline: Results are usually released within 24–48 hours, providing quick feedback for students to assess performance and adjust preparation if they retake in later sessions.

Eligibility & Participation

  • Who Can Enter: Any student enrolled in Class 12 (or equivalent pre-university) yet to commence undergraduate studies. A solid grasp of Class 11 and 12 physics is expected.

  • Global Accessibility: Open to learners from numerous countries; registration portals and exam modes accommodate international participants.
  • No Prior Olympiad Requirement: Beginners are welcome; familiarity with advanced topics improves readiness but is not mandatory.
  • Registration Flexibility: Multiple sessions allow students to choose dates that align with their study schedules and other exam commitments.

Key Advantages of SCO IPhO Participation

  1. Enhanced Conceptual Clarity
    Tackling non-routine MCQs on topics like electromagnetic induction or quantum phenomena reinforces theoretical foundations and encourages linking principles to real-world applications.
  2. Strengthened Problem-Solving Skills
    Regular timed practice under exam-like conditions builds speed, accuracy, and resilience—qualities beneficial for university entrance tests and research-oriented tasks.
  3. Portfolio Building
    Olympiad certificates and distinctions serve as evidence of extracurricular engagement and intellectual curiosity, valued by universities and scholarship programs.
  4. Networking & Exposure
    Through global ranking reports and forums, students see how peers approach problems, discover diverse learning resources, and sometimes connect for study collaborations.
  5. Free, Quality Study Materials
    SCO offers syllabus outlines, chapter-wise question banks, mock tests with analytics, webinars, and revision notes at no extra cost, ensuring equitable access to preparation tools.
  6. Recognition & Rewards
    Digital certificates for all, plus medals or trophies for top scorers, foster motivation. Exceptional performers may be featured in newsletters or invited to advanced sessions.

Exam Syllabus & Learning Outcomes

The syllabus aligns with advanced Class 12 physics curricula, covering both foundational theory and applications:

Chapter No.

Chapter Name

Learning Outcomes

1

Electrostatics

Grasp Coulomb’s law to calculate forces and fields for point charges; apply Gauss’s law for symmetric charge distributions; analyze electric potential and equipotential surfaces and relate potential differences to work done; solve capacitor problems including energy storage and dielectric effects.

2

Current Electricity

Understand drift velocity and current density linking microscopic motion to macroscopic current; use Ohm’s law and resistivity to analyze series and parallel circuits; apply Kirchhoff’s laws for solving complex networks; explore heating effects, power dissipation, and internal resistance in cells, computing efficiency.

3

Moving Charges and Magnetism

Describe the Lorentz force on moving charges and current-carrying conductors; analyze motion of charged particles in uniform magnetic fields (circular/helical trajectories); use Biot–Savart and Ampère’s laws qualitatively for simple current configurations; relate magnetic dipole moment and torque on loops to macroscopic magnetism.

4

Magnetism and Matter

Differentiate diamagnetic, paramagnetic, and ferromagnetic behavior and origins; analyze hysteresis qualitatively (coercivity, remanence, energy loss); understand Earth’s magnetism basics and applications; solve simple magnetic circuit problems calculating magnetomotive force and flux.

5

Electromagnetic Induction

Apply Faraday’s law to determine induced emf from changing magnetic flux; use Lenz’s law to find direction of induced currents; analyze self-induction and mutual induction, calculating inductance for simple geometries; solve RL transient circuits and understand time constants and energy in magnetic fields.

6

Alternating Current

Comprehend sinusoidal voltage/current, rms and peak values; analyze resistive, inductive, and capacitive AC circuits for phase relationships, impedance, and power factor; solve RLC circuit problems (resonance, bandwidth, quality factor); understand transformer principles and practical applications.

7

Electromagnetic Waves

Derive wave equations from Maxwell’s equations in free space; relate electric and magnetic field amplitudes and propagation speed; understand the EM spectrum, basic properties, and applications (communication, imaging); analyze simple reflection/refraction problems (Snell’s law) for EM waves at interfaces.

8

Ray Optics and Optical Instruments

Apply laws of reflection and refraction to trace rays through lenses and mirrors; use lens/mirror equations to locate images and calculate magnification; understand optical aberrations and ways to minimize them; analyze functioning of instruments such as microscope, telescope, and simple camera models.

9

Wave Optics

Explain interference phenomena (double-slit, thin films, wedge setups) and calculate fringe conditions; analyze diffraction patterns (single-slit, circular aperture) and their impact on resolving power; understand polarization types and production methods; solve quantitative problems on path differences and phase changes.

10

Dual Nature of Radiation and Matter

Understand photon concepts (energy–frequency relation, momentum) and apply photoelectric effect equations to compute stopping potential; apply de Broglie hypothesis to compute matter wavelengths and discuss observable wave behavior; analyze Compton effect qualitatively; relate duality insights to experiments like electron diffraction.

11

Atoms

Trace development of atomic models, derive Bohr model results for hydrogen-like atoms; calculate allowed orbits, energy levels, and spectral lines using Rydberg formula; understand limitations of Bohr model and basics of quantum perspective; solve numerical problems on energy transitions and photon emissions/absorptions.

12

Nuclei

Recognize nuclear properties (mass number, binding energy per nucleon) and calculate binding energies; compute Q-values for reactions and decay; describe types of radioactive decay and apply decay law for activity and half-life problems; appreciate applications in nuclear energy, medical imaging, and radiation safety.

13

Semiconductor Electronics: Materials, Devices and Circuits

Understand intrinsic vs. extrinsic semiconductors, doping effects on carrier concentration and conductivity; analyze p–n junction behavior under forward/reverse bias and its I–V characteristics; grasp basic transistor operation concepts (biasing, amplification) and solve simple diode and transistor circuit problems.

14

Communication Systems

Grasp fundamentals of signal transmission including analog vs. digital signals, bandwidth, and noise; understand basic modulation techniques (AM, FM) with block diagrams of transmitter/receiver; recognize antenna roles and propagation factors affecting signal quality; relate modern trends like digital modulation or fiber optics.

 

Complimentary Study Materials & Resources

SCO provides a structured set of free resources:

  • Detailed Syllabus Document: Breaks down subtopics, essential formulas, and concept maps for focused study.
  • Chapter-Wise Practice Sets: MCQs grouped by topic (e.g., 20–30 questions each) with full explanations to pinpoint areas needing review.
  • Full-Length Mock Exams: Simulate real exam conditions; analytics report time taken per question, accuracy rates, and topic-wise strengths/weaknesses.
  • Video Tutorials & Webinars: Expert sessions on challenging subjects—often recorded so participants can revisit.
  • Revision Notes & Formula Sheets: Concise summaries for quick last-minute refreshers.
  • Sample Question Papers: Representative problems reflecting exam style and difficulty.

 

Important Dates & Fee Structure

Below are illustrative session dates and fees for SCO IPhO Class 12 . Always confirm on the official portal before registering, as schedules may update.

Session

Date

Fee (INR)

Fee (USD)

Status (as of 13 June 2025)

Session 1

12 April 2025

200

12

Past

Session 2

10 May 2025

200

12

Past

Session 3

14 June 2025

200

12

Upcoming (choose if prepared soon)

Session 4

15 October 2025

200

12

Future

Session 5

12 November 2025

200

12

Future

  • Selection Advice: If preparation is ongoing, opt for a later session. If ready by mid-June, Session 3 gives prompt feedback before end-of-year exams.
  • Payment & Refunds: Fee is non-refundable; check if rescheduling is allowed by contacting support ahead of exam date.
  • Registration Deadlines: Usually close a week or two before the exam; verify and register early to avoid last-minute issues. schoolconnectonline.com

Marking Scheme & Cut-off Insights

  • Total Marks: Approximately 150 across multiple sections.
  • Correct Answer Scoring: Full marks per correct MCQ; typically no negative marking. Confirm in the official instructions received post-registration.
  • Sectional Focus: Each section targets clustered topics (e.g., one paper for electromagnetism & optics, another for modern physics & applications).
  • Normalization: When multiple sessions are held, SCO may normalize scores to account for slight variations in difficulty across dates.
  • Cut-off Trends: While exact past cut-offs are internal, aiming for a raw score above ~75–85% in mock tests is a good benchmark. Use analytics from mock tests to gauge readiness.
  • Answer Key & Self-Evaluation: Official keys are released soon after exams; immediate self-assessment helps identify weak areas.

Preparation Strategies

  1. Plan by Topic
    • Divide the timeline leading up to your chosen session into topic blocks, allocating more time to challenging areas (e.g., electromagnetic induction, quantum topics).
    • Use revision cycles: initial reading → practice questions → deeper problem-solving.
  2. Mock Tests & Analytics
    • Take full-length timed mocks to build endurance and speed.
    • Analyze results: track accuracy, time per question, and topic-wise performance; revisit weaker topics accordingly.
  3. Conceptual Learning
    • Emphasize understanding derivations, visualizing phenomena (field lines, wave behavior), and connecting theory to applications.
    • Use multiple resources (textbooks, online lectures) for varied explanations. en.wikipedia.org
  4. Peer Interaction & Mentorship
    • Attend expert-led webinars or coaching sessions when available.
  5. Time Management Drills
    • Practice solving subsets of questions under shorter time limits to improve quick reasoning.
    • During the actual exam, first attempt questions you find straightforward, then devote remaining time to complex ones.
  6. Regular Revision
    • Keep concise formula sheets and concept maps for last-minute reviews.
    • Periodically revisit earlier chapters to reinforce retention.
  7. Exam-Day Preparedness
    • Review exam guidelines: permitted materials, identification, technical checks (for online mode).
    • Maintain a healthy routine (sleep, nutrition, short breaks) in the lead-up.

Registration Process

  1. Visit Official Portal: Go to the School Connect Olympiad website and select “SCO International Physics Olympiad (IPhO) Class 12” under exam registration
  2. Provide Details: Enter accurate personal, academic, and contact information. For international entries, ensure correct country code and address.
  3. Select Mode & Session: Choose online or offline mode and pick a session date that suits your preparation plan.
  4. Upload Documents: If required (e.g., school endorsement or ID proof), follow instructions on the portal.
  5. Payment: Pay the fee (INR 200 / USD 12) via the available methods; save confirmation.
  6. Receive Confirmation & Resources: After successful payment, get a confirmation email with exam instructions, study resources, and access to mock tests.
  7. Prepare & Take Exam: Follow your study schedule, use mock tests, and attempt the exam as per guidelines.
  8. Post-Exam Review: Check answer key when released, analyze performance report, and decide if you wish to register for a subsequent session or related Olympiads.

How SCO IPhO Aids Global Olympiad Preparation

  • Bridges School Syllabus and Olympiad Rigor: By covering advanced Class 12 topics in applied formats, SCO IPhO readies students for national selection exams (e.g., INPhO), which often form the first step toward the International Physics Olympiad en.wikipedia.org.
  • Analytical Versatility: Regular exposure to varied problem styles builds the ability to tackle theoretical proofs and experimental design questions in later stages.
  • Feedback Loop: Performance analytics highlight specific topic gaps before national-level tests, enabling targeted improvement.
  • Confidence Building: Success in SCO IPhO fosters self-belief, essential when competing in high-stakes environments.

Global Reach and Community: Country-Specific Insights

  • India
    • Mode & Scheduling: Online proctored or offline in major cities (IST slots).
    • Fee & Payment: INR 200 via UPI/net banking/cards; register early to avoid deadlines.
    • Prep Resources: Align with NCERT Class 12; use SCO mock tests plus H.C. Verma or online lectures.
    • Community: Join school/coach-led WhatsApp or Telegram groups; attend local webinars.
  • United States / Canada / UK / Australia and Other European countries for SCO IPhO
    • Mode of Exam & Scheduling: Primarily online proctored and Offline when school participating or country organising.
    • Fee & Payment: USD 12 charged in USD (or equivalent); use international cards/PayPal, watch for conversion fees.
    • Prep Resources: Map to AP/IB/A-level/Canadian/Australian curricula; supplement with MIT OCW, Khan Academy, local university outreach.
    • Community: Form virtual study groups (Discord/Reddit/school clubs); participate in SCO international webinars suited to your timezone.
  • Nigeria / Kenya / South Africa / Other African Regions
    • Mode & Scheduling: Online proctored; offline only via organized group registrations if local partners exist. Plan West Africa/EAT/SAST vs. IST timing.
    • Fee & Payment: USD 12; arrange international payment methods early to avoid forex issues.
    • Prep Resources: Align SCO topics with national exam syllabi (WAEC, KNEC, CAPS); use free online content for tough chapters.
    • Community: Collaborate via school or NGO-led Olympiad clubs; join WhatsApp/Telegram groups of regional aspirants; attend virtual Q&A sessions.
  • Middle East (UAE, Saudi, etc.)
    • Mode of Exam & Scheduling: Offline and offline
    • Fee & Payment: USD 12 or local currency if supported; use international payment methods, check for any local options.
    • Prep Resources: Match SCO syllabus with CBSE/IB or local curricula; leverage regional coaching institutes and online resources.
    • Community: Engage through international school networks, local science clubs, and SCO webinars timed for the region.
  • South Asia (Bangladesh, Nepal, Sri Lanka)
    • Mode & Scheduling: Online proctored; offline via partner schools if arranged; IST-aligned timing simplifies scheduling.
    • Fee & Payment: USD 12 or INR 200 via supported gateways; register early to avoid payment glitches.
    • Prep Resources: Use NCERT-aligned materials plus SCO mock tests; local coaching or YouTube tutorials for difficult topics.
    • Community: Form peer groups via school Olympiad cells or online chats; attend regional virtual study sessions.
  • Other Countries
    • Mode & Scheduling: Default to online proctored; check SCO portal for any local centers. Convert IST slots appropriately.
    • Fee & Payment: USD 12; ensure your payment method supports international transactions.
    • Prep Resources: Map syllabus to your national/IB/AP-equivalent topics; use global free resources (NCERT, Khan Academy, MIT OCW).
    • Community: Reach out via school coordinators or create/join online study groups; look for SCO region-specific webinars or forums.

FAQs

How many sessions are offered, and what is the fee?

In a year five sessions (e.g., April, May, June, October, November) are scheduled; the fee is INR 200 (USD 12) per session. Check the portal for updated dates and deadlines.

What resources does SCO provide for preparation?

Free syllabus PDFs, chapter-wise question banks, mock tests with analytics, video tutorials, revision notes, and sample papers accessible after registration.

How is the exam structured and scored?

Typically three MCQ-based sections totaling ~150 marks, full marks for correct answers, no negative marking. Results are released within 1–2 days post-exam.

Are there offline exam centers for international students?

SCO offers offline centers in many participating countries; if unavailable locally, students may opt for the online proctored mode.

What recognition do participants receive?

Digital certificates for all, merit certificates or medals/trophies for top performers, and possible features in SCO publications or invitations to advanced sessions.

How soon are results declared?

Generally within 24–48 hours after the exam session; participants get email notifications and can view detailed performance analytics on their dashboard.

How should I plan my study timeline?

Begin months before your chosen session: map topics (electrostatics, optics, modern physics, etc.), schedule chapter-wise practice, incorporate mock tests, review analytics, and revise weaker areas well ahead of the exam date.

Important Links

NCERT Physics Textbooks & Syllabus

Khan Academy Physics lessons

Other Important Links

SCO IPhO registration

Download Class 12 Physics Olympiad syllabus

Practice with SCO IPhO sample questions

How to plan SCO IPhO preparation

SCO IPhO FAQs

Result & Analytics Dashboard

 

Chapters & Topics

Chapter 1. Electrostatics
Topic 1Electric Charge
Topic 2Unit of Charge
Topic 3Conductors and Insulators
Topic 4Coulomb’s Law
Topic 5Permittivity of a Medium
Topic 6Coloumb’s Law in Vector Form
Topic 7Principal Of Superposition
Topic 8Force due to Continuous Charge Distributions
Topic 9Electric Field
Topic 10Electric Intensity or Electric Field Strength
Topic 11Force Exerted by a Field on a charge Inside it
Topic 12Electric Field Intensity due to a Point Charge
Topic 13Electric Field Intensity due to a group of Point Charges
Topic 14Electric Field of Continuous Charge Distributions
Topic 15Motion of a Charged Particle in an Uniform Electric Field
Topic 16Electric Line of Force
Topic 17Flux of an Electric Field or Electric Flux
Topic 18Gauss’s Law
Topic 19Field due to an Infinite Line of Charge
Topic 20Field due to an Infinite Plane Sheet of Charge
Topic 21Electric Filed due to a Uniformly Charged Spherical Shell
Topic 22Electric Field due to a Uniformly Charged Sphere
Topic 23Conductors
Topic 24Electrostatic Shielding
Topic 25Force on the surface of a Charged Conductor
Topic 26Energy Density of an Electric Field
Topic 27Electric Potential
Topic 28Electric Potential at a Point due to a Point Charge
Topic 29Electric Potential due to a group of Point Charges
Topic 30Electric Potential due to a continuous charge distribution
Topic 31Calculation of Electric Field from Electric Potential
Topic 32Equipotential Surfaces
Topic 33Electric Potential Energy
Topic 33Earthing a conductor
Topic 34Electric Dipole
Topic 35Capacity of an Isolated Conductor
Topic 37Capacitor
Topic 38Effect of Dielectric
Topic 39Grouping of Capacitors
Topic 40Redistribution of Charge
Topic 41Solved Objective Examples
Topic 42Solved Subjective Examples
Chapter 2. Current Electricity
Topic 1Electric Charge And Current
Topic 2Electromotive Force And Voltage
Topic 3Resistance
Topic 4Ohm’s Law
Topic 5Resistivity And Origin Of Resistivity
Topic 6Relation Between Current And Drift Velocity
Topic 7Temperature Dependence Of Resistance
Topic 8Colour Code For Carbon Resistor
Topic 9Non Ohmic Conductors
Topic 10Super Conductivity
Topic 11Emf Of A Cell And Its Internal Resistance
Topic 12Grouping Of Resistances
Topic 13Grouping Of Cells
Topic 14Arrangement Of Cells For Maximum Current
Topic 15Kirchhoff’s Law
Topic 16Electrical Devices
Topic 17Meter Bridge
Topic 18Potentiometer
Topic 19Ammeter
Topic 20Voltmeter
Topic 21Heating Effect Of Current
Chapter 3. Moving Charges and Magnetism
Topic 1Magnetic Effects of Current
Topic 2Biot Savart's Law
Topic 3Direction of Magnetic Field
Topic 4Application of Biot Savarts Law
Topic 5Amperes Law
Topic 6Application of Amperes law
Topic 7Motion of Charged Particle in a Magnetic Field
Topic 8Cyclotron
Topic 9Force on a Current Carrying Conductor in Magnetic Field
Topic 10Force Between Two Parallel Current Carrying Conductors
Topic 11Force Between Two Moving Charges
Topic 12Standard Cases for Force on Current Carrying Conductors
Topic 13Current Loop As a Magnetic Dipole
Topic 14Behaviour of Current loop In a Magnetic Field
Topic 15Moving Coil Galvanometer
Chapter 4. Magnetism and Matters
Topic 1Magnetism Introduction
Topic 2Bar Magnet
Topic 3Various Terms Related to Magnetism
Topic 4Force and Field
Topic 5Earth’s magnetic Field (Terrestrial Magnetism)
Topic 6Elements of Earth's Magnetic Field
Topic 7Magnetic Maps and Neutral Points
Topic 8Tangent Law and it's Application
Topic 9Magnetic Instruments
Topic 10Magnetic Materials
Chapter 5. Electromagnetic Induction
Topic 1Electromagnetic Induction Introduction
Topic 2Faraday's Laws of Electromagnetic Induction
Topic 3Lenz's Law
Topic 4Fleming's Right Hand Rule
Topic 5Eddy Currents
Topic 6Inductor
Topic 7Self Induction
Topic 8Mutual Induction
Topic 9Combination of Inductances
Topic 10Energy Stored in an Inductor
Chapter 6. Alternating Current
Topic 1Alternating Currents
Topic 2Mean or Average Value of Alternating Current or Voltage over one Complete Cycle
Topic 3Mean Value or Average Value of Alternating Current over any Half Cycle
Topic 4Root Mean Square (rms) Value of Alternating Current
Topic 5Form Factors
Topic 6AC Circuit Containing Pure Resistance only
Topic 7AC Circuit Containing Pure Inductor only
Topic 8AC Circuit Containing Pure Capacitor only
Topic 9Series LCR Circuit
Topic 10Impedance Triangle
Topic 11Admittance
Topic 12Resonant Series LCR Circuit
Topic 13Quality Factor
Topic 14Power In An AC Circuit
Topic 15Power Factor
Topic 16Wattless Current
Topic 17Transformer
Topic 18AC Generator and Dynamo
Topic 19DC Generator or Dynamo
Topic 20DC Motor
Chapter 7. Electromagnetic Waves
Topic 1Maxwell’s Contribution
Topic 2Electromagnetic Waves
Topic 3Electromagnetic Spectrum
Topic 4Earth’s Atmosphere
Chapter 8. Ray Optics and Optical Instruments
Topic 1Reflection of Light
Topic 2Plane Mirror
Topic 3Curved Mirror
Topic 4Mirror Formula and Magnification
Topic 5Refraction of Light
Topic 6Snell’s Law
Topic 7Refractive Index
Topic 8Refraction Through a Glass Slab and Optical Path
Topic 9Real and Apparent Depth
Topic 10Total Internal Reflection
Topic 11Refraction From Curved Surface
Topic 12Lens
Topic 13Prism
Topic 14Scattering of Light
Topic 15Rainbow
Topic 16Colours
Topic 17Spectrum
Topic 18Human Eye
Topic 19Microscope
Topic 20Telescope
Chapter 9. Wave Optics
Topic 1Light Propagation
Topic 2Principle of Super Position
Topic 3Interference of Light
Topic 4Young’s Double Slit Experiment (YDSE)
Topic 5Illustrations of Interference
Topic 6Doppler’s Effect in Light
Topic 7Fresnel's Biprism
Topic 8Diffraction of Light
Topic 9Polarisation of Light
Chapter 10. Dual Nature of Radiation and Matter
Topic 1Dual Nature of Radiation and Matter Introduction
Topic 2Electron Emission
Topic 3Experimental Study of Photoelectric Effect
Topic 4Wave Nature of Matter
Topic 5Davisson and Germer Experiment
Topic 6Einstein’s Photoelectric Equation Energy Quantum of Radiation
Chapter 11. Atoms
Topic 1Important Atomic Models
Topic 2Bohr's Orbits
Topic 3Hydrogen Spectrum and Spectral Series
Topic 4Quantum Numbers
Topic 5Electronic Configurations of Atoms
Chapter 12. Nuclei
Topic 1Nuclear Physics and Radioactivity
Topic 2Neutron
Topic 3Nucleus
Topic 4Mass Defect and Binding Energy
Topic 5Binding Energy Curve
Topic 6Nuclear Reactions
Topic 7Nuclear Fission and Fusion
Topic 8Nuclear Reactor
Topic 9Nuclear Bomb
Topic 10Radioactivity
Topic 11Properties of Alpha Beta and Gamma Rays
Topic 12Radioactive Disintegration
Topic 13Radioactive Series
Topic 14Successive Disintegration and Radioactive Equilibrium
Chapter 13. Semi conductor Electronics:Materials,Devices and Simple circuit
Topic 1Semiconductor Electronics Materials, Devices and Simple Circuits
Topic 2Classification of Metals, Conductors and Semiconductors
Topic 3Intrinsic Semiconductor
Topic 4Extrinsic semiconductors
Topic 5p n Junction
Topic 6Special Purpose p n Junction Diode
Topic 7Semiconductor Diode
Topic 8Digital Electronics and Logic Gates
Topic 9Junction Transistor Structure and Action
Topic 10Junction Transistor Circuit Configurations and Characteristics
Topic 11Junction Transistor as a Device
Topic 12Junction Transistor as a Feedback Amplifier and Transistor Oscillator
Topic 13Application of a Junction Diode as a Rectifier
Chapter 14. Communication Systems
Topic 1Communication Systems Introduction
Topic 2Basic Terminology Used in Communication Systems
Topic 3Propagation of Electromagnetic Waves
Topic 4Bandwidth of Signals
Topic 5Bandwidth of Transmission Medium
Topic 6Amplitude Modulation
Topic 7Modulation and Its Necessity
Topic 8Production of Amplitude Modulated Waves
Topic 9Detection of Amplitude Modulated Wave

Downloads

Download syllabus, sample papers, previous year papers, and answer keys for this subject.