CBSE Class 12th Physics Sample Paper 2026-27 | Complete Paper Analysis | Ashu Sir

Main ideas & lessons (complete paper analysis)

• The speaker (Ashu Ghai) introduces himself and frames the video as an analysis of the CBSE Class 12 Physics Sample Paper (2026–27):

  • Is it easy or difficult?
  • How does it compare with previous years?
  • How much emphasis is there on derivations vs concepts/numericals?

• Overall format remains consistent across sample papers:

  • 33 questions
  • Sections A–E
  • All questions are compulsory
  • Choice exists in some questions
  • Calculator not allowed
  • Constants are provided (though the speaker advises knowing core constants as well)

• The speaker claims MCQ difficulty is lower this year compared to last year:

  • Many MCQs are labeled “very easy” or basic-level, especially for students who have studied core NCERT topics.

Detailed breakdown of the types of changes in this year’s paper

MCQ section (Section A/B as discussed)

• MCQs appear simpler and more concept/numerical based.

• The speaker notes a shift in Electromagnetic Waves:

  • Previously, questions were more application/use-based (examples mentioned: radio waves, microwave uses, welding sunglasses protection, etc.).
  • This time, at least some questions are based more on the electromagnetic wave equation (numerical style, simpler).

• Example question themes referenced by the speaker:

  • Charge on a Gaussian surface: effect of radius halved/doubled
  • Heater-related current/heat type question (doable for students familiar with Class 10 NCERT)
  • Long cylinder + current direction: identifying clockwise vs anticlockwise
  • Huygens’ Principle (conceptual: which does not explain)
  • Wavefront (easy if Wave Optics is studied)
  • Binding energy / nuclei: two questions tied to binding energy and related understanding
  • Current electricity + magnetism basics: in a superconducting context (framed as very basic)
  • Wheatstone bridge/balancing condition (speaker misspeaks “Wheat,” but context is bridge/balancing)
  • AC circuit with two bulbs: series/AC power rating style
  • Bohr atom orbit radius calculation using given formulas
  • Moving charges & magnetism: magnetic field at center due to a half circular loop
  • “Extension region” questions described as easy (minimal extra burden implied)

Section B (as described)

• The speaker emphasizes again: no application-based electromagnetic wave question this time.
• Mentions a numerical from electromagnetic waves exists.
• Other example themes:
  • Free electron natural path in an electric field context (easy)
  • Work done for two charges / potential energy extraction using a relation of the form ( \frac{k q_1 q_2}{r} )
  • Magnetism & matter topics (paramagnetic/diamagnetic/ferromagnetic types) referenced as repeated annually
  • Gauss’s Law & Magnetism: speaker claims no derivations are required (conceptual understanding only)
  • Semiconductors: introduces band theory unexpectedly (previously less emphasized)
  • Refraction lens/numerical including “refractive index” + incidence angle
  • Diamond sparkle: theory-based (likely connected to refraction/internal reflection)
  • Derive Snell’s Law is mentioned as a derivation requirement (first derivation highlighted)

Derivations vs non-derivations (major lesson)

• The speaker’s strongest message: Derivations are scarce in this sample paper.

• About two derivations are identified:

  1. Snell’s Law of Refraction (highlighted as important)
  2. Electric field = negative potential gradient
     • ( \vec{E} = -\frac{dV}{dx} ) (as stated)

• Additional derivation-oriented topics exist in the syllabus (e.g., microscope magnification/other optics derivations), but the speaker says they do not appear in the sample paper.

Strategy / consequence

• For 95+ marks, derivations still matter—but for passing/good marks, focus more on:
  • Concepts
  • Numericals
• Recommended rule of thumb: 70–30 rule
  • 30% theory
  • 70% numericals

Section D & E characteristics (case-based, and remaining expectations)

Section D

• Contains case-based questions:
  • Case 1: linked to semiconductors
  • Case 2: described as dual nature related, typically graph/case-question style

Section E

• Speaker expected more derivations but says expectations are only partly met.
• Mentions:
  • Capacitance / electric device / capacitors: conceptual numerical questions
  • “Show that electric field…” type relation (counts as derivation)
  • Compound microscope magnification numerical (speaker says no derivation required)
  • Lens/microscope/telescope optics: an “option” strategy discussed (not always applicable)
  • Transformer: conservation of energy via power relation; speaker says no derivation required
  • LCR resonance: resonance condition; says no derivation needed

Difficulty rating and comparison to other years

• Difficulty is said to vary year to year:
  • Sometimes difficult (example: last year)
  • Sometimes easy
  • This year is positioned as moderate
• Rated around 6–7 out of 10 (moderate difficulty)

Methodology / action plan (explicit instructions)

• How to prepare based on this paper’s pattern:

  • Don’t over-focus on derivations (few appear)
  • Prioritize:
    • Concept clarity
    • Numerical solving
  • Use the 70–30 rule:
    • 30% theory reading
    • 70% numerical practice

• If the sample paper feels difficult:

  • Enroll in their Batch 3.0 (promotional call)

Batch 3.0 coverage plan

• Target students with different starting points:
  • Those who haven’t studied yet
  • Those who did well in mid-terms
  • Those targeting 95+
• Coverage speed:
  • 60–70% syllabus (already completed) via fast track:
    • chapter overview + many live questions
      • competency-based
      • sample-paper-based
  • Remaining 40–30% taught in detail live
• Recordings:
  • Batch 3.0 students get recordings of 1.0 for free
• Price mentioned: ₹999
• Extra learning:
  • Practice questions at multiple levels above the sample paper difficulty

Speakers / sources featured (as stated or directly referenced)

• Ashu Sir / Ashu Ghai (main speaker; “Ashu Ghai 11th 12th” referenced)
• CBSE (source of the sample paper; “released on CBSE website”)
• NCERT (content reference: chapters like Moving Charges & Magnetism, Wave Optics, Semiconductors, Nuclei, etc.)
• Niels Bohr (mentioned for Bohr’s atom formulas)
• No other distinct speakers/characters are featured in the subtitles.