Physics Chapters to Score 90+ in JEE Main 2027: ABJ Sir’s Strategy
JEE Main 2027 · Physics Strategy
Physics Chapters to Score 90+ in JEE Main 2027: ABJ Sir's Strategy
STRATEGY BY
Amit Bijarnia Sir (ABJ Sir)
Physics Faculty | 18 Years Experience | B.Tech, IIT Delhi
Yes, 90 out of 100 in JEE Main Physics is a realistic target, and ABJ Sir's case rests on seven years of paper analysis. Physics is 25 questions for 100 marks: 20 multiple choice questions and 5 integer type questions, with negative marking on all of them. The plan has three layers. First, finish the Tier 1 chapters before the January attempt, because they are compulsory. Second, spend the remaining time on Tier 2, and leave Tier 3 for the end. Third, attempt the paper in two rounds inside 55 to 60 minutes, picking the 90 second questions first. The rest of this guide gives you the full tier lists, the section weightage, the removed topics, the chapters that return the most marks for the least time, the 12 experiments, and the exact two round method.
Most students ask the wrong first question about Physics. They ask which chapters to skip. ABJ Sir's answer, after analysing seven years of JEE Main papers, is that skipping is the wrong frame altogether. Physics rewards coverage: every chapter gets roughly a question, a few chapters get two, and the paper is set so that a student who has attended lectures, practised PYQs, given tests, and learnt question selection can reach 90 out of 100. Two questions are allowed to go wrong in that calculation, because a couple of questions can be Advanced level or built on an obscure fact. The point is not that 90 is easy. The point is that 90 is a planning problem, not a talent problem, and planning is exactly what this guide does.
There is one more reason Physics deserves this attention first. The same 90 marks in Mathematics, ABJ Sir says, would take about double the time in Main. In Advanced the equation reverses, but Main is the paper in front of you, and in Main, Physics gives back the most marks per hour of preparation. That single fact should decide where your next month of effort goes.
A note on honesty before the lists begin. Every number in this guide comes from ABJ Sir's analysis of past papers, not from an official NTA weightage table, because NTA does not publish one. Past trends also do not guarantee future distribution. Treat every figure here as a planning estimate from seven years of evidence, and use it to order your preparation, not as a list of chapters to skip.
In this guide
- The short answer: why 90 is realistic
- The paper pattern, and how it became stable
- Class 11 vs Class 12: the myth about weightage
- Where the 25 questions come from
- Chapters that can give two questions
- Topics removed from the syllabus
- Tier 1: compulsory before January
- Tier 2: desirable, do them next
- Tier 3: leave these for the end
- High marks in the least time
- The 12 experiments NTA keeps asking
- The two round method for 55 to 60 minutes
- Mistakes that cost Physics marks
- FAQs
The Short Answer: Why 90 Is Realistic
Start with the arithmetic of the paper, because the target only makes sense once the paper is clear. Physics in JEE Main is 25 questions, each worth 4 marks, for a total of 100. Twenty of them are single correct multiple choice questions, where one of four options is right and three are wrong. Five are integer or numerical value questions. Negative marking applies to both types, so guessing carries a cost in every section.
The 90+ plan in four steps
Finish Tier 1 first
Complete every Tier 1 chapter before the January attempt. These are compulsory, and they carry the paper.
Cover Tier 2 next
Move to the desirable chapters only after Tier 1 is solid. They add the next block of marks.
Where the next marks liveAttempt in two rounds
Solve the 90 second questions first, then return for the longer ones. Never attempt in paper order.
Where time is savedPractise integers by PYQ
Work integer questions through PYQs, most asked first, so the section never catches you off guard.
Now the target itself. A student who has attended lectures properly, worked through PYQs, given a good number of tests, and learnt to select questions can reach 90 out of 100 without anything extraordinary. The calculation already allows two questions to go wrong, which covers the Advanced level question or the question built on an obscure fact that appears in most papers. What it does not allow is leaving whole chapters untouched, because the paper spreads one question across nearly every chapter. Coverage is the strategy, and the tiers below are simply coverage in the right order.
The Paper Pattern, and How It Became Stable
The pattern students face today did not arrive all at once. It settled in stages over seven years, and knowing the stages explains why the current pattern is unlikely to surprise you. In 2020, integer type questions were introduced alongside single correct questions. During Covid, students were given relief: the integer count went up to 10, with only 5 to be attempted. That arrangement continued into 2022, with one important change: negative marking was introduced for integer questions too, where earlier there had been none.
| Year | What changed | What it means for you |
|---|---|---|
| 2020 | Integer questions introduced with single correct questions | Numerical value questions became a permanent part of the paper |
| Covid years | Integer count raised to 10, attempt any 5 | Choice inside the integer section reduced pressure temporarily |
| 2022 | Negative marking added for integer questions | Guessing in integers started costing marks, as in multiple choice |
| 2024 | Syllabus rationalised, some topics removed | Physics lost Communication Systems and a few small topics; Chemistry changed most |
| 2025 | Integer section fixed at 5 questions, all compulsory | No choice left in integers; all 5 carry marks and negative marking |
| 2026 and 2027 | Exactly the same pattern continued and expected | Prepare for 20 multiple choice plus 5 compulsory integer questions |
| The pattern is now stable: 25 questions, 100 marks, negative marking throughout. ABJ Sir expects the same pattern in 2027. | ||
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The 2024 syllabus change deserves a separate note, because students often overstate it. Chemistry was squeezed the most, and scoring in Chemistry became somewhat easier compared to Mathematics and Physics. Physics lost Communication Systems as a full chapter, plus a few small topics here and there. The core of Physics did not change, which is why seven year trends still read cleanly for this subject.
For 2027, then, prepare on a stable base: 20 single correct questions and 5 compulsory integer questions, all with negative marking, for 100 marks. No choice inside the paper, no section to hide in, and no pattern change to hope for. Stability is good news for planning, because it means the tier lists below rest on a pattern that has held for two full years.
Class 11 vs Class 12: The Myth About Weightage
One myth needs clearing before any chapter list makes sense: the idea that Class 12 dominates the Physics paper. It does not, at least not to the extent students believe. Class 12 weightage is higher than Class 11, that much is true. But it is not the case that something like 75 percent of the paper comes from Class 12. The real split, from ABJ Sir's analysis, is far more balanced.
| Class | Questions out of 25 | Share of the paper | What it means |
|---|---|---|---|
| Class 11 | About 11 | About 45 percent | Nearly half the paper; skipping Class 11 is not an option |
| Class 12 | About 14 | About 55 percent | More than half, but not a landslide |
| Mixed questions | A few possible | Part of the counts above | Some questions draw on both years, so the split is rough, not exact |
| Roughly 45 percent Class 11 and 55 percent Class 12. Plan revision time in that ratio, not in a panic ratio. | |||
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The practical consequence is straightforward. A student who neglects Class 11 to chase Class 12 is abandoning nearly half the paper. Mechanics, which is largely a Class 11 story, alone accounts for a large block of questions, and Rotational Motion, Thermodynamics, and Kinematics all sit in the compulsory tier. Equally, a student who only revises Class 11 leaves the larger half untouched. The honest plan is a 45 to 55 split of effort, with Tier 1 chapters from both years finished first, regardless of which year they belong to.
Where the 25 Questions Come From
If the paper were divided by sections rather than chapters, two sections would swallow half of it. Electrodynamics and Mechanics together account for about 12 to 13 of the 25 questions. That single fact should shape your calendar: these two sections are not chapters, they are continents, and they deserve the largest blocks of time. Everything else follows in a clear order.
| Section | Expected questions | Notes |
|---|---|---|
| Electrodynamics and Mechanics | About 12 to 13 | The two biggest sections combined; roughly half the paper |
| Modern Physics and Semiconductors | Next largest block | High return for the time spent; see the quick marks section |
| Optics | After Modern Physics | Ray Optics and Wave Optics both carry two question potential |
| Heat and Thermodynamics | After Optics | Thermodynamics with Kinetic Theory sits in Tier 1 |
| Properties of Matter | About 1 to 2, sometimes 3 | Elasticity, viscosity, surface tension; easy reading, often skipped |
| Simple Harmonic Motion and Waves | About 1 to 2 | Steady, predictable questions |
| Units, Dimensions and Error | About 1 to 2 | Written as 1.5 in the analysis, meaning one or two questions |
| These are expected counts from seven years of papers, not official figures. Use them to divide time, not to skip sections. | ||
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One section in that table deserves special attention precisely because students ignore it: Properties of Matter. Elasticity, viscosity, and surface tension together give about one to two questions, and in some papers last year they gave three. Students leave this section out in large numbers, yet it is among the easiest reading in the syllabus. Easy marks left on the table are the most expensive kind, because they cost nothing to collect.
The same logic applies to Units, Dimensions and Error. One or two questions, small syllabus, and a chapter that also supports the experimental questions. It appears in Tier 2 and again in the quick marks section, which tells you how ABJ Sir rates it: a small chapter with an outsized return.
Chapters That Can Give Two Questions
NTA generally tries to ask one question from every chapter. That is the baseline, and it is why coverage beats depth in the first pass. But a handful of chapters break the baseline: two questions from the same chapter in a single paper are possible there. Knowing which chapters those are lets you weight your revision honestly, because a second question from a chapter you already studied is nearly free marks.
| Chapter | Why two questions are possible |
|---|---|
| Ray Optics | Broad chapter with mirrors, lenses, refraction, and instruments; two independent questions fit easily |
| Current Electricity | Large chapter with circuits, Kirchhoff's laws, and devices; consistently among the heaviest chapters |
| Electrostatics | Field, potential, capacitors, and Gauss's law give several independent question types |
| Wave Optics | Interference, diffraction, and polarisation each support a question |
| Rotational Motion | Moment of inertia, torque, angular momentum, and rolling cover distinct question types |
| Units and Dimensions with Error | Dimensions plus error analysis together support two questions; error is included, not dimensions alone |
| Fluids and Surface Tension | Pressure, buoyancy, viscosity, and surface tension give more than one angle |
| Two questions means possible, not promised. All other chapters mostly stay at one question each. | |
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One chapter that used to sit in this list has dropped out of it: Semiconductors. Before 2025, while the transistor section was still included in semiconductors, two questions from semiconductors were common, and several papers had two in the same paper. Since the transistor was removed, semiconductors mostly gives a single question, usually on logic gates or diodes. The lesson generalises: when the syllabus shrinks a chapter, its question count usually shrinks with it, so track removals the way you track weightage.
Topics Removed From the Syllabus
The 2024 rationalisation removed a set of topics from JEE Main Physics, and students should know the list for two reasons. First, time spent on removed topics is time taken from live ones. Second, and more subtly, removed does not always mean never asked, so the list needs its exceptions stated plainly rather than memorised blindly.
| Removed topic | Status in recent papers |
|---|---|
| Communication Systems (full chapter) | Removed fully; the only full chapter removed in Physics |
| Potentiometer (in Current Electricity) | Removed, but questions still appear; the idea is parallel current distribution, not a separate concept |
| Colour code of resistors | Removed, and questions have not appeared |
| Carnot engine and efficiency | Removed; an occasional light question has appeared |
| Newton's law of cooling | Removed from the syllabus |
| Reynolds number | Removed from the syllabus |
| Doppler effect in sound | Removed from the syllabus |
| Damping and resonance | Removed from Main; still present in Advanced |
| Transistor | Removed; semiconductors dropped from two questions to mostly one |
| Cyclotron and hysteresis losses | Removed from the syllabus |
| Radioactivity and decay | Removed; a single question has been seen across years of papers |
| Resolving power | Removed; one question appeared last year, not a reason to study it |
| X-rays | Removed and not in NCERT; will not be asked |
| ABJ Sir's own teaching follows the new syllabus exactly, leaving these topics out, with the potentiometer exception noted above. | |
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Two rows in that table carry the real lesson. Potentiometer is the exception that proves the rule: it was removed, yet questions still come, because examiners treat it as current distribution in parallel rather than a standalone concept. Resolving power is the opposite trap: one question appeared last year, and students who chase that single question into a full study of the topic are spending hours on something the syllabus does not contain. ABJ Sir's position is blunt here. One question across years of papers, asked by mistake since it is not in the syllabus, is not a reason to open the topic at all. Study the syllabus as published, keep the potentiometer exception in mind, and let the rest of the removed list stay removed.
Tier 1: Compulsory Before January
Tier 1 is the non negotiable core: the chapters that must be done before the January attempt. ABJ Sir divides all chapters into three tiers, and Tier 1 is where the paper is won. It splits naturally by year, with six Class 12 chapters and four Class 11 chapters, and every one of them earns its place through question count, not reputation.
| Class | Tier 1 chapters | Why they are compulsory |
|---|---|---|
| Class 12 | Ray Optics, Current Electricity, Electrostatics, Magnetic Effect of Current, Modern Physics, Wave Optics | These six carry the largest question counts in the paper; Modern Physics here includes photoelectric effect, atomic structure, nuclear physics, and semiconductors |
| Class 11 | Kinematics, Laws of Motion, Rotational Motion, Thermodynamics and Kinetic Theory of Gases | The mechanics and heat backbone; without these, the two biggest sections collapse |
| Tier 1 first, everything else after. A January attempt without Tier 1 complete is an attempt taken with the paper's core missing. | ||
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Modern Physics inside Tier 1 needs unpacking, because the name covers several topics. It means Modern Physics part one and part two together: photoelectric effect, atomic structure, nuclear physics, and semiconductors. Semiconductors sits inside Modern Physics here, which is why the tier list mentions it in two places without contradiction: it is a Tier 1 topic as part of Modern Physics, and it also appears in Tier 2 in its own right as a chapter to strengthen.
Rotational Motion carries one deliberate exception, and it is worth understanding the reasoning rather than just the rule. Inside Rotational Motion, the last section, combined translation plus rotational motion, can be left out entirely for Main. The reasoning is return on investment. Perfecting that section can take around 25 hours, and the same 25 hours given to Modern Physics would fetch more marks. The question can still appear, since it is in the syllabus, but the time it demands does not match the marks it returns. That is a planning decision, not a claim that the section is unimportant, and it is the clearest example in this guide of thinking in marks per hour.
Tier 2: Desirable, Do Them Next
Tier 2 chapters are the desirable ones: they should be done, and they follow Tier 1 in order. A student who has finished Tier 1 and works through Tier 2 has covered the large majority of the paper's marks. Nothing here is optional in the long run, but the order matters when time is short, because Tier 2 after Tier 1 beats Tier 2 instead of Tier 1 every time.
- Capacitor: a natural extension of Electrostatics, and a chapter where combinations and charging behaviour give reliable questions.
- Electromagnetic Induction (EMI): Faraday's law, Lenz's law, and induced EMF; pairs closely with Alternating Current in revision.
- Alternating Current: LCR circuits, resonance, and phase; steady questions that reward a clean formula set.
- EM Waves: also a quick marks chapter, covered again below; the relation between electric field, magnetic field, and the speed of light dominates.
- Semiconductors: logic gates first, then Zener and PN diodes, all at NCERT level; mostly a single question now, but a reliable one.
- Units and Error: dimensions plus error analysis; small chapter, one or two questions, and support for the experimental questions.
- Experimental Skills: the 12 experiments detailed below; questions here are quick once the set-up is known.
- Simple Harmonic Motion: energy, phase, and pendulum questions; predictable and compact.
- Fluids and Elasticity: pressure, buoyancy, viscosity, and Young's modulus; overlaps with the Properties of Matter questions students often skip.
- Work, Power and Energy: work energy theorem and conservation; a core mechanics chapter that supports several others.
- Centre of Mass and Collision: momentum conservation and collisions; the companion to Laws of Motion and Rotational Motion.
Notice what Tier 2 is not: it is not a list of weak chapters. Several Tier 2 chapters, like EM Waves and Units and Error, are among the highest return chapters in the whole syllabus. The tier is about order, not value. Tier 1 first because it carries the paper; Tier 2 next because it completes it.
Tier 3: Leave These for the End
Tier 3 chapters are the last ones to do: Waves and Sound, Gravitation, Calorimetry, Heat Transfer, Magnetism and Matter, and the combined translation plus rotation section of rigid body motion. Last does not mean never. It means these come after Tier 1 and Tier 2 are secure, and they are the first to be cut if time runs out.
Gravitation sits in Tier 3 for a deliberate reason, and the reason is worth hearing because it changes how you revise it. ABJ Sir places Gravitation here because a student who has done Electrostatics can largely do Gravitation questions already: the structure transfers, with the constant replaced and the signs adjusted, while the formulas stay the same. Keeping it last is therefore not a judgement that Gravitation is unimportant. It is a scheduling trick: do Electrostatics first, and Gravitation largely takes care of itself afterwards.
The same thinking applies to the combined translation plus rotation section, which appears in Tier 1 discussions as the skippable part of Rotational Motion and again here as a Tier 3 item. Only the advanced section is Tier 3, not the whole of Rotational Motion. The base chapter is Tier 1 and compulsory; the advanced rolling and angular section is Tier 3, to be attempted only after everything else is secure. Holding both facts at once is the difference between skipping a chapter and sequencing it.
High Marks in the Least Time
Not all chapters cost the same time, and the cheapest marks in Physics come from small topics with short lectures and only two or three question types. These are the chapters to reach for when time is short, and the reason is visible in the numbers: a handful of hours for a fixed block of marks, with almost no variation in what gets asked.
| Topic | What gets asked | Time and return, as estimated by ABJ Sir |
|---|---|---|
| Electromagnetic Waves | About 60 percent of questions are on the relation between electric field, magnetic field, and the speed of light; the rest are mostly displacement current, with an occasional question on intensity or Poynting vector | About 4 marks in five to six hours of study |
| Units and Dimensions with Error | Dimensions plus error analysis; small syllabus, predictable questions | 4 or 8 marks in a short time |
| Photoelectric effect and dual nature | Dual nature of matter and radiation, photoelectric effect; few question types | Good marks in a short time |
| Nuclear physics | The remaining portion is small: binding energy, mass defect, nuclear reactions, and direct formula use, after much of the section was removed | About 4 marks in six to seven hours of study |
| Semiconductors | Logic gates are the favourite question, then Zener diode and PN diode, all at NCERT level | About 4 marks fixed in eight to nine hours of study |
| Small topics, short lectures, two or three question types. That combination is what makes a chapter cheap in time and rich in marks. | ||
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The pattern across all five rows is the same, and it is worth naming: the question types do not vary much. EM Waves keeps returning to the same relation. Semiconductors keeps returning to logic gates. Nuclear physics, after its removals, is a small set of direct formula questions. When a chapter has only two or three question types, mastering it is a short job, and the marks behave like fixed income rather than a gamble. That is why these chapters belong in every short time plan, even though none of them is large.
One caution applies to the whole table. The hour figures are ABJ Sir's estimates for a student starting the topic fresh, not guarantees, and they assume lectures plus basic practice, not mastery of every variation. Treat them as ordering information: EM Waves before semiconductors, nuclear physics before a large chapter, and Units and Error at any spare moment.
The 12 Experiments NTA Keeps Asking
Experimental skills deserve their own section, because students treat them as theory and NTA treats them as questions. The session works from a list of 12 experiments on which NTA regularly asks, and the questions are quick: once the set-up is known, most of them are solved in about a minute to a minute and a half. The catch is that the experiment question also needs the concept of its parent chapter, so experiments cannot be memorised as isolated facts.
| Experiment | What NTA asks |
|---|---|
| Vernier calliper and screw gauge | Error portion favourites; least count and reading questions |
| Simple pendulum | Pendulum plus error questions: error in g against error in time period, and percentage change in length against percentage change in time period |
| Young's modulus by Searle's method | A wire with a mass block hung below it; length changes slightly, and Young's modulus follows from stress over strain, stress as tension over area, strain as change in length over original length |
| Metre bridge and Ohm's law instruments | Bridge questions plus ammeter, voltmeter, and galvanometer questions; potentiometer, though removed, may still appear in this cluster |
| Lens focal length | Object and image positions and the focal length questions built on them |
| Prism minimum deviation | The minimum deviation experiment; a question every student should be able to answer |
| Surface tension by capillary rise | Capillary rise experiment questions |
| Viscosity and terminal velocity | Terminal velocity questions from the viscosity experiment |
| PN diode and Zener diode I-V graphs | Current against voltage graphs for forward bias, reverse bias, and no bias, exactly as in NCERT; NTA asks these continuously |
| The rows above are the experiments explained in the session, from its list of 12. These are quick questions once the set-up is clear, which is why they belong in Tier 2 rather than in the leftover pile. | |
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The NCERT connection matters here more than anywhere else. The diode graphs, the pendulum set-ups, and the bridge circuits are asked the way NCERT presents them, which means the textbook itself is the preparation for this section. Students who revise experiments from NCERT graphs and set-ups, rather than from scattered notes, will recognise these questions on sight. That recognition is the whole game in a section where each question takes about a minute.
The Two Round Method for 55 to 60 Minutes
Strategy inside the paper matters as much as strategy before it, and the method here is precise: Physics in about 55 to 60 minutes, in two rounds, with question selection as the core skill. The paper gives you 25 questions and the clock gives you roughly two minutes each on average. The method refuses that average and replaces it with two different speeds.
Attempt every Physics paper in two rounds
Round one: 90 seconds
Pick the questions you can solve within about 90 seconds. These are your first marks, and they build momentum.
Round two: longer ones
Return for the questions that need three or four minutes. They were never skipped, only deferred.
No question is abandonedIntegers by PYQ
Practise the integer section through PYQs, most asked first, so it never surprises you.
Where integers stop hurtingTimed practice always
Practise with a fixed time frame, and give mocks under the same discipline you will use on exam day.
Round one is a selection exercise before it is a solving exercise. Go through the 25 questions and pick out the ones you can finish within about 90 seconds. Those are attempted first. Any question that looks like three or four minutes of work is not attempted yet; it goes to round two. The method works because it protects you from the classic failure: spending six minutes on one hard question while three easy ones sit untouched at the end of the paper.
Two supporting habits make the method work. First, practise with a fixed time frame every time, not just in mocks, so that timed solving becomes the default rather than a special occasion. Second, give the integer section the same respect as the multiple choice section. Students often take integers lightly and under practise them, yet all five carry marks and negative marking. For integers, PYQs are the strongest preparation, and unique PYQs in descending order, most asked first, are the most efficient form of it: if a chapter has 60 unique questions and time is short, doing the top 30 still covers the most repeated patterns, because the top of the list is by definition the most asked.
Mistakes That Cost Physics Marks
Most Physics marks are not lost to unknown concepts. They are lost to planning errors that repeat every year, and every one of them is visible in the analysis above. Read this table as a checklist against your own preparation, and fix the rows that describe you before January.
| Mistake | What it costs | What to do instead |
|---|---|---|
| Skipping Class 11 to chase Class 12 | Nearly half the paper, about 11 questions | Split effort roughly 45 to 55 between Class 11 and Class 12 |
| Leaving Properties of Matter out | One to three easy questions | Read elasticity, viscosity, and surface tension; they are short and easy |
| Taking integers lightly | Five questions with negative marking | Practise integers through PYQs, most asked first |
| Chasing removed topics | Hours spent on questions that will not come | Study the published syllabus; keep only the potentiometer exception in mind |
| Perfecting combined rotation | About 25 hours for low return | Leave the advanced rolling section for Tier 3; give those hours to Modern Physics |
| Attempting in paper order | Easy questions left untouched at the end | Use two rounds: 90 second questions first, longer ones second |
| Practising without a clock | Speed never builds, mocks feel different | Fix a time frame for every practice set, and finish Physics in 55 to 60 minutes |
| Skipping tests | Question selection never develops | Give tests side by side with study, regularly, from now on |
| Every row here is fixable this week. The expensive mistakes are the ones left unexamined until January. | ||
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If one line from this guide stays with you, let it be this: Physics rewards the student who covers everything in the right order and attempts the paper in two rounds. Tier 1 first, Tier 2 next, Tier 3 last, quick marks whenever time is short, experiments from NCERT, and 55 to 60 minutes of disciplined attempting. That is the whole plan, and it is enough for 90.
Three Tools for the Months Before January
The tier lists tell you what to study. These three tools decide how well the study converts into marks: unique PYQs in descending order, chapter-wise PYQs with video solutions, and full mocks under exam conditions.
UPO: Unique PYQs Only
12,018 PYQs Analysed · 4,348 Unique Patterns
UPO sorts the analysed questions into clusters plus a unique set, showing Repeat Frequency, complete clusters, and written and video solutions together on one screen. Work through patterns in order, dipping into clusters whenever you need them.
PYQ Express
Chapter-Wise PYQs · Video Solutions
PYQ Express gives chapter-wise previous year questions with video solutions, so you can practise a chapter in order and then return to the cluster view to check which patterns repeat most often.
UTS: January Attempt Test Series
Full Mocks · Analysis · Projected Percentile
UTS trains stamina, time management and question selection under the pressure of a full paper, and hands you a detailed analysis plus a projected percentile after each test.
None of these tools replaces the tier plan. They are how the plan gets practised: unique PYQs in descending order for the most asked patterns first, chapter-wise PYQs for the chapter you just finished, and mocks for the two round method itself.
Finish Tier 1, Then Let the Tiers Carry You to 90
Start with the compulsory chapters, work the quick marks chapters whenever time is short, and practise every set inside 55 to 60 minutes. The plan is complete; the next step is the first chapter.
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About the Teacher
Amit Bijarnia Sir, popularly known as ABJ Sir, is a Physics teacher with a name for making Physics simple and logical, putting concept clarity ahead of formula memorisation. In this session he analyses seven years of JEE Main papers to build a three tier chapter plan for Physics, so that students aiming for 90 out of 100 know exactly which chapters are compulsory, which are desirable, and which can wait.











