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The instructors are highly qualified professionals with a deep understanding of Physics, effective communication skills, patience, adaptability, a supportive attitude, strong problem-solving skills, teaching experience, organizational skills, a passion for the subject, empathy, up-to-date knowledge, and good assessment skills.

Courses are delivered online via Zoom. You will need a writing pad with a stylus, such as a Wacom tablet. You can buy it Online.

Yes, you need a writing pad with a stylus, such as a Wacom tablet. You can Buy it from Amazon. Its for around Rupees 7000

You should be eligible to appear for the exam you are preparing for.

Focus on understanding concepts deeply, practice MCQs regularly, revise using summary notes, and watch concept-clearance videos. Our course is designed to simplify Physics for NEET success.

We provide topic-wise concept LIVE CLASSES, Recorded videos of the class , chapter-wise MCQs, doubt resolution, mock tests, and one-shot revision classes — all curated by expert mentors.

Students struggle with application-based problems. We teach real-life analogies, MCQ tricks, and concept-mapping techniques to make Physics fun and scoring.

The ideal time is from Class 11 itself. Our structured course ensures gradual mastery — starting from basics to the most difficult NEET-level problems.

Yes. Students can explore a few free concept videos and sample MCQs before enrolling. Also 2 Demo Live classes will be conducted

Our platform is ideal for students who feel lost in big coaching batches or need a second round of concept clarity with doubt support.

Motion in a Straight Line is a fundamental NEET chapter covering concepts like distance vs displacement, speed vs velocity, acceleration, kinematic equations, and motion graphs. To study it effectively, start by understanding basic definitions, practice applying the three kinematic equations, and interpret graphs carefully (slope = velocity, area = displacement). Avoid common mistakes like confusing scalar and vector quantities or sign conventions. Focus on solving a wide variety of MCQs and numerical problems. This chapter builds the foundation for topics like Newton’s Laws and Work-Energy, so mastering it early helps streamline your Physics preparation.

Units and Dimensions is a scoring chapter that builds your base in measurement systems. Focus on learning SI units for all physical quantities, dimensional formulas, and dimensional analysis techniques like checking formula correctness or deriving relations. Key areas include base vs derived units, dimensional consistency, and conversions. Common errors students make include mixing up unit systems (e.g., CGS vs SI) or incorrect dimensional balancing. Practicing questions on dimensional equations and conversions will boost accuracy and speed. Since NEET often asks 1 or 2 direct questions from this chapter, it’s a must-revise area with high return for low effort.

This chapter involves analyzing motion in a plane using vectors, projectiles, and uniform circular motion. Begin by mastering vector operations like addition, resolution, and finding components — they form the backbone of 2D problems. In projectile motion, study horizontal and vertical motion separately, and remember key formulas for time of flight, maximum height, and range. For circular motion, understand concepts like centripetal acceleration, angular velocity, and the relation a=v^2/r. Common mistakes include confusing vector directions, misapplying signs, and forgetting constant acceleration assumptions. NEET often frames conceptual MCQs combining vector logic with real-life motion paths, so solving variety-based problems is essential to strengthen application skills.

Laws of Motion is a concept-heavy and frequently tested NEET chapter covering Newton’s three laws, force, inertia, momentum, impulse, and equilibrium. Start by understanding Newton’s laws with real-life examples and visualizations. Learn to apply the second law (F = ma) to solve force-based problems and use the third law to identify action-reaction pairs. Master impulse-momentum theorem and conservation of linear momentum, especially in collision-based problems. For friction, distinguish between static and kinetic friction, understand limiting friction, and remember that rolling friction is usually the least. In circular motion dynamics, grasp centripetal force and its effects on vehicles — both on level roads and banked turns. NEET often includes application-based questions involving tension, normal force, and pseudo forces in circular and frictional setups. To excel, practice force diagrams and free-body analysis across diverse question types.

This chapter is calculation-intensive and connects motion with forces and energy. Begin by understanding how work is done by constant and variable forces, and apply the dot product to determine work in vector terms. Learn the work-energy theorem, which links net work to change in kinetic energy — a central concept in many NEET problems. Grasp potential energy in gravitational and elastic systems (especially spring force using 1/2 k x^2, and identify conservative vs non-conservative forces. Understand energy conservation in mechanical systems, especially motion in vertical circles where tension and energy principles combine. Study power as the rate of doing work and compare units like watt and horsepower. Finally, revise elastic and inelastic collisions, especially in 1D and 2D — NEET often tests momentum + energy conservation together. To master this chapter, visualize physical setups and solve application-based numerical problems involving energy transformation.

Rotational Motion is a challenging but high-scoring chapter where you extend Newtonian mechanics to rotating systems. Start by understanding the centre of mass for a system of particles and rigid bodies — it forms the basis for motion analysis. Then, dive into the core ideas of rotational dynamics: torque (moment of force), angular momentum, and their relationship with rotational motion. Learn the principle of conservation of angular momentum, often tested in problems involving changing configurations. Study moment of inertia and radius of gyration, and remember standard M.I. values for basic shapes. Master the parallel and perpendicular axes theorems, especially for applying them to composite bodies. Focus also on rigid body equilibrium, both translational and rotational, and learn how to use torque balance. Finally, compare rotational and linear motion analogies (e.g., force vs torque, mass vs moment of inertia). NEET often mixes concepts from this chapter with energy and dynamics — so visualization and lots of practice are essential.

Gravitation blends theory, formula-based problems, and real-life celestial applications. Begin with Newton’s Universal Law of Gravitation and understand how it governs attractive force between any two masses. Learn how acceleration due to gravity (g) changes with altitude, depth, and planet size. Grasp Kepler’s Laws of Planetary Motion — especially the third law’s application in orbital problems. Understand gravitational potential energy and gravitational potential, and how these relate to escape conditions. Focus on satellite motion — derive formulas for orbital velocity, escape velocity, energy of a satellite, and time period of revolution. NEET often frames numericals involving satellites around Earth, Mars, or Moon, so be comfortable with units and data substitution. Avoid common mistakes like confusing negative signs in potential energy or mixing up escape and orbital velocity. Practice conceptual and formula-based MCQs to ensure strong command over this scoring chapter.

This unit combines mechanics, thermodynamics, and fluid physics — and is rich in NEET applications. For solids, begin with stress-strain curves, Hooke’s Law, and mechanical properties like Young’s modulus, bulk modulus, and modulus of rigidity. In fluids, master pressure in fluid columns, Pascal’s law, and effects of gravity on fluid pressure. Learn viscosity, Stokes' law, and the concept of terminal velocity. Distinguish between streamline and turbulent flow, and grasp critical velocity. Bernoulli’s principle is frequently tested — especially in real-world setups like fluid jets and airplane wings. For surface tension, understand angle of contact, excess pressure in bubbles/drops, and capillary rise — all conceptually and mathematically. In the thermal section, revise heat, temperature, and thermal expansion along with specific heat, latent heat, and calorimetry. Master all three modes of heat transfer — conduction, convection, and radiation — with formulas and practical applications. NEET loves mixing these topics in clever MCQs, so visualization, formula clarity, and conceptual depth are key.

Thermodynamics is a high-weightage chapter that blends heat, energy, and system behavior. Start with the concept of thermal equilibrium and the zeroth law, which forms the basis for defining temperature. Understand how heat, work, and internal energy are interrelated through the first law of thermodynamics (ΔQ=ΔU+ΔW\Delta Q = \Delta U + \Delta WΔQ=ΔU+ΔW). Study isothermal (constant temperature) and adiabatic (no heat exchange) processes in PV diagrams — know how to identify and distinguish them graphically and mathematically. Then, move to the second law of thermodynamics, focusing on concepts of reversible and irreversible processes, heat engines, and efficiency. Pay special attention to real-life applications like the Carnot cycle. NEET often tests conceptual understanding (e.g., what increases internal energy), graph-based questions, and numerical problems using the first law. Consistent practice with visualizing processes on PV curves and applying formulae smartly will make this chapter easy to score in the exam.

This chapter connects gas laws with microscopic molecular behavior — making it both conceptual and numerical. Start with the equation of state for a perfect gas (PV=nRT) and understand how work is done in compressing a gas. Learn the assumptions of kinetic theory and how they lead to the kinetic interpretation of pressure. Grasp the kinetic interpretation of temperature, where temperature is directly linked to the average kinetic energy of gas molecules. Practice calculating RMS speed, average speed, and most probable speed. Understand the idea of degrees of freedom and the law of equipartition of energy, which helps explain specific heat values for monoatomic and diatomic gases. Also cover mean free path (average distance between collisions) and Avogadro’s number. NEET typically asks direct formula-based MCQs or conceptual traps related to pressure, temperature, and specific heat capacities. To excel, memorize key formulas, visualize molecular behavior, and practice application-based problems.

This chapter is critical for mastering periodic motion and sound-related concepts. Start with oscillations by understanding simple harmonic motion (SHM) — define displacement, velocity, acceleration, and derive the equation x=Asin⁡(ωt+ϕ). Know how to calculate time period, frequency, and energy in SHM. Study classic systems like mass-spring and simple pendulum. For damped and forced oscillations, grasp the physical intuition even if NEET doesn’t go deep into their math. Move on to waves — distinguish between longitudinal and transverse waves, understand wave speed, wavelength, and frequency relations (v=fλ). Focus on superposition principle, interference, and resonance. Learn beats and Doppler effect in sound. NEET often tests SHM graphs, energy changes in oscillations, and formula-based questions from wave motion. Visual understanding and repeated formula practice will ensure accuracy and confidence.

Electrostatics is a concept-heavy and numerically rich chapter that forms the base of all electric field-related topics. Start with electric charge properties, especially conservation and quantization, and then master Coulomb’s Law for force between two point charges. Understand the superposition principle and apply it to problems with multiple charges or continuous charge distributions. Learn how to calculate the electric field due to a point charge and dipole, visualize electric field lines, and analyze torque on a dipole in a uniform field. Apply Gauss’s Law to find electric fields of symmetric charge distributions like an infinite wire, plane sheet, or spherical shell — a high-scoring NEET area. Study electric potential for point charges, dipoles, and systems of charges; understand potential difference, equipotential surfaces, and electric potential energy. Learn the behavior of conductors, insulators, and dielectrics, and their role in capacitors. Practice calculating capacitance, both standalone and in series/parallel combinations, and understand how dielectric insertion affects stored energy. NEET frequently tests graph interpretation, conceptual traps, and direct formula-based MCQs, so build clarity, speed, and confidence through daily problem-solving.

Current Electricity is a high-yield chapter that combines theory, graphs, and circuit-solving skills. Begin with the basics: define electric current, understand drift velocity and mobility, and their relation to current through I=nAve. Master Ohm’s Law and understand V-I characteristics for both ohmic and non-ohmic conductors. Learn how to calculate electrical energy and power, and understand the physical meaning of resistivity and conductivity, including their temperature dependence. Get comfortable solving problems on series and parallel resistor combinations. Study internal resistance, emf, and potential difference in detail — particularly how to handle cells in series and parallel. Finally, dive into circuit-solving using Kirchhoff’s laws and classic tools like the Wheatstone bridge and Metre bridge. NEET often tests your circuit analysis speed, conceptual understanding, and graph-reading ability, so consistent practice with varied circuit problems is essential for mastering this chapter.

his chapter connects electricity with magnetism and is rich in formula-based and conceptual NEET questions. Start with the Biot-Savart Law and its application to a current-carrying circular loop.

Learn Ampere’s Law and use it to calculate magnetic fields for an infinitely long wire and a solenoid — two key NEET cases.

Understand the force on a moving charge in electric and magnetic fields (F=q(E⃗+v⃗×B⃗  and the force on a current-carrying conductor in a magnetic field. 

Master the concept of force between two parallel conductors and its use in defining the ampere. 

Study the torque on a current loop, and how this principle is applied in the moving coil galvanometer, including its sensitivity and conversion into an ammeter or voltmeter. 

Treat the current loop as a magnetic dipole and understand bar magnets as equivalent solenoids. Visualize magnetic field lines, and learn the field due to a dipole along and perpendicular to its axis. Lastly, understand the behavior of para-, dia-, and ferromagnetic substances, and how temperature affects magnetic properties. NEET frequently includes vector questions, magnetic field graphs, and application-based MCQs, so practice visual interpretation and numerical application extensively.

Electromagnetic Induction is conceptually rich and numerically rewarding. Start with Faraday’s laws of induction — understand how a changing magnetic flux induces EMF, and study the formula ε=−dΦ/dt. Grasp Lenz’s Law and how it governs the direction of induced current (opposes the cause). Learn the concept of magnetic flux and how it's affected by area, field strength, and orientation. Master Motional EMF and induced EMF in conductors moving through magnetic fields. Study self-induction and mutual induction, and understand their applications in inductors. Learn about the energy stored in an inductor and time-dependent growth/decay of current in LR circuits. NEET often tests problem-solving involving loops, rods on rails, and field direction logic — so practice problems involving circuit loops, field lines, and EMF polarity is essential. Also revise conceptual traps in sign conventions and direction judgments. Visual clarity and speed in applying Faraday’s law make this a scoring chapter.

Alternating Current is a scoring chapter if you understand the phase relationships and key formulas. Begin with the definition of AC voltage and current as sinusoidal functions: V=V0​sin(ωt), and learn how to calculate peak, RMS, and average values. Understand the behavior of AC in resistors, capacitors, and inductors, and derive the expressions for current, phase angle, and reactance. Master phasor diagrams and impedance in LCR series circuits, and learn how to compute the total current and voltage across elements. Study resonance in LCR circuits, the quality factor (Q), and how frequency affects current. Focus on power in AC circuits, including concepts of true power, reactive power, power factor, and how to calculate them using P=VIcosϕ. NEET often frames tricky MCQs involving phasor reasoning or power formulas, so consistent practice with mixed LCR problems and graphical questions is key.

Electromagnetic Waves is a short but highly conceptual chapter that’s often tested in theory-based NEET MCQs. Start with the derivation and understanding of how a changing electric field produces a magnetic field, and vice versa — leading to the propagation of electromagnetic (EM) waves. Learn the characteristics of EM waves: they are transverse, travel at speed c = 3 X 10^8  m/s} in vacuum, and don’t require a medium. Study the spectrum of electromagnetic waves, from radio waves to gamma rays, along with their wavelengths, frequencies, and uses (a common NEET match-the-following type question). Understand the nature of the wave equation, how electric and magnetic fields are perpendicular to each other and to the direction of propagation, and remember that EM waves carry energy and momentum. NEET may test order of wavelengths, applications of specific wave types, or conceptual understanding of wave properties — so quick revision charts and Conceptual Videos can help reinforce this high-theory, low-math chapter.

Ray Optics is a high-scoring chapter filled with ray diagrams, lens-mirror combinations, and real-world applications. Begin with the basic laws of reflection and refraction, and practice drawing ray diagrams for plane mirrors, spherical mirrors, and lenses. Learn mirror and lens formulas, sign conventions, and solve problems using the magnification equation. Grasp total internal reflection (TIR) and its applications like optical fibers and diamond brilliance — frequently tested in NEET. Study prisms, angular deviation, and dispersion of light. Understand refraction through curved surfaces and combinations of lenses. For instruments, focus on the human eye, defects of vision and their correction, and working principles of devices like the microscope and astronomical telescope. NEET often includes conceptual questions involving image formation, lens systems, and identification of defects in optical setups — so practice with ray tracing, sign convention care, and numerical accuracy is crucial.

How to study Wave Optics for NEET 2026 & 2027?

Wave Optics tests the wave nature of light and includes many concept-heavy, formula-light questions in NEET. Begin with Huygens Principle to understand the basics of wavefront propagation and derive laws of reflection and refraction. Grasp the concept of interference, especially Young’s Double Slit Experiment (YDSE) — know how to calculate fringe width, conditions for constructive and destructive interference, and effects of changing slit separation or wavelength. Learn the theory of diffraction, mainly single-slit diffraction, and understand the intensity pattern. Master the basics of polarization, including types and its use as proof of the transverse nature of light. NEET often asks application-based questions in YDSE and conceptual questions in diffraction and polarization. To excel, focus on visualizing patterns, understanding the cause of interference, and practicing quick calculations based on the standard fringe width formula.

This chapter bridges classical and quantum physics, and NEET loves testing it with both concept- and formula-based MCQs. Start with the photoelectric effect — understand Einstein’s equation K.E.=hν−ϕ, threshold frequency, and how stopping potential relates to kinetic energy. Learn to interpret graphs of photoelectric current vs voltage, and understand how light intensity and frequency affect photoelectron emission. Study de Broglie’s hypothesis, which assigns wave-like behavior to particles, and know the formula λ=h/p​. NEET typically includes direct formula-based problems and conceptual traps (like why photoelectric effect can't be explained by wave theory). Be comfortable with units like electron volt (eV), and know how to convert between energy, frequency, and wavelength. Practice numerical problems and quickly identifying photoelectric thresholds to gain speed and accuracy.

This unit combines atomic structure and nuclear physics, with mostly formula-based, conceptual questions in NEET. Start with the Bohr model of the hydrogen atom — understand energy levels, orbit radii, and how photons are emitted or absorbed during transitions. Learn how to compute energy of emitted photons, frequency, and wavelength using E=hν. Understand spectral lines of hydrogen (Lyman, Balmer series) and how to derive them.

In nuclear physics, study basic properties of nuclei, mass defect, and binding energy using E=Δmc^2. Learn about radioactivity, including definitions of alpha, beta, and gamma decay, and solve problems using decay law: N=N0 e^−λt.

Know how to calculate half-life, mean life, and activity. NEET often tests direct numerical substitutions, trends in binding energy, and basic radioactive decay chains.

Memorizing standard values (like proton mass, 1 amu in MeV) and mastering decay graphs will help score full marks in this unit.

Semiconductor Electronics is a short, scoring chapter that blends Physics with basic electronics — and NEET often asks 1–2 direct questions from it. Start by understanding the difference between conductors, semiconductors, and insulators based on energy band diagrams. Learn about intrinsic and extrinsic semiconductors, and how doping introduces n-type and p-type materials.

Study the working of a p-n junction diode, and learn to interpret V-I characteristics in forward and reverse bias. Understand how diodes are used for rectification, and how to calculate output voltage and efficiency in half-wave and full-wave rectifiers.

Learn the structure and working of Zener diodes, 

NEET commonly includes questions on logic gates (AND, OR, NOT, NAND, NOR) — so practice truth tables and Boolean logic. Focus on diagrams, symbol recognition, and basic operation — they make this unit easy to master with a bit of regular revision.

🧠 Why CrackNEETPhysics is India’s Most Trusted and Reputed Brand for NEET Aspirants

In the competitive world of NEET preparation, trust and performance are everything. With over 20 lakh students appearing every year, the pressure is immense, and so is the need for reliable, effective, and student-centric Physics support. Among hundreds of coaching centers and digital platforms, CrackNEETPhysics stands tall—not just as another institute, but as India’s most trusted and reputed Physics brand for NEET aspirants.

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Coaching institutes often give students heaps of material, but when doubts arise, support is either delayed or missing. CrackNEETPhysics was born out of a simple realization:

Students don’t fail NEET because of a lack of content—they fail because of unresolved doubts.

With services like “Crack the Doubt” and personalized one-on-one chapter help, we ensure no student is left behind, no matter how “silly” the question may seem.

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At CrackNEETPhysics, students aren’t taught by “faculty.” They’re mentored by Rohit Gera, an alumnus of Delhi College of Engineering with leadership credentials from XLRI Jamshedpur. With years of experience and a passion for Physics education, Rohit personally ensures that every concept is taught with depth, empathy, and clarity.

His vision?

“Let coaching teach the masses. We’ll focus on the individual.”

🔬 3. Concept-First Learning Model

While most institutes chase syllabus completion, CrackNEETPhysics follows a “concept-before-curriculum” model. We break down Physics into real-life intuition, visualized thinking, and MCQ mastery—before diving into formula cramming. Our mantra:

If you understand it, you’ll never forget it.

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Already enrolled in a coaching institute but still feel stuck? You're not alone. Thousands of students who attend big coaching brands silently suffer with:

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🏁 Final Word

In a sea of coaching factories, CrackNEETPhysics is the brand that puts the student first.
Not just in marketing. Not just in promises.
But in every session, every doubt, and every explanation we give.

That’s why today, CrackNEETPhysics is India’s most trusted name in NEET Physics preparation—and tomorrow, it could be the reason your child becomes a doctor.