SEBA Class 9 Science Chapter 10 Gravitation MCQs (2026–27) – Assam Eduverse
Explore the concepts of gravity and its effects with SEBA Class 9 Science Chapter 10 Gravitation MCQs (2026–27), prepared in accordance with the latest ASSEB syllabus and updated board exam pattern. These SEBA Class 9 Science Chapter 10 Gravitation MCQs include important objective questions, numerical-based MCQs, and application-oriented practice sets to support effective exam preparation.
Developed by Assam Eduverse subject experts, these SEBA Class 9 Science Chapter 10 MCQs cover key topics such as universal law of gravitation, gravitational force, free fall, acceleration due to gravity (g), mass and weight, thrust and pressure, buoyancy, Archimedes’ principle, and relative density. Practicing these Gravitation MCQs Class 9 SEBA and Assam Board Class 9 Science objective questions helps improve conceptual understanding and numerical accuracy. You can also explore more practice from Class 9 Science chapterwise MCQs and SEBA Class 9 MCQs.
Regular practice of these ASSEB Class 9 Science Important MCQs will enhance your preparation and boost exam performance. For detailed explanations, visit SEBA Class 9 Science Chapter 10 Gravitation Solutions, or explore additional resources like SEBA Class 9 & 10 study materials and SEBA Class 9 syllabus.
SEBA Class 9 Science Chapter 10 Gravitation MCQs – ASSEB 2026–27 Board Exam Practice
Table of Contents
Before You Start
Test your knowledge with the SEBA Class 9 Science MCQs Quiz. Read each question carefully and select the correct answer. Your answer is checked instantly after you choose an option, and a detailed explanation appears immediately to help you learn every concept and improve your exam preparation.
The natural force of attraction by which the Earth pulls objects down toward its center is called:
✅ Correct Answer
Concept Explanation
The mass of the Earth exerts an attractive pull on all surrounding matter. This attractive force pulling everything toward the planet's geographic core is known as the gravitational force, or gravity.
Assertion (A): Under the conditions of a complete vacuum, a heavy rock and a light feather will drop toward the ground with the exact same acceleration.
Reason (R): The acceleration due to gravity acting on a falling object is completely independent of that object's own mass.
✅ Correct Answer
Concept Explanation
The formula for the acceleration due to gravity is g = GM / R², where M is the mass of the Earth and R is its radius. Because the mass of the falling body itself is not part of this equation, all objects experience an identical acceleration of roughly 9.8 m/s² in the absence of air resistance. This directly validates option A.
According to Sir Isaac Newton's universal law of gravitation, the attractive force operating between two isolated bodies is directly proportional to the:
✅ Correct Answer
Concept Explanation
Newton's gravitational formula establishes that F = G × (m₁ × m₂) / d². This shows that the magnitude of the force scales in a direct relationship with the product of the two masses (m₁ × m₂). Doubling either mass will double the gravitational pull.
The gravitational force between two distinct bodies is inversely proportional to the:
✅ Correct Answer
Concept Explanation
Gravity follows an inverse-square law. The variable for distance (d) resides in the denominator as a squared value (1 / d²). This means if you move two objects twice as far apart, the gravitational force between them drops down to one-fourth of its initial strength.
Assertion (A): The measured weight of an object fluctuates and shifts when transported to different locations on Earth or other planets.
Reason (R): The acceleration due to gravity (g) is a variable parameter that changes based on local planetary radii and mass profiles.
✅ Correct Answer
Concept Explanation
Weight is a force calculated via W = m × g. While mass (m) stays constant everywhere, the local gravitational acceleration (g) changes depending on your location (for instance, g is weaker on the equator than at the poles due to Earth's oblong shape, and much weaker on the Moon). Because variations in g directly cause variations in weight, option A is correct.
In the International System of Units (SI), what is the correct unit configuration used to express the universal gravitational constant (G)?
✅ Correct Answer
Concept Explanation
By rearranging Newton's gravitational equation to isolate the constant [G = F × d² / (m₁ × m₂)], we can deduce its units directly from the component terms: force is in Newtons (N), distance squared is in metres squared (m²), and the product of the masses yields kilograms squared (kg²) in the denominator, which is written as N m² kg⁻².
What is the accepted empirical value of the universal gravitational constant (G), first measured experimentally by Henry Cavendish?
✅ Correct Answer
Concept Explanation
The constant value of G = 6.7 × 10⁻¹¹ N m² kg⁻² remains completely uniform across the entire universe, regardless of time or which specific bodies are being calculated. This differs from g, which fluctuates depending on local planetary environments.
Assertion (A): The total physical mass of an astronaut changes drastically whenever they travel from the Earth up to the surface of the Moon.
Reason (R): The physical property of mass represents a relative quantity that alters based on your immediate location in space.
✅ Correct Answer
Concept Explanation
Both statements are false. Mass represents the actual quantity of matter contained within an object. Because the atomic matter making up an astronaut does not change when they travel through space, their mass stays perfectly constant everywhere, whether on Earth, the Moon, or floating in deep space.
The average acceleration due to gravity (g) experienced by an object near the surface of the Earth is approximately:
✅ Correct Answer
Concept Explanation
By applying Earth's localized mass and radius properties to the gravitational field equation, we establish that objects falling near sea level accelerate downward at a standard rate of approximately 9.8 m/s² during each second of travel.
In physics, an object is defined as being in a true state of "free fall" only when it drops under the influence of:
✅ Correct Answer
Concept Explanation
An object undergoes free fall if it moves through space under the exclusive influence of gravity. True free fall can only happen within a vacuum, because open air atmospheres generate counter-active air resistance forces that slow down the velocity increase.
Assertion (A): A massive ocean-going cargo ship built completely out of heavy structural iron floats easily on water.
Reason (R): The unique hollow design of the ship traps massive volumes of internal air, increasing its volume and lowering its overall average density below that of water.
✅ Correct Answer
Concept Explanation
Whether an object sinks or floats depends on its overall density (Mass / Volume). While a solid lump of iron sinks because it is denser than water, shaping that same iron into a large, hollow ship traps an enormous volume of air inside. This expanded volume decreases the average density of the ship below that of water, enabling it to float. This directly validates option A.
The measurement unit used to quantify the value of acceleration due to gravity (g) is:
✅ Correct Answer
Concept Explanation
Because g represents a specific case of acceleration (the rate at which gravity increases your falling speed over time), it shares the standard SI unit utilized by all acceleration fields: m/s².
Due to the Earth's non-spherical shape (flattened bulging profile), the value of g reaches its maximum value at the:
✅ Correct Answer
Concept Explanation
The Earth is an oblate spheroid, meaning it bulges at the equator and is flattened at the poles. Consequently, the polar radius is shorter than the equatorial radius. Because gravity is stronger closer to the planetary core, the acceleration due to gravity is maximum at the poles and minimum at the equator.
Assertion (A): The physical pressure applied by a downward force against a surface increases significantly if the contact surface area is reduced.
Reason (R): Mechanical pressure maintains an inverse relationship with contact area, mathematically defined as Pressure = Thrust / Area.
✅ Correct Answer
Concept Explanation
Pressure tracks how concentrated a force is over a surface. Because area sits in the denominator of the equation, a smaller contact area (like the sharp tip of a nail or the thin strap of a heavy bag) distributes the force over a tiny space, multiplying the resulting pressure. The reason directly explains the assertion.
The physical property of mass represents a fundamental quantitative attribute of matter that:
✅ Correct Answer
Concept Explanation
Mass is an intrinsic property measuring an object's inertia and the total quantity of matter it contains. Because moving an object across different gravitational fields does not change its atomic structure, its mass remains constant everywhere.
The downward gravitational force or weight (W) acting on a body is computed using which algebraic product?
✅ Correct Answer
Concept Explanation
Weight represents the gravitational pulling force acting on an object. Applying Newton's second law (F = ma), we map force to weight (W), mass to m, and acceleration to the local gravitational field (g), creating the formula: W = m × g.
Because weight is fundamentally classified as a gravitational pulling force, its standard SI unit is the:
✅ Correct Answer
Concept Explanation
A common point of confusion is using the kilogram to measure weight. In scientific terms, the kilogram is reserved strictly for mass. Because weight is a force, it is measured internationally using the newton (N).
The total gravitational weight of an object measured on the surface of the Moon is approximately:
✅ Correct Answer
Concept Explanation
Because the Moon is much less massive than the Earth, its local surface gravitational field is much weaker. Consequently, an object transported to the Moon experiences one-sixth of its Earth weight, even though its mass remains unchanged.
By mechanical definition, the term thrust refers to a force that acts:
✅ Correct Answer
Concept Explanation
While forces can press against objects at any angle, the term thrust is reserved specifically for the component of force acting perpendicular to the surface. It forms the numerator in fluid and solid pressure equations.
The intensity of surface pressure (P) is computed mathematically via which ratio?
✅ Correct Answer
Concept Explanation
Pressure measures the distribution of a perpendicular force over a specific surface region. The mathematical definition is Pressure = Thrust / Area. This means you can reduce pressure by spreading a force over a larger area.
The standard derived International System (SI) unit used to measure fluid and solid pressure is the:
✅ Correct Answer
Concept Explanation
One unit of pressure equals one Newton of force distributed over an area of one square metre (1 N/m²). This combined derived unit is named the Pascal (Pa), honoring the scientist Blaise Pascal.
Objects experience an upward, lifting physical force known as buoyancy whenever they are:
✅ Correct Answer
Concept Explanation
Fluids exert pressure on all sides of an immersed object, and because fluid pressure increases with depth, the upward force on the bottom of the object is greater than the downward force on the top. This net pressure imbalance creates an upward lifting force called the buoyant force.
The net buoyant force exerted by a liquid medium against an immersed object acts in the:
✅ Correct Answer
Concept Explanation
Buoyancy acts as an upward counter-force that works directly against the downward pull of gravity. This upward push explains why heavy objects feel significantly lighter when submerged in water.
A solid object will float successfully when placed on the surface of liquid water if its physical density is:
✅ Correct Answer
Concept Explanation
If an object's density is less than the liquid's density, the maximum buoyant force the liquid can provide is greater than the object's downward weight, keeping it afloat. If the object is denser than the liquid (like a stone in water), gravity wins and the object sinks.
The scientific principle stating that a body immersed in a fluid experiences an upward buoyant force equal to the weight of the fluid it displaces is called:
✅ Correct Answer
Concept Explanation
Archimedes' principle serves as the backbone of fluid mechanics. It allows engineers to compute exact boat displacement values by matching normal vertical gravity weights against the total mass density of the volume of liquid pushed away by a hull.
Assertion (A): The gravitational force between two objects decreases when the distance between them increases.
Reason (R): Gravitational force is inversely proportional to the square of the distance between the objects.
✅ Correct Answer
Concept Explanation
According to the Universal Law of Gravitation, the force between two masses follows an inverse-square law. This means that as the distance increases, the force drops down. Therefore, the reason directly explains why the force decreases with distance.
According to the universal law of gravitation, the force between two stationary objects depends on which of the following parameters? - (i) The mass of the first object
- (ii) The mass of the second object
- (iii) The distance between the centers of the objects
- (iv) The specific physical shape of the objects
✅ Correct Answer
Concept Explanation
The universal law of gravitation states that the force is directly proportional to the product of the two masses and inversely proportional to the square of the distance between them. It does not depend on the physical shape or orientation of the objects.
Match the symbols and physical quantities in Column A with their matching formulas or values in Column B:
| Column A | Column B |
|---|---|
| (1) Constant symbol G | (A) Universal gravitational constant with a fixed value everywhere |
| (2) Field symbol g | (B) Acceleration due to gravity near Earth's surface (9.8 m/s²) |
| (3) Weight (W) | (4) Gravitational force calculated as mass times gravity (m × g) |
| (4) Pressure (P) | (D) Normal perpendicular force acting per unit area (Thrust / Area) |
✅ Correct Answer
Concept Explanation
The value of G remains constant across the universe, while g varies by location. Weight is the pulling force computed as mass times gravity, and pressure is normal perpendicular force (thrust) divided by area.
Assertion (A): The weight of an object becomes exactly zero at the center of the Earth.
Reason (R): The acceleration due to gravity drops to zero at the center of the Earth.
✅ Correct Answer
Concept Explanation
At the exact center of the Earth, the gravitational pulls from the surrounding matter cancel each other out, making g equal to zero. Since weight is mass times gravity (W = m × g), when g is zero, the weight also becomes zero.
The numerical value of the acceleration due to gravity (g) depends on which of the following variables? - (i) The total mass of the Earth
- (ii) The radius of the Earth
- (iii) The height or altitude from the Earth's surface
- (iv) The color and material of the falling object
✅ Correct Answer
Concept Explanation
The value of g is calculated using the planet's mass and the distance from its center. As you go higher above the surface, the distance increases, which causes g to decrease. Object attributes like color or surface material have no effect on this value.
Match the key mechanical terms in Column A with their correct fluid or gravity definitions in Column B:
| Column A | Column B |
|---|---|
| (1) Free Fall | (A) Motion of an object falling under the sole influence of gravity |
| (2) Buoyant Force | (B) The net upward force exerted by a fluid on an immersed object |
| (3) Thrust | (C) A force acting completely perpendicular to a surface area |
| (4) Relative Density | (D) A comparison ratio of densities that carries no units |
✅ Correct Answer
Concept Explanation
Free fall means only gravity is acting on a body. Buoyant force is the upward lifting push from a fluid. Thrust stands for normal perpendicular forces, and relative density is a matching ratio comparing a substance to water, meaning it has no units.
Assertion (A): A crumpled ball of paper falls down through open air much faster than a flat sheet of paper.
Reason (R): The flat sheet of paper presents a larger surface area, meaning it experiences higher air resistance.
✅ Correct Answer
Concept Explanation
In the open atmosphere, falling objects strike air molecules, creating an upward friction drag. A flat sheet has a large surface layout that meets more air resistance than a tight crumpled ball, which slows its descent. Therefore, the reason perfectly explains the assertion.
The total gravitational weight of an object near a planet depends on which of the following factors? - (i) The physical mass of the object
- (ii) The value of the local acceleration due to gravity
- (iii) The specific geographical location of the object
- (iv) The physical shape and volume of the object
✅ Correct Answer
Concept Explanation
Weight is a force calculated as W = m × g. It depends directly on the object's mass and local gravity. Since gravity varies based on your precise location on Earth (stronger at the poles, weaker at the equator), weight changes with location too. Shape has no influence on this weight force.
Match the geographical environments and historical scientists in Column A with their associations in Column B:
| Column A | Column B |
|---|---|
| (1) Planet Earth | (A) Surface gravity environment where g is roughly 9.8 m/s² |
| (2) The Moon | (B) Satellite environment where an object's weight is 1/6 of its Earth value |
| (3) Blaise Pascal | (C) Scientist who defined modern pressure units |
| (4) Archimedes | (D) Scientist who discovered fluid upthrust rules |
✅ Correct Answer
Concept Explanation
Earth houses standard surface gravity. The Moon has a smaller mass, leading to a one-sixth weight profile. Pascal mapped force distribution equations, and Archimedes defined the mechanics of displaced fluid upthrust.
Assertion (A): The physical pressure exerted by a liquid inside a container increases with depth.
Reason (R): Liquids have weight and exert pressure on both the walls and the base of their container.
✅ Correct Answer
Concept Explanation
Both statements are correct. Pressure increases with depth because lower layers must hold up the weight of the fluid column above them. While it is true that liquids have weight and press on walls, this general fact does not explain the exact mathematical increase tied to depth, making option B correct.
Under fluid-mechanic properties, an object will float when placed in a liquid if: - (i) The density of the object is less than the density of the liquid
- (ii) The upward buoyant force is greater than the downward weight of the object
- (iii) The density of the object is greater than the density of the liquid
- (iv) The upward buoyant force is exactly equal to the downward weight of the object
✅ Correct Answer
Concept Explanation
An object floats if its density is lower than the fluid's density, or if the maximum buoyant force (upthrust) exceeds or matches its downward gravitational weight. This satisfies parameters (i), (ii), and (iv). If an object is denser than the liquid (iii), it will sink to the bottom.
Match the mechanical properties in Column A with their correct standard metric units in Column B:
| Column A | Column B |
|---|---|
| (1) Volumetric Density | (A) kilograms per metre cubed (kg m⁻³) |
| (2) Inertial Mass | (B) standard kilograms (kg) |
| (3) Object Weight | (C) standard Newtons (N) |
| (4) Surface Pressure | (D) Newtons per metre squared (N m⁻²) |
✅ Correct Answer
Concept Explanation
Density tracks mass over volume (kg/m³). Mass maps to base kilograms (kg). Weight is a force measured in Newtons (N), and pressure tracks force over area (N/m², or Pascals).
Assertion (A): An object floats when placed in water if its density is less than that of water.
Reason (R): The net upward buoyant force acting on a body depends on the density of the fluid it is placed in.
✅ Correct Answer
Concept Explanation
Buoyant force equals the weight of the fluid displaced. Because upthrust scales with the density of the fluid, a less dense object cannot displace a weight of water equal to its own volume without generating an upward force greater than its weight, making it float. This directly links the reason to the assertion.
The standard SI unit configuration used to express pressure measurements can be written as: - (i) Newtons per square metre (N/m²)
- (ii) The exponential expression N m⁻²
- (iii) The dedicated unit title Pascal (Pa)
- (iv) The mass expression kg m⁻²
✅ Correct Answer
Concept Explanation
Because pressure tracks thrust over area, its base configuration is Newtons over square metres (N/m² or N m⁻²). This composite unit is named the Pascal (Pa). Description (iv) is incorrect because it uses mass kilograms instead of force Newtons.
Match the advanced gravitational relationships in Column A with their proper metrics in Column B:
| Column A | Column B |
|---|---|
| (1) Kepler's Third Law | (A) Orbital relationship equation where r³ / T² = constant |
| (2) Gravitational Force | (B) Mutual attraction force scaling with mass products (m₁ × m₂) |
| (3) Upthrust | (C) Upward pressure force generated by fluid displacement |
| (4) Polar gravity profile | (D) Local gravity value is higher at the poles than at the equator |
✅ Correct Answer
Concept Explanation
Kepler's third law relates orbital radius to planetary time periods. Gravitational force acts as mutual mass attractions. Upthrust defines buoyant actions, and polar paths experience elevated gravity fields due to shorter planetary radii.
During a textbook "free fall" event within an absolute vacuum, which of the following physical actions occur? - (i) The rate of downward acceleration stays uniform and constant
- (ii) Only the gravitational force acts upon the body
- (iii) The downward velocity increases continuously over time
- (iv) The horizontal direction of travel changes continuously
✅ Correct Answer
Concept Explanation
Free fall within a vacuum keeps acceleration steady at g = 9.8 m/s² (i), while only the gravitational force acts (ii). Because acceleration is constant and downward, velocity increases continuously (iii) while heading in a straight downward direction without shifting paths (iv).
Match the standard metric unit configurations in Column A with their parameter targets in Column B:
| Column A | Column B |
|---|---|
| (1) N m² kg⁻² | (A) Derived unit of the universal gravitational constant G |
| (2) m s⁻² | (B) Standard unit of acceleration due to gravity g |
| (3) kg m⁻³ | (C) Standard unit of volumetric density |
| (4) Newton (N) | (D) Standard unit of weight or thrust force |
✅ Correct Answer
Concept Explanation
The value of G requires compounding distance and mass units (N m² kg⁻²). Local fields use acceleration units (m/s²). Volumetric profiles divide mass by space (kg/m³), and weight tracking requires force Newtons (N).
The total perpendicular thrust generated by an object pressing down against a surface depends on which base properties? - (i) The raw magnitude of the applied normal force
- (ii) The direction of the force vector (must be perpendicular to the surface)
- (iii) The total surface area of the boundary contact zone
- (iv) The internal volumetric density of the material
✅ Correct Answer
Concept Explanation
Thrust is defined strictly as the total force component acting perpendicular to a surface. Therefore, its magnitude depends entirely on the size of the force (i) and its 90-degree alignment angle (ii). Surface area (iii) alters the resulting pressure, but does not change the incoming thrust value itself.
Match the celestial bodies in Column A with their gravitational behaviors in Column B:
| Column A | Column B |
|---|---|
| (1) Falling apple | (A) Attracted and pulled straight downward by Earth's gravity |
| (2) The Moon | (B) Orbits the Earth due to centripetal gravitational pull |
| (3) Planet Earth | (C) Orbits the Sun within our solar system layout |
| (4) The Sun | (D) Attracts and binds distant orbiting planets in place |
✅ Correct Answer
Concept Explanation
Apples accelerate straight downward toward Earth. The Moon orbits our planet via centripetal gravitational scaffolding, while Earth loops around the Sun, and the massive Sun exerts gravitational force to hold the solar system together.
The total upward buoyant force generated when an object is submerged inside a liquid depends on which parameters? - (i) The volumetric density of the fluid medium
- (ii) The total volume of fluid displaced by the object
- (iii) The total structural mass of the submerged object
- (iv) The localized acceleration due to gravity
✅ Correct Answer
Concept Explanation
Archimedes' principle proves that buoyant force equals the weight of the fluid displaced. This shows that buoyancy depends on fluid density, displaced volume, and gravity. The object's own mass determines whether it will sink, but does not affect the buoyant force value itself.
Match the floating behaviors in Column A with their material explanations in Column B:
| Column A | Column B |
|---|---|
| (1) Solid iron nail | (A) Sinks down rapidly because its density is higher than water |
| (2) Lightweight cork block | (B) Floats along the surface because its density is lower than water |
| (3) Water volume | (C) Exerts a reactive buoyant upward upthrust against objects |
| (4) Fluid medium state | (D) Represents any liquid or gaseous matter capable of flowing |
✅ Correct Answer
Concept Explanation
Iron sinks because its density exceeds water. Cork floats due to its lower density profile. Liquid water provides upward upthrust forces, and the fluid state category includes both liquids and gases.
The total mass of an object remains completely constant and unchanged across which of the following locations? - (i) When transported to the surface of the Moon
- (ii) When drifting inside zero-gravity deep space
- (iii) When moved from sea level up to the geographic poles
- (iv) When moved from the poles down to the equator belt
✅ Correct Answer
Concept Explanation
Mass measures the total amount of matter contained within an object. Because changing locations across different gravitational field conditions does not alter the atomic structure or number of atoms in an object, its mass remains constant across all four scenarios.
Match the densities and metrics in Column A with their material values in Column B:
| Column A | Column B |
|---|---|
| (1) Relative density metrics | (A) A comparison ratio parameter that carries no units |
| (2) Elemental Gold density | (B) High absolute density value of 19,300 kg m⁻³ |
| (3) Liquid Water density | (C) Baseline density reference value of 1,000 kg m⁻³ |
| (4) Elemental Silver density | (D) Absolute density value of 10,800 kg m⁻³ |
✅ Correct Answer
Concept Explanation
Relative density divides a substance's density by water's density, canceling units out. Gold carries an absolute density of 19,300 kg/m³. Pure water serves as the baseline at 1,000 kg/m³, and silver tracks at 10,800 kg/m³.
Sir Isaac Newton's universal law of gravitation provides a unified explanation for which of the following natural phenomena? - (i) The complex orbital paths of planets around the Sun
- (ii) The stable orbital movement of the Moon around the Earth
- (iii) The cyclic rise and fall of ocean tides
- (iv) The force that binds us securely to the surface of the Earth
✅ Correct Answer
Concept Explanation
Newton's universal law of gravitation holds immense importance. It proved that a single force accounts for both local terrestrial events (binding objects to the Earth) and grand celestial patterns, including planetary orbits, lunar paths, and ocean tides driven by solar and lunar gravitational fields.
Match the mechanical parameters in Column A with their definitions in Column B:
| Column A | Column B |
|---|---|
| (1) Thrust | (A) Total force acting perfectly perpendicular to a surface area |
| (2) Pressure | (B) Force distributed per unit area (Thrust / Area) |
| (3) Buoyancy | (C) Upward lifting force exerted by a fluid on an immersed body |
| (4) Free Fall | (D) Downward movement occurring under the exclusive influence of gravity |
✅ Correct Answer
Concept Explanation
Thrust is defined as force acting perpendicular to a surface. Pressure tracks how that thrust is spread over a specific field layout. Buoyancy acts as an upward lifting fluid push, and free fall describes downward movement driven exclusively by gravitational forces.
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SEBA Class 9 Science Chapter 10 Gravitation MCQs – Important Objective Questions
A clear understanding of Gravitation is essential for grasping fundamental concepts in Physics that explain how objects interact with each other in the universe. Practicing well-structured MCQs based on the latest SEBA (ASSEB) syllabus helps students strengthen both conceptual knowledge and numerical problem-solving skills.
These SEBA Class 9 Science Chapter 10 MCQs cover important topics such as Newton’s universal law of gravitation, acceleration due to gravity (g), the difference between mass and weight, equations of free fall, buoyant force, Archimedes’ principle, and relative density. These concepts are not only important for exams but also help in understanding real-life phenomena.
By solving these important objective questions for Class 9 Science, students can improve their ability to apply formulas correctly, solve numerical problems efficiently, and understand the practical applications of gravitational force. It also helps in avoiding common mistakes related to units, formulas, and conceptual understanding.
Regular MCQ practice enhances accuracy, speed, and confidence. Students become more comfortable with different types of questions, manage time effectively, and can revise the entire chapter quickly before exams.
To achieve better results in school assessments and board-level examinations, students should include these MCQs in their regular study routine. With consistent practice and strong conceptual clarity, scoring well in this chapter becomes much easier and more achievable.
FAQs – SEBA Class 9 Science Chapter 10 Gravitation MCQs
1. How many MCQs come from Gravitation in SEBA Class 9 exams?
About 4–6 MCQs usually come, but overall 45 MCQs are asked in the final ASSEB paper. Focus on formulas and definitions for quick scoring.
2. What are the most important MCQs from Chapter 10 Gravitation for SEBA?
Important MCQs come from Newton’s law, free fall, mass vs weight, and thrust & pressure. Practice these repeatedly to avoid confusion in exams.
3. Is Gravitation chapter difficult for Class 9 SEBA students?
Not really difficult if you understand concepts like gravity and formulas clearly. Most questions are direct, so practice makes it very easy.
4. Where can I download SEBA Class 9 Gravitation MCQs with answers PDF?
You can download chapter-wise MCQs from Assam Eduverse and similar sites. Always choose updated PDFs based on latest ASSEB exam pattern.
5. How to prepare Gravitation MCQs quickly before exam?
Start with formulas, then solve previous MCQs daily. Revise mistakes and focus on tricky concepts like pressure and buoyancy for better accuracy.
6. Are previous year questions repeated in Gravitation MCQs SEBA?
Yes, similar patterns repeat often. Practicing past MCQs from Assam Eduverse helps you recognize question trends and score faster.
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