Genius Jnr - Fill in the blanks: Shape Centre of Rotation Order of Rotation Angle of Rotation Square - - - Rectangle - - - Rhombus - - - Equilateral Triangle - - - Regular Hexagon - - - Circle - - - Semi-circle - - -

we're on twitter about

member? login join us!

preparing for upcoming exams? we've got you covered

registration for

geniusjnr olympiads

is now open

be the best - among the bests

Fill in the blanks:

Shape	Centre of Rotation	Order of Rotation	Angle of Rotation
Square	-	-	-
Rectangle	-	-	-
Rhombus	-	-	-
Equilateral Triangle	-	-	-
Regular Hexagon	-	-	-
Circle	-	-	-
Semi-circle	-	-	-

or

similar questions

Take Data Giving Minimum Maximum Temperature Various Cities Given Following Table Temperatures Citie Use Euclid Division Lemma Show Cube Positive Integer Form 9m 9m 1 9m 8 Name Two Figures Line Symmetry Rotational Symmetry Express Following Linear Equations Form Ax C 0 Indicate Values B C Case Ii Iii 2x 3 6 Iv X 3y V 2x 5 Tell Whether Following Certain Happen Impossible Happen Certain Older Today Yesterday Ii Tossed Coin Draw Wherever Possible Rough Sketch Triangle Line Rotational Symmetries Order 1 Ii Triangle Line Sym 6 Marbles Box Numbers 1 6 Marked Probability Drawing Marble Number 2 Ii Probability Drawing Marble N One Following Options True 3x 5 Unique Solution Ii Two Solutions Iii Infinitely Many Solutions Figure Two Lines Symmetry Rotational Symmetry Order 1 Coin Flipped Decide Team Starts Game Probability Team Start Fill Blanks Shape Centre Rotation Order Rotation Angle Rotation Square Rectangle Rhombus Equilateral Box Contains Pairs Socks Two Colours Black White Picked White Sock Pick One Eyes Closed Probability Name Quadrilaterals Line Rotational Symmetry Order 1 Express Number Product Prime Factors Write Four Solutions Following Equations 2x 7 Ii X 9 Iii X 4y Measure Right Angle Ii Straight Angle Rotating 60 Centre Figure Looks Exactly Original Position Angles Happen Figure One Following Figures Direction Acceleration Depicted Correctly Simple Pendulum Damped Oscillation Rotational Symmetry Order 1 Whose Angle Rotation 45 Ii 17 Find Lcm Hcf Following Pairs Integers Verify Lcm Hcf Product Two Numbers Hollow Charged Conductor Tiny Hole Cut Surface Show Electric Field Hole Unit Vector Outward Normal D Obtain Formula Electric Field Due Long Thin Wire Uniform Linear Charge Density Without Using Gauss L Believed Protons Neutrons Constitute Nuclei Ordinary Matter Built Elementary Units Called Quarks Pro Consider Arbitrary Electrostatic Field Configuration Small Test Charge Placed Null Point E E 0 Conf Particle Mass Charge Q Enters Region Two Charged Plates Initially Moving Along X Axis Speed Vx Like World Famous Cricketer Rahul Specially Designed Practice Ground Ground Specially Designed Wall Pq An Sleeping Pills Recommended Doctors Patients Suffering Sleeplessness Advisable Take Doses Without Con Reference Classification Statement Ranitidine Antacid Given Require Artificial Sweetening Agents Write Chemical Equation Preparing Sodium Soap Glyceryl Oleate Glyceryl Palmitate Structural Formulae Following Type Nom Ionic Detergents Present Liquid Detergents Emulsifying Agents Wetting Agents Labe Need Classify Drugs Different Ways Explain Term Target Molecules Drug Targets Used Medicinal Chemistry Name Macromolecules Chosen Drug Targets Medicines Taken Without Consulting Doctors Define Term Chemotherapy Forces Involved Holding Drugs Active Site Enzymes Antacids Antiallergic Drugs Interfere Function Histamines Interfere Function Low Level Noradrenaline Cause Depression Types Drugs Needed Cure Problem Name Two Drugs Meant Term Broad Spectrum Antibiotics Explain Antiseptics Differ Disinfectants Give One Example Total Energy Developed System Initial Displacement Given 0 2 Rad Main Constituents Dettol Tincture Iodine Use Food Preservatives Use Aspartame Limited Cold Foods Drinks Artificial Sweetening Agents Give Two Examples Name Sweetening Agent Used Preparation Sweets Diabetic Patient Electrical Technician Requires Capacitance 2 F Circuit Across Potential Difference 1 Kv Large Number Fe H2o 6 3 Strongly Paramagnetic Whereas Fe Cn 6 3 Weakly Paramagnetic Explain Think Tiruvananthapuram Equable Climate Chennai Rains Fury Monsoon Parts Country Jodhpur Hot Desert Match Following Animals Category Existence Animals Plants Category Existence Black Buck Extinct Asia Multiple Choice Questions Two Following Extreme Locations Connected East West Corridor Mumbai Nagpur Using Examples Area Compare Contrast Activities Functions Private Public Sectors Workers Unorganised Sector Need Protection Following Issues Wages Safety Health Explain Examples Situations High Risks Credit Might Create Problems Borrower Explain 26 1931 Price Line Electron Mass Natural Angular Frequency 0 Transition Nth Mth Energy States External Laser Provides F Write Difference Return Inwards Return Outwards Difference Trade Discount Cash Discount Maximum Energy Particle Executing H Amplitude E Potential Energy Displacement Spring Time Period 10 Seconds Cut 5 Equal Parts Would Time Period Part Time Period Bell Attached Branch Tree Happen Time Period Bird Sits Bell Distance Moved Particle Simple Harmonic Motion One Time Period Amplitude Motion Potential Energy Oscillating Particle Given V X Kx2 Time Period Given Proportionality Constant Reduc Aparna Manisha Sonia Partners Sharing Profits Ratio 3 2 1 Manisha Retires Goodwill Firm Valued Rs 1 Books Ram Bharat Showed Capital Employed 31 12 2016 Rs 5 00 000 Profits Last 5 Years 2015 Rs 40 000 Mass Suspended Spring Negligible Mass Spring Pulled Little Released Mass Executes Shm Frequency F Ma Define Partnership Deed Considered Desirable Make Partnership Agreement Writing Meant Debenture Particle Projected Tunnel Dug Across Earth Passing Center Earth Speed Spring Spring Constant K N Connected Mass 3 Kg Mounted Horizontally Stretched Positive X Direction 1 Time Period Pendulum Length 1 Seconds Moving Car Acceleration Car G 10 S2 Amplitude Oscillation Increased 25 Increase Energy Equation Motion Particle Given Bywhere X Cm Amplitude Motion Simple Pendulum Time Period 2 Seconds Earth Surface Time Period Height 2r Surface Earth R Radius Ear Length Pendulum Executing Shm Decreased 36 Decrease Time Period Motion Pendulum Following Equations Represent Simple Harmonic Motion Length Pendulum Executing Shm Increased 69 Find Increase Time Period Motion Pendulum Time Period Pendulum Stationary Lift Seconds Lift Moves Upwards Acceleration Calculate New Time Peri Body Lying Platform Oscillating Simple Harmonic Motion Frequency Oscillation Changes Time Relation B Use Following Information Answer Next Question Four Statements Sound Produced Organ Pipe Two Open En Use Following Information Answer Next Question Source Sound Producing Sound Wave Frequency 293 Hz Ly Use Following Information Answer Next Question Two Simple Harmonic Waves Represented Following Equat Use Following Information Answer Next Question Block Given Figure Vibrating Spring Periodic Motion E Temperature Gaseous Medium Raised 1 C Speed Sound Medium Increase Use Following Information Answer Next Question Organ Pipe Closed One End Fundamental Frequency Reson Use Following Information Answer Next Question Two Simple Pendulums Lengths 1 16 Respectively Given 4 Kg Mass Ice Attached Spring 0 C Smooth Surface Mass Displaced Executes Simple Harmonic Motion Inte Straight Tunnel Dug Across Earth Passing Centre Another Tunnel B Dug Along Chord Earth Choose Correc Use Following Information Answer Next Question Two Waves Amplitude Frequency Meet Form Standing Wave Use Following Information Answer Next Question Time Period Spring Spring Constant K Equal Mass Load Use Following Information Answer Next Question Object Mass Dropped Tunnel Passes Centre Earth Follow Particle Executes Simple Harmonic Motion Position Given Choose Correct Plot Circle Corresponding Pos Bob Simple Pendulum Executes Shm Amplitude 0 4 Passing Mean Position Kinetic Energy 0 016 J Obtain E Spring Spring Constant K Stretched X Mm Potential Energy Found U Potential Energy Changes Compressed Simple Pendulum Length L Mass Bob Frequency Oscillation F Hz Earth Frequency Oscillation Placed Surf Cruz Performing Experiment Laboratory Simple Pendulum Length 1 Observes Oscillation Records Time Per Force Constant Spring 20 N Initial Stretch 0 20 Change Potential Energy Expanded 0 25 Two Elevators B Moving Opposite Directions Acceleration Time Periods Identical Pendulums Elevators B Following Motions Describe Periodic Motion Whenever Object Undergoes Simple Harmonic Motion Always Constant Ratio Displacement Use Following Information Answer Next Question Every Periodic Motion Simple Harmonic Periodic Motion Use Following Information Answer Next Question Body Executing Simple Harmonic Motion Described Equat Use Following Information Answer Next Question Load Weight 152 N Suspended Spring Balance Displaced Use Following Information Answer Next Question Block Mass 2 Kg Attached Spring Block Pulled Distance Use Following Information Answer Next Question Simple Harmonic Motion Particle Q Exhibiting Circular Use Following Information Answer Next Question Simple Pendulum Taken Surface Moon Oscillates Time Pe Use Following Information Answer Next Question Simple Pendulum Used Record Time Mountains Value Acce Use Following Information Answer Next Question Given Figure Shows Periodic Motion Particle Graphical Use Following Information Answer Next Question Object Unknown Mass Attached Spring Displaced Equilib Use Following Information Answer Next Question Displacement Particle Executing Simple Harmonic Motio Use Following Information Answer Next Question Object Mass 2 Kg Attached Spring Executing Simple Har Use Following Information Answer Next Question Linear Simple Harmonic Oscillator Consisting Block Ma Use Following Information Answer Next Question Wagon Mass 2 0 Kg Connected Two Springs Spring Consta Use Following Information Answer Next Question Displacement Body Executing Simple Harmonic Motion Gi Use Following Information Answer Next Question Load Mass Suspended Two Springs Spring Constants K1 K Use Following Information Answer Next Question Sphere Filled Water Hung Long Thread Made Oscillate F Use Following Information Answer Next Question System Executing Simple Harmonic Motion Amplitude Cer Time Period Simple Pendulum Placed Elevator Increases Moves Acceleration Angular Frequency Displacement X Basic Condition Motion Particle Shm Use Following Information Answer Next Question Particle Mass 1 G Experiences Potential Energy Given Discuss Brief Whether Function Periodic Mosquito Flaps Wing 60000 Times Minute Calculate Frequency Period Flapping Damping Force Constant System Executing Shm Particle Starts Shm Position Equal Amplitude Vibration Initial Phase Wave Type Motion Simple Pendulum Show Damped Oscillations Plot Displacement Time Curve Case Resonance Oscillation Resonant Oscillations Damping Force Constant System Executing Shm Particle Executes Simple Harmonic Motion According Equation X 5cos2 4 Acceleration Produced 5 Second Length String Simple Pendulum Decreased 5 Ratio Initial Time Period Final Time Period Body Mass 0 5 Kg Moving Simple Harmonic Motion Amplitude 0 8 Kinetic Energy Body Mean Position 0 25 Frequency Oscillation Particle Mass 15 Gm Oscillating Field Potential U X 25x2 50 Erg Gm 1 Body Fixed Vertical Spring Stretches Distance 25 Cm Exerting Force 10 N Mass Body Attached Spring Os Following Graphs Represent Periodic Motion Body Executing Simple Harmonic Motion Time Period Possess Energy E Amplitude Body Halved Following S Block Mass Kept Frictionless Platform Connected Three Massless Springs Force Constant K K 2k Frequen Object Mass 5 Kg Moving Velocity 15 Ms 1 Stopped Compressing String Placed Path Force Constant Sprin Lowest Position Speed Bob 1 2 Long Pendulum 5 Ms 1 Speed Pendulum Bob Makes Angle 45 Vertical Take G Hole Drilled Across Diameter Earth Object Dropped Inside Object Start Execute Shm Time Period R Radi Particle Mass Executing Simple Harmonic Motion Amplitude Distance Mean Position Kinetic Potential En Bob Simple Pendulum Given Positive Charge Set Oscillate Right Negatively Charged Surface Original Ti Point Particle Mass 2 75 10 12 Kg Executing Simple Harmonic Motion Time Period 5 4 10 3 Maximum Velo Particle Undergoing Forced Vibrations Resonance Wave Exhibited Sharp Peak Time Period Particle Executing Simple Harmonic Motion Shortest Distance Travelled 5 Seconds Equal 12 Body Mass Suspended Help Spring Oscillates Time Period Spring Cut Three Equal Section Body Suspended Body Mass 2 Kg Executing Simple Harmonic Motion Represented Equation X 15cos50t 6 Cm Maximum Kinetic Competing 500 Oscillations Amplitude Oscillating Body Reduces Half Initial Value Amplitude 1000 Osci Particle Mass Executing Simple Harmonic Motion Time Period Projection Motion Along Body Mass 6 Kg Placed Spring Produces Compression 50 Cm Restoring Force Developed Spring 25 N Time P Metallic Cube Mass Cross Sectional Area Floating Liquid Density Given Small Vertical Displacement Me Given Figure Shows Six Identical Springs Connected Mass Three Different Configurations Ratio Time Pe One Following Statements Incorrect Body Executing Simple Harmonic Motion Object Executing Shm Time Period 10 Seconds Kinetic Energy Body Mean Position 25 J Amplitude Oscilla Following Figures Direction Net Acceleration Correctly Depicted Simple Pendulum Damped Oscillation D Following Equations Pairs Equations Represents Simple Harmonic Motion X Acos Bsin Ii X Btan Iii X Ae Small Opening Metallic Sphere Radius R Completely Filled Liquid Density Sphere Attached String Made Given Equations Represent Shm Executed Two Particles 1 2 Respectively X1 3cos 25t X2 10sin 25t Phase Block Mass 5 Kg Attached Massless Spring Force Constant 750 Nm 1 Shown Fig Given Displacement 10 Cm Seconds Pendulum Taken Earth Moved Planet G 5 65 Ms 2 Would Change Length Time Period Remains G Eart Point Particle Mass 1 75 10 3 G Moving Potential Field Given U X 25 X 100 Erg G 1 Frequency Oscillat Particle Executes Simple Harmonic Motion Displacement Time X Asin Bcos 3 B 5 10 1 Magnitude Maximum Mass Connected Spring Spring Constant 40 N 1 Mass Body Changes Time Given Relation Dm 2 Dtthe Angula Second Pendulum Held Rod Middle Long Elevator Choose Correct Option Solid Ball Attached Spring Thread Spring Relaxed Position Ball Rotate Side Wall Shown Thread Cut Spr Uniform Solid Sphere Radius 4 Cm Mass 250 G Fixed Center Metal Wire Whose End Fixed Roof Hanging Sph Two Metallic Wires B Attached Hanging Ceiling Mass Lower End Cross Sectional Area Ratio Lengths 5 1 Block Spring System Shown Figure Coefficient Friction Block B 0 2 Coefficient Friction B C 0 5 Surfa Body Mass 4 Kg Executing Simple Harmonic Motion Restoring Force Time Period Maximum Force Exerted Sp N Number Equal Masses Attached Spring Stiffness 80 N 1 Time Period Oscillation X Number Masses Remov Rubber Ball Mass 20 G Attached String Length 40 Cm Suspended Tree Branch Inclined Angle 7 5o Ball Di Given Figure Shows Rectangle Abcd Bf De Perpendiculars Drawn Vertices B Respectively Diagonal Ac Pro Particle Executes Simple Harmonic Motion Position Given Choose Correct Plot Circle Corresponding Pos Bob Simple Pendulum Executes Shm Amplitude 0 4 Passing Mean Position Kinetic Energy 0 016 J Obtain E Spring Spring Constant K Stretched X Mm Potential Energy Found U Potential Energy Changes Compressed Uniform Magnetic Field Exists Plane Paper Pointing Left Right Shown Figure 13 3 Field Electron Proto Whenever Object Undergoes Simple Harmonic Motion Always Constant Ratio Displacement Use Following Information Answer Next Question Every Periodic Motion Simple Harmonic Periodic Motion Use Following Information Answer Question Body Executing Simple Harmonic Motion Described Following Use Following Information Answer Next Question Load Weight 152 N Suspended Spring Balance Displaced Use Following Information Answer Next Question Block Mass 2 Kg Attached Spring Block Pulled Distance Use Following Information Answer Next Question Simple Harmonic Motion Particle Q Exhibiting Circular Use Following Information Answer Next Question Simple Pendulum Taken Surface Moon Oscillates Time Pe Use Following Information Answer Next Question Simple Pendulum Used Record Time Mountains Value Acce Use Following Information Answer Next Question Given Figure Shows Periodic Motion Particle Graphical Use Following Information Answer Next Question Object Unknown Mass Attached Spring Displaced Equilib Use Following Information Answer Next Question Displacement Particle Executing Simple Harmonic Motio Use Following Information Answer Next Question Object Mass 2 Kg Attached Spring Executing Simple Har Use Following Information Answer Next Question Linear Simple Harmonic Oscillator Consisting Block Ma Use Following Information Answer Question Wagon Mass 2 0 Kg Connected Two Springs Spring Constant 10 Use Following Information Answer Next Question Displacement Body Executing Simple Harmonic Motion Gi Use Following Information Answer Next Question Load Mass Suspended Two Springs Spring Constants K1 K Use Following Information Answer Next Question Sphere Filled Water Hung Long Thread Made Oscillate F Use Following Information Answer Next Question System Executing Simple Harmonic Motion Amplitude Cer Time Period Simple Pendulum Placed Elevator Increases Moves Give Example Periodic Motion Oscillatory State Condition Required Oscillatory Motion Simple Harmonic Motion Body Oscillates Shm According Equation Amplitude Initial Phase Motion Time Period Shm Period Time Values Kinetic Energy Potential Energy Repeat Two Springs Subjected Force One Spring Oscillates Frequency 5 1 Frequency 10 1 Inferred Value Spring Condition Periodic Motion Simple Pendulum Qualify Simple Harmonic Motion Resonance Amplitude Object Executing Forced Oscillations Given F0 Damping Force D2 Infinity However Real Life Exemplify Periodic Motion Oscillatory Oscillatory Motion Plotting Two Displacement Time Graphs Following Relationships Force F Particle Particles Position X Implies Simple Harmonic Oscillation F Graphically Represent Kinetic Energy Potential Energy Associated Simple Harmonic Motion Function Tim Graphically Represent Kinetic Energy Potential Energy Associated Simple Harmonic Motion Function Dis Arrange Damping Coefficients B1 B2 B3 Given Waves Decreasing Order Magnitude Equation Helps Determin Angular Displacement Simple Pendulum Small 50 Classified Simple Harmonic Frequency Hz Simple Harmonic Oscillation Time Speed Particle Maximum Downward 5 S2 Upward 10 S2 Downward 10 S2 Mass One Objects Doubled Spring Cut Half Original Length Spring Stretched Increase Amplitude Oscillation Draw Displacement Vs Time Graphs Oscillations Object Air Water Damped Oscillator 250 G K 85 N B 70 G Long Take Mechanical Energy Oscillator Drop One Half Initial V Radius Circle Particle Moving Constant Angular Speed 4cm Perpendicular Dropped Postion Particle X Ax Calculate Mechanical Energy Linear Oscillator Whose Speed Becomes Zero Time Displacement 13cm K 26 N Kinetic Energy Block Explain Phase Simple Harmonic Motion Block Mass 700 G Fastened Spring Whose Spring Constant K 56 N Block Kept Frictionless Table Pulled D Mass 420 G Attached Spring Spring Constant K 70 N System Made Undergo Damped Oscillations Damping Co State Condition Resonance Use Following Information Answer Next Question Two Balls Mass 1 Kg 0 5 Kg Respectively Connected Mas Spring Stretched X Mm Potential Energy U Spring Compressed Factor N Respect Previous Expansion Poten Use Following Information Answer Next Question Force Constant Spring 20 N Initial Stretch 0 20 Chang Two Unequal Masses Joined Together Compressed Spring Spring Suddenly Cut Two Masses Fly Apart Numeri Use Following Information Answer Next Question Man Bungee Jumping Bridge Length Cord Uses 50 Spring Use Following Information Answer Next Question Block Mass Lying Horizontal Frictionless Surface Atta Use Following Information Answer Next Two Questions Dennis Trying Different Ways Hanging Tyre Weight Following Statements Regarding Effective Spring Constant True Use Following Information Answer Next Question Jim Writing Velocity Displacement Body Undergoing Sim Use Following Information Answer Next Question Ball Mass Hanging Spring Balance Executing Simple Har Use Following Information Answer Next Question Ball Fastened Periphery Vertical Wheel Rotating 60 Rp Use Following Information Answer Next Question Time Dependent Equation Simple Harmonic Motion Given Use Following Information Answer Next Question Two Simple Harmonic Waves Represented Following Equat Use Following Information Answer Next Question Two Simple Pendulums Lengths 1 16 Respectively Given Use Following Information Answer Next Question Jack Conducts Experiment Know Variables Affect Freque Use Following Information Answer Next Question Tom Wants Know Effect Gravity Time Period Simple Pend Use Following Information Answer Next Question Chetan Performing Experiment Laboratory Simple Pendul Use Following Information Answer Next Question Time Period Spring Spring Constant K Equal Mass Load Use Following Information Answer Next Question Period Oscillation Spring Inversely Proportional Squa Use Following Information Answer Next Question William Conducting Experiment Using Spring Length L S Object Moving Constant Period U Seconds Means Object Simple Pendulum Swinging Time Period Seconds Vertical Plane Frequency Pendulum Use Following Information Answer Next Question Given Figure Shows Simple Pendulum Length L Oscillati Use Following Information Answer Next Question Given Figure Shows Two Simple Pendulums Ii Oscillatin Use Following Information Answer Next Question Four Simple Pendulums Ii Iii Iv Oscillating Plane Sho Use Following Information Answer Next Question Given Figure Shows Spring Suspended Ceiling K Spring Use Following Information Answer Next Question Given Figure Shows Spring Suspended Ceiling K Spring Simple Pendulum Length L Mass Bob Frequency Oscillation Pendulum F Hz Earth Frequency Oscillation Pe Use Following Information Answer Next Question Block Given Figure Vibrating Spring Periodic Motion E Use Following Information Answer Next Question Block Given Figure Vibrating Spring Periodic Motion E Use Following Information Answer Next Question Object Mass Dropped Tunnel Passes Centre Earth Follow Use Following Information Answer Next Question Jack Wants Calculate Acceleration Due Gravity G Schoo Use Following Information Answer Next Question Two Points B 20 Cm Apart Particle Linear Simple Harmo Use Following Information Answer Next Question Maximum Mass Read Spring Balance Scale 100 Kg Length Time Period Function Use Following Information Answer Next Question Spring Constant Spring Is1500 N 1 Mounted Horizontal Use Following Information Answer Next Question Piston Cylinder Head Vehicle Moves Simple Harmonic Mo Use Following Information Answer Next Question Time Period Simple Pendulum Surface Earth 2 8 Seconds Use Following Information Answer Next Question Spring Spring Constant 900 Nm 1 Ends Free Attached Ma Use Following Information Answer Next Question Given Figure Shows Simple Harmonic Motion Particle Fo Use Following Information Answer Next Question Particle Executing Simple Harmonic Motion Displacemen Following Equations Represent Simple Harmonic Motion Use Following Information Answer Next Question Simple Harmonic Motion Represented X Cm Seconds Frequ Use Following Information Answer Next Question Particle Executing Simple Harmonic Motion Travels Min Use Following Information Answer Next Question Body Oscillates Shm According Equation X 2 0 Speed Bo Following Relationships Represent Simple Harmonic Motion Acceleration X Displacement Use Following Information Answer Next Question Body Mass 0 5 Kg Moving Simple Harmonic Motion Maximu Use Following Information Answer Next Question Body Mass 40 Kg Oscillating Spring Force Constant 640 Use Following Information Answer Next Question Object Mass 4 Kg Attached Spring Oscillates Every 3se Use Following Information Answer Next Question Spring Time Period 2 Seconds Spring Cut 16 Equal Part Use Following Information Answer Next Question Graph Given Figure Represents Periodic Motion Period Use Following Information Answer Next Question Light Simple Pendulum Executing Simple Harmonic Motio Particle Executes Simple Harmonic Motion Position Given Choose Correct Plot Circle Corresponding Pos Spring Spring Constant K Stretched X Mm Potential Energy Found U Potential Energy Changes Compressed Bob Simple Pendulum Executes Shm Amplitude 0 4 Passing Mean Position Kinetic Energy 0 016 J Obtain E Simple Pendulum Length L Mass Bob Frequency Oscillation F Hz Earth Frequency Oscillation Placed Surf Shm Defined Match Quantity Given Column Accurate Variation Time Given Column Ii Column Column Ii Pot Three Springs Different Spring Constants K1 K2 K3 Attached Four Different Ways Match Arrangements Gi Match Conditions Simple Pendulum Given Column Corresponding Time Periods Given Column Ii Column Colu Following Statements Correct Case Simple Pendulum Length L Time Period Following Graph Correct Time Period Oscillating Simple Pendulum 3 Surface Earth Length Pendulum 2 Based Given Information Fo Consider Three Shms Equal Amplitude Direction One Differs Phase Next 45o Superimpose Following Statements Correct Spring Constant Find Time Period Amplitude Bob Find Speed Bob String Makes 0 04 Rad Vertical Angular Acceleration Bob Momentarily Rest Frequency Oscillations Ball Speed Ball B Two Balls Opposite Ends Diameter Ab Total Energy System Sphere Diameter Floating Half Volume Submerged Liquid Density Pushing Slightly Releasing Starts Perf Block Kept Table Undergoes Simple Harmonic Oscillations Horizontal Plane Frequency 4 Hz Maximum Ampl Following Given Spring Mass System Spring Constants Increased Eight Times Frequency Oscillation Beco Concave Mirror 6 2 Curvature Radius Small Spherical Metallic Ball Placed Released Small Distance Cen Time Period Oscillating Spring Attached Mass 5 Mass Increased 3 Kg Time Period Increased 1 3 Find Va Pulley Mass Moment Inertia Axis Hanged String Spring System Shown Figure Spring Spring Constant K St Use Following Information Answer Question Suppose Body Forced Oscillate Periodic External Force Seve Body Oscillates Natural Frequency Help External Periodic Force Whose Frequency Equal Natural Frequen Use Following Information Answer Question Body Oscillates Help External Periodic Force Frequency Dif Following Expressions Correct Small Damping Symbols Used Usual Meanings Use Following Information Answer Next Question Body Oscillates Help External Periodic Force Frequenc Following Statements Correct Regarding Damped Simple Harmonic Oscillation Damping Constant B Damped Harmonic Oscillation Spring Block System Depend Vertical Cylinder Filled Mixture Two Ideal Gases B Supports Freely Moving Piston 0 5 Kg Cross Sectio Particle Executing Periodic Motion Whose Displacement Given 8cos23t2sin 400t Choose Correct Option Following Responsible Energy Loss Damped Harmonic Motion Sinusoidal Force Given Amplitude Applied Oscillator Maintain Oscillation Largest Amplitude Frequency Simple Harmonic Motion Restoring Force Proportional Relation Frequency F Angular Frequency Simple Harmonic Motion Given Time Period Simple Harmonic Motion Time Period Potential Energy Time Period Simple Pendulum Independent Pendulum Simple Harmonic Motion Resultant Force Displacement Body Mean Position Read Following Answer Four Questions V Oscillation Repetitive Variation Typically Time Measure Centr Two Charges 5 10 8 C 3 10 8 C Located 16 Cm Apart Point Line Joining Two Charges Electric Potential Regular Hexagon Side 10 Cm Charge 5 C Vertices Calculate Potential Centre Hexagon Two Charges 2 C 2 C Placed Points B 6 Cm Apart Identify Equipotential Surface System B Direction Ele Spherical Conductor Radius 12 Cm Charge 1 6 10 7c Distributed Uniformly Surface Electric Field Insid Parallel Plate Capacitor Air Plates Capacitance 8 Pf 1pf 10 12 F Capacitance Distance Plates Reduced Three Capacitors Capacitance 9 Pf Connected Series Total Capacitance Combination B Potential Differe Three Capacitors Capacitances 2 Pf 3 Pf 4 Pf Connected Parallel Total Capacitance Combination B Dete Parallel Plate Capacitor Air Plates Plate Area 6 10 3 M2 Distance Plates 3 Mm Calculate Capacitance Explain Would Happen Capacitor Given Exercise 2 8 3 Mm Thick Mica Sheet Dielectric Constant 6 Insert 12 Pf Capacitor Connected 50v Battery Much Electrostatic Energy Stored Capacitor 600 Pf Capacitor Charged 200 V Supply Disconnected Supply Connected Another Uncharged 600 Pf Capacit Charge 8 Mc Located Origin Calculate Work Done Taking Small Charge 2 10 9 C Point P 0 0 3 Cm Point Q Cube Side B Charge Q Vertices Determine Potential Electric Field Due Charge Array Centre Cube Two Tiny Spheres Carrying Charges 1 5 C 2 5 C Located 30 Cm Apart Find Potential Electric Field Mid Spherical Conducting Shell Inner Radius R1 Outer Radius R2 Charge Q Charge Q Placed Centre Shell Sur Show Normal Component Electrostatic Field Discontinuity One Side Charged Surface Another Given Unit Long Charged Cylinder Linear Charged Density Surrounded Hollow Co Axial Conducting Cylinder Electric Hydrogen Atom Electron Proton Bound Distance 0 53 Estimate Potential Energy System Ev Taking Zero Po One Two Electrons H2 Molecule Removed Get Hydrogen Molecular Ion Ground State Two Protons Separated Two Charged Conducting Spheres Radii B Connected Wire Ratio Electric Fields Surfaces Two Spheres Use Two Charges Q Q Located Points 0 0 0 0 Respectively Electrostatic Potential Points B Obtain Dependen Figure 2 34 Shows Charge Array Known Electric Quadrupole Point Axis Quadrupole Obtain Dependence Pot Area Plates 2 F Parallel Plate Capacitor Given Separation Plates 0 5 Cm Realize Answer Ordinary Capa Obtain Equivalent Capacitance Network Fig 2 35 300 V Supply Determine Charge Voltage Across Capacito Plates Parallel Plate Capacitor Area 90 Cm2 Separated 2 5 Mm Capacitor Charged Connecting 400 V Supp 4 F Capacitor Charged 200 V Supply Disconnected Supply Connected Another Uncharged 2 F Capacitor Muc Show Force Plate Parallel Plate Capacitor Magnitude Equal Qe Q Charge Capacitor E Magnitude Electric Spherical Capacitor Consists Two Concentric Spherical Conductors Held Position Suitable Insulating S Spherical Capacitor Inner Sphere Radius 12 Cm Outer Sphere Radius 13 Cm Outer Sphere Earthed Inner S Answer Carefully Two Large Conducting Spheres Carrying Charges Q1 Q2 Brought Close Magnitude Electro Cylindrical Capacitor Two Co Axial Cylinders Length 15 Cm Radii 1 5 Cm 1 4 Cm Outer Cylinder Earthed Parallel Plate Capacitor Designed Voltage Rating 1 Kv Using Material Dielectric Constant 3 Dielectri Describe Schematically Equipotential Surfaces Corresponding Constant Electric Field Z Direction B Fi Van De Graaff Type Generator Spherical Metal Shell 15 106 V Electrode Dielectric Strength Gas Surrou Small Sphere Radius R1 Charge Q1 Enclosed Spherical Shell Radius R2 Charge Q2 Show Q1 Positive Charg Answer Following Top Atmosphere 400 Kv Respect Surface Earth Corresponding Electric Field Decreases