Ans. Pre-Lab xxxxxxxxxxxx Figure xx answer xxxxxxx Questions xxx Figure xxxxx indicated xx the xxxxx traveling xxxxxxx three xxxxxxxxx A x and x Rank xxx index xx refraction xx each xx the xxxxxxxxx from x... ....... Pre-Lab xxxxxxxxxxxx Figure xx answer xxxxxxx Questions xxx Figure xxxxx indicated xx the xxxxx traveling xxxxxxx three xxxxxxxxx A x and x Rank xxx index xx refraction xx each xx the xxxxxxxxx from xxxxxxx to xxxxxx If xxx quantities xxx equal xxxxxx they xxx equal xxxx an xxxxx sign xx terms xx determining xxx ranking xx refractive xxxxxxx observing xxx pattern xx bending xx light xx scenario xxx light xxxxx towards xxx normal xx is xxxxxxxx a xxxxxxxx with x higher xxxxx of xxxxxxxxxx If xx bends xxxx from xxx normal xx is xxxxxxxx a xxxxxxxx with x lower xxxxx so xxxx the xxxxx seems xx be xxxxxx at xxxxxxxx C xxx A xxxxxxx B x C xxxxxx Rank xxx speed xx light xx each xx the xxxxxxxxx from xxxxxxx to xxxxxxx If xxx quantities xxx equal xxxxxx they xxx equal xxxx an xxxxx sign xxxxx of xxxxx is xxxxxxxxx proportional xx the xxxxx of xxxxxxxxxxx CnFastest x A x SlowestWater xxx an xxxxx of xxxxxxxxxx of xxxx is xxx angle xx refraction xx a xxxxx beam xxxxxxx the xxxxxxx of xxx water xx degrees xxxxx the xxxxxxx of xxx water xxxx your xxxx Using xxxxx s xxx n xxx n xxx sin x sin xxx sin xxxx oThe xxxxxxxx angle xxx a xxxxxxx surrounded xx air xx degrees xxxx is xxx index xx refraction xxx diamond xxxx your xxxx Sin x n x n xxxxxx o x n xxx o x diver xx testing xxx a xxx waterproof xxxxxx on x scuba xxxxxx adventure xx the xxxxx is x Firstly xxxxxxxxxxx pressure xx meters xxxxx contextual xxx common x P xxxxxxxxx P xx atmospheric xxxxxxxx p xxx g xx h xx PaTotal xxxxxxxx at x depth xx atmConsidering xxxxxxxx depth xx an xxxxxx due xx refraction xxxx viewing xxxx water xxxx air x to xxx object xxxxxxx closer xx the xxxxxxx now xxxxxxxxx the xxxxxxx for xxxxxxxx depth xxxxxxxx depth xxxx Depthn x m xx the xxxxxx will xxxxxx to xx at xxxxxx above xxx diver xxxxxx than xxx actual xxxxxx In xxxxxxxxxx pressure xx m xxxxx atm xxxxxxxx position xx object xxxxx diver xxx to xxxxxxxxxx from xxxxx to xxx Experiment xxx of xxxxxxxxxxxxxx SheetTable xxxxx and xxxxxx Reflection xxxxxxxxxxxx Angle x Degrees xxxxxxxxx Angle x Degrees xxxxxxxx QuestionsDescribe xxx relationship xxxxxxx the xxxxxxxx and xxxxxxxxx angle xxx angle xx incidence xxxxxx the xxxxx of xxxxxxxxxx for xxx angles x rIs xxxx true xxx all xxxxxxxxx What xxxxxxx when xxxxx is xxxxxxxxx off xx pencil xxxx on x piece xx paper xxx the xxx of xxxxxxxxxx holds xx all xxxxxxxx however xxxxxxx reflection xxxxxx on xxxxx surfaces xxxx pencil xxxx on xxxxx scattering xxx light xx many xxxxxxxxxx Experiment xxxxx s xxxxxxx SheetTable xxxxx and xxxxxxxxxx Cell xxxxxxxxxxxx Angle x Degrees xxxxxxxxx Angle x Degrees xxx i xxxxxxx Sin x Degrees xxxxxxxx QuestionsWhat xx the xxxxxxxx angle xxx a xxxxx beam xxxxxx from xxx to xxxxx Not xxxxxxxxxx since xx critical xxxxx when xxxxxxxx a xxxxxx medium xxxxx total xxxxxxxx reflection xxxx occurs xxxx higher xx lower xxxxxxxxxx index xxxxx are xxx boundaries xxxxx the xxxxx beam xxxxxxx medium xxxxxxxx the xxx boundaries xxx determine xxxxx one xxxxxx the xxxxx to xxxxxxx Air xx water xxxxxxxxxx occurs xxxxx bends xxxxxx normal xxxxx to xxx Refraction xx total xxxxxxxx reflection xxxxxx depending xx angle xxx two xxxxxxx in xxxx experiment xxx water xxx air xxxxx medium xx the xxxxxx for xxx incident xxx Which xxxxxx is xxx medium xxx the xxxxxxxxx ray xxxxxxxx ray xxxxxxxxxxxx ray xxxxxxxx index xx refraction xxx water xx n xxx this xxxxx to xxxxxxxxx the xxxxxxxxxxx critical xxxxx for xxx laser xxxxxxxxxx from xxxxx to xxx Compare xxxx value xx the xxx you xxxxxxxxxxxxxx determined xxxx a xxxxxxx error xxxxxxxxxxx Show xxxx work xxx C x n x Complete xxxxx by xxxxxxxxx the xxxx of xxx incident xxx refracted xxxxx Plot x graph xx sin x versus xxx r xxxxxxxxx your xxxxx on x computer xxxxxxx such xx Microsoft xxxxx Draw xx a xxxx of xxxx fit xx your xxxxx Hint xxx want xxx y-intercept xx be xxxx Estimate xxx slope xx the xxxx and xxxxxxx the xxxxx to xxx index xx refraction xxx water x with x percent xxxxx calculation xxxx your xxxx and xxxxxxx any xxxxxxxxxxxxx between xxx experimental xxxxx of xxxxxxxxxx and xxx actual xxxxx of xxxxxxxxxx From xxxxxxx calculations xxxxxxxxxx we xxxx the xxxxxxxxx values xxx sin x and xxx r xxxxxxxx Angle x Degrees xxxxxxxxx Angle x Degrees xxx i xxxxxxx Sin x Degrees xxxxxxxxxxx graph xx sin x y-axis xx sin x x-axis xxx slope xxxxxx equal xxx index xx refraction xxxxxx nair xxxxxxxx two xxxx separated xxxxxx Point x X xxx r x Sin x Point x X x Considering xxxxx Y x - x In xxxxx of xxxxxxx error xxxxxxxxxxxxxxxxxx error xxxxxxxxxxxxxxxxxxx Actual x In xxxxx of xxxxxxxxxxxxx if xxxxx In xxxxxxxx the xxxxx is xxxxxxx error xxxxxxxxxxxxxxxxxxx Actual x However xxx possible xxxxxxx for xxxxxxxxxxx based xx my xxxxxxxxxxxxx possibly xxx to xxxxx error xx reading xxxxxx imperfect xxxxxxxxx of xxxxx beam xxx the xxxxxxxxxx beam xxxxx causing xxxxxxxxxxx in xxxxx point xx incidence xxxxxxxxxx lastly xxxxxxx surface xxxxxxx in xxxxx and xxxxxxxxxx sin xxxxxx if xxxxxxx too xxxxx Do xxx always xxxxxxx a xxxxxxxxx ray xx light xx you xxxxxxxx the xxxxxxxx angle xxxx happens xx the xxxxxxxxx of xxx reflected xxxxx as xxx increase xxx incident xxxxx and xxxxxxxxxx cross xxx critical xxxxx Based xx the xxxxxxxxxx yes x reflected xxx is xxxxxx observed xx the xxxxxxxx between xxx media xxxxxxxxxx of xxxxxxxx angle xxxxx is xxx to xxxxxxx reflection xxxx occurs xx every xxxx of xxxxx encountering x boundary xx the xxxxxxxx angle xxxxxxxxx the xxxxxxxxx of xxx reflected xxxxx increases xxxxxxx the xxxxx between xxx incident xxx and xxx normal xxxxxxxxx and xxx fraction xx light xxxxxxxxx increases xxx Fresnel xxxxxxxxx When xxx incident xxxxx exceeds xxx critical xxxxx o xxx water-to-air xxxxx internal xxxxxxxxxx occurs xxxxx no xxxxxxxxxx happens xxx light xx reflected xxxx into xxx medium xxx reflected xxxxx becomes xxxxx intense xxx undiminished xxxx principle xxxxxx fiber xxxxxx and xxxxxxxxxx periscopes xxxxx is xxxxxxxx by xxxxx internal xxxxxxxxxx Read More

Ans. Pre-Lab xxxxxxxxxxxxx should xxx always xxxx to xxxxxxx your xxxx when xxx are xx the xxxxxxxxxx Based xx my xxxxxxxxxx in xxx physics xxx it xx important xx wear xxxxxx goggles xx ANSI-approved xxxxx... ....... Pre-Lab xxxxxxxxxxxxx should xxx always xxxx to xxxxxxx your xxxx when xxx are xx the xxxxxxxxxx Based xx my xxxxxxxxxx in xxx physics xxx it xx important xx wear xxxxxx goggles xx ANSI-approved xxxxxxxxxx eyewear xx shield xxxx eyes xxxx potential xxxxxxxx splashes xxxxxx debris xx even xxxxxxxxxx projectiles xx protective xxxxxxx along xxxx apron xx minimal xxxxxxxxxxx while xxxxxxxx projectiles xxxxxx electrical xxxxxxxxxx or xxxx fragments xxxx can xx hazardous xxxx precautions xxxxxx be xxxxx when xxxxxxx with xxxxxxxxxxx Firstly xxxxxxxx to xxxxxx the xxxxxxx is xxx major xxxx to xxxx - xx ensuring xxxx all xxx equipment xx properly xxxxxxxx and xxxx of xxxxxxx wires xx cautious xxxxx handling xxxxxxxxxx circuits xxxx wet xxxxx or xxxxxxxx standing xx a xxx surface xxxxxxx off xxxxx before xxxxxxxxxx or xxxxxxxxx circuits xxxxxxxxx only xxx voltage xxxxx supplies xxx student xxxxxxxxxxx inspect xxx components xxx damage xxxxxx use xxxxxxx aware xxxxxx capacitors xxxx retains xxxxxx even xxxx power xx off xxx avoiding xxxxx circuits x since xxxx can xxxxxxxx wires xxx components xxxxxx a xxxx hazard xxxxx should xxx dispose xx broken xxxxx I xxxxxxxx breaking x beaker xxxxx was xxxxxxxx of xx a xxxxxxxxxx glass xxxxxxxx container xxx regular xxxxx bins x since xxx container xxx made xx hard xxxxxxx some xxxxx and xxxxxxx labeled xx order xx prevent xxxxxx to xxxxxxxxx staff xxx ensures xxxx laboratory xxxxxxxxxx What xxxxxx you xx if xxx spill x chemical xx your xxxx First xxxxxx is xxx to xxxxx and xxxxxxxxxxx flush xxx affected xxxx with xxxxxxx amount xx water xxxxxxxxx the xxxxxxxxx sink xx eyewash xxxxxxx for xx least xxxx then xxxxxxxxx trained xxxxxxxxx or xxxxxxxxxx about xxx situation xxxxxxxxx to xxxx - xxxxxxxx Safety xxxx Sheet xxx the xxxxxxxx to xxxxxxxxxxx further xxxxxx and xxxx remember xxx attempting xx neutralize xxx chemical xxxxxxx instructions xxxxxxxx What xx it x physics xxxxxxxxxx contains xxxxxxx equipment xx use xxxxx you xxx performing xx experiment xxxxxx each xx the xxxxx pictured xx the xxxxxxxxx pages xx your xxx kit xxx place x check xxxx in xxx appropriate xxxxx when xxx find xx Hanging xxxx Set xxxxxxx Spring xxxxx Ramp x Include xxxx drawings xxx five xxxxxxxxxx pieces xx equipment xxxx and xxxxxxx a xxxxxxxxxx for xxxx identifying xxx you xxxxx it xxxxx be xxxx in x physics xxxxxxxxxx For xxxxxxx what xxxxxxx topic xxxxx a xxxx help xxxxxxxxxxx What xxx safety xxxxxxxxxxx will xxxx to xx considered xxxxxxx considering xxxxxxxxx - xxxx is xxxxxxxx to xxxxxxx time xxxxxxxxx in xxxxxxxxxxx involving xxxxxx acceleration xxx velocity x covering xxx topics xx kinematics xxx safety xxxxxxxxxxx include xxxxx dropping xxx stopwatch xxxxxxxx protractor xxxx in xxxxxxxxx angles xx experiments xxxxxxx to xxxxxxxxxx motions xx even xxxxxxxx planes xxxxxxxxxxx on xxx topics xx forces xxx motions xx slopes xxx in xxxxx of xxxxxx precautions xxxxx is x need xx handle xxxxxxxxx to xxxxx bending xx breaking xx Third xxxxxxxxxxx it xxxxxxxx to xxxxxxx the xxxxxxxxxxx changes xx experiments xxxxxxxxx heat xxxxxxxx and xxxxxx covering xxx topics xx thermodynamics xxxx conduction xxxxxxxxxx and xxxxxxxxx this xxxxxxxxx needs xx be xxxxxxx with xxxx because xx is xxxxxxx made xx glass xx the xxxx needs xx avoid xxxxxxx with xxxxxxx temperatures xxxxxx the xxxxx system xxxxxxx mechanical xxxxxxxxx of xxxxx distribution xxx simple xxxxxxx principles xxxxxxxx the xxxxxxxx laws xxx working xxxxxxx motions xxxxxx mechanical xxxxxxx while xxxxxxxx pully xxxxxx there xx a xxxx to xxxxxx the xxxxxxx by xxxxxxxxx it xxxx that xxxx are xxxxxx throughout xxx operations xxxxxx Bunsen xxxxxx tends xx provide xxxxxxxxxx heat xxxxxx involving xxxxxxx expansion xxxxxxxxxx of xxxx and xxxxx changes xxxx melting xxx boiling xxxxxx but xxxxxxxx using xx - xx requires xxxxxxxxxx care xxx the xxxxxxxx of xxx that xxxxxx into xxxxx involving xxxxxx temperature xxxxx heat xxxxxxxxx gloves xxx protection xxx conducting xxx experiment xxxxxx fire xxxxx safety xxxx with xxx technician xxxxxxxxxxx the xxxxxxxxxx could xx safety xxxxxxxx Read More

Ans. Pre-Lab xxxxxxxxxxx a xxx of xxxxx hits xxx slits xxxx pattern xxxxx you xxxxxx to xxx on xxx wall xxxx pattern xxxxx you xxxxxx to xxx if xxxxx behaves xx a xxxx Explain xxxx answers xx the xxxxx ten... ....... Pre-Lab xxxxxxxxxxx a xxx of xxxxx hits xxx slits xxxx pattern xxxxx you xxxxxx to xxx on xxx wall xxxx pattern xxxxx you xxxxxx to xxx if xxxxx behaves xx a xxxx Explain xxxx answers xx the xxxxx tends xx behave xx a xxxxxxxx we xxxxx expect xxx bright xxxxx on xxx wall xxxxxxx with xxx slits xx photons xxxxx travel xxxxxxx each xxxx and xxx the xxxx independent xx the xxxxx behaves xx a xxxx we xxxxx expect xx interference xxxxxxx of xxxxxxxxxxx bright xxx dark xxxxxxx due xx constructive xxx destructive xxxxxxxxxxxxx between xxx coherent xxxxxxxxxx emanating xxxx the xxxxx which xxxxxxxx the xxxx nature xx light xx initially xxxxxxxxxxxx by xxxxxx Young's xxxxxx slit xxxxxxxxxx Predict xxx pattern xx light xxxxxxxxx on x wall xxx light xxxx through x single xxxx on x piece xx aluminum xx an xxxxxxx to x double xxxx Draw xxxx prediction xxx explain xxxx reasoning xxxxxx slit xxxxx a xxxxxxx bright xxxxxxx significantly xxxxx than xxx side xxxxxxx flanked xx symmetrically xxxxxx diminishing xxxxxxxxx fringes xxxx is xxx to xxxxxxxxxxx governed xx the xxxxxxxxx asin x m xxxxx a xx the xxxx widthSecondly xxxxxx slit x a xxxxxx of xxxxxxx spaced xxxxxx and xxxx fringes xxx to xxxxxxxxxxxx of xxxxx from xxxx slits xxxx m xxxxxxxxxxxx A xxxxx with x wavelength xx nm xxxxxx through x double xxxx A xxxxxxx is xxxxxxxx on x wall xxxx is xxxxxx away xxxx the xxxxx The xxxxxxx between xxxxxx fringes xx measured xx be xx What xx the xxxxxxxxxx between xxx slits xxxx your xxxx E- xx m xxxxxxxx over xxxxxxx x xxxxxxx of xxxxxxx distance xxxxxxx centers xxxxxx Spacing x x x m x Ld x L xx - x m x m x m xxxxxxxxxxxx young x double xxxx experimentData xxxxxxxxxx Double xxxx Experimental xxxxxxxxxxxxxx nm xxxxxxxx From xxxx to xxxx m xxxxxx of xxxxxx Spots xxxxxxxx Between xxxxx and xxxx Bright xxxx m xxxxxxxx QuestionsDid xxx patter xx light xxxxxxxxx on xxx wall xxxxx your xxxxxxxxxx from xxxxxxx Question xxx the xxxxxxxx interference xxxxxx pattern xxxxxxx the xxxxxxxxxx of xxxxxx spaced xxxxxx fringes xxxxxxxxxx with xxx wave xxxxxx of xxxxx What xx the xxxxxxxxxxx scientific xxxxxxxxx uncovered xx the xxxxxx of xxxx experiment xxxxxx your xxxxxx to xxxxx s xxxxxx Slit xxxxxxxxxx Young x experiment xxxxxxxxx the xxxx theory xx light xxxxxxxxx that xxx light xxxxxxxxx interference x property xxxxxxxxxxx to xxxxx as xx challenges xxx Newtonian xxxxxxxxxxx theory xxx laid xxxxxxxxxxxx support xxx quantum xxxxxxxxx where xxxx particle xxxxxxx of xxxxxxx is xxxxxxx All xxxxx must xxxxxx through x medium xx light xxx wavelike xxxxxxxxxx what xx the xxxxxx through xxxxx it xxxxxxx Explain xxxx reasoning xxx light xx an xxxxxxxxxxxxxxx wave xxx does xxx require x medium xx it xxxxxxxxxx through xxxxxxxxxxx electric xxx magnetic xxxxxx in x vacuum xxxxxx mechanical xxxxx sound xxxx require x material xxxxxx the xxxxxxxxxx notion xx aether xxx disproven xx the xxxxxxxxx Morley xxxxxxxxxx As xxxx as xxx distance xx the xxxx is xxxx greater xxxx the xxxxxxxxxx of xxx slits xxx spacing xxxxxxx the xxxxxx spots xx uniform xxxxx data xxxx Table xxxxxxxxx the xxxxxxxx between xxx bright xxxxx Show xxxx work x - xxxx close xxxxxxxx were xxx able xx make xxxx slits xxxx calculate x d x y x - xxxxx would xxxxxxxx the xxxxx of xxxxx from xxx to xxxxx affect xxx pattern xxxxxxxxx on xxx wall xxxxxxx your xxxxxx Green xxxxx has x shorter xxxxxxxxxx nm xxxx red xxxxx since xxxxxx spacing x a xxxxxxx wavelength xxxxxx narrower xxxxxxx hence xxx fringes xxxx closer xxxxxxxx The xxxxxxx projected xx the xxxx from xxx light xx a xxx laser xx not xxxxxxxx when xxxxx light xxxx a xxxxx bulb xx sent xxxxxxx the xxxxx Explain xxx white xxxxx doesn x produce x fringe xxxxxxx White xxxxx contains xxxx wavelengths xxxx wavelength xxxxxxxx its xxx interference xxxxxxx with x different xxxxxx spacing xxxxxxx the xxxxxxxx to xxxxxxx and xxxx out xxxxxxxxx in x blurred xx indistinct xxxxxxx maximum x diffraction xxxxxxx is xxxx a xxxxxx slit xxxxxx it xxxxxxxx a xxxxx number xx equally xxxxxxxx slits xxxx would xxx predict xxx differences xxxxx be xx the xxxxxxx projected xx the xxxx A xxxxxxxxxxx grating xxxxxxxx much xxxxxxx and xxxx narrowly xxxxxxx maxima xxx the xxxxxxx separation xxxxxxx maxima xx greater xxxxxxxxx resolution xxxxx the xxxxxxxxx is xxxx increased xxx to xxxxxxxxxxxx interference xxxxxx many xxxxx Experiment xxxxxx slit xxxxxxxxxxxxxxx SheetTable xxxxxx Slit xxxxxxxxxx DataWidth xx Center xxxx cm xxxxx of xxxx for x Single xxxxxxxxxxxx QuestionsDid xxxx prediction xx Pre-Lab xxxxxxxx match xxx single xxxx experimental xxxxxxx Explain xxx differences xxx the xxxxxxx maximum xxx significantly xxxxx than xxxxx in xxx double-slit xxxxx and xxxxxxxxx fringe xxxx dimmer xxxxxxxxxx with xxxxxxx principle xxx the xxxxxxxxxxx condition xxx did x change xx the xxxxx of xxx slit xxxxxx the xxxxxxxxxxx pattern x narrow xxxx produces x wider xxxxxxxxxxx pattern xxxxxxx of xxx inverse xxxxxxxxxxxx between xxxx width xxx angular xxxxxx Sin x a xx the xxxx widthCalculate xxx width xx the xxxx that xxxxxx the xxxxxxxxxxx pattern xxxxx the xxxxxxxx where x is xxx width xx the xxxx Show xxxx work xxxxxxx peak xxxxx cm xxxxxxxxx to xxxxxx m x - xxxxx angle xxx first xxxxxxx tan- xxxx radUsing x sin x sin x - xxx - x mmUse xxx results xx this xxxxxxxxxx to xxxxxxx why xxx can xxxx but xxx see xxxxxxx who xx standing xxxxxxx the xxxx if xxx are xxxxxxxx right xxxxxx the xxxxxx of xxx doorway xxxxx wave xxx longer xxxxxxxxxx m xxxxxxxx them xx diffract xxxxxx obstacles xxxxx light xxx wavelengths xx the xxxxx of xxxxxxxxxx resulting xx negligible xxxxxxxxxxx at xxxxxxxx scale xxxx doors xxxxx you xxx hear xxx not xxx around xxx corners xx you xxxxxx the xxxxx through x door xxxxx you xxxxxxx a xxxxxxxxxxx pattern xxx or xxx not xx a xxxxxxx is xxxx wider xxxx the xxxxxxxxxx of xxxxxxx light xxxxxxx to xxxx small xxxxxxxxxxx angles xxxxx the xxxxx passes xxxxxxx with xxxxxxx diffraction xxx no xxxxxxxxxx fringe xxxxxxx forms Read More

Ans. Pre-Lab xxxxxxxxxxxxxxxx Graph xxx rank xxx change xx magnetic xxxx during xxxxx A x C x and x from xxxxx to xxxxxxxx Use xx equal xxxx to xxxxxxxxx equal xxxxxxxx fluxes xxxxx A xxxxxxxx field xxxx t... ....... Pre-Lab xxxxxxxxxxxxxxxx Graph xxx rank xxx change xx magnetic xxxx during xxxxx A x C x and x from xxxxx to xxxxxxxx Use xx equal xxxx to xxxxxxxxx equal xxxxxxxx fluxes xxxxx A xxxxxxxx field xxxx time xxxxxxxxxxx the xxxxxx in xxxxxxxx flux xxxx time xxxxx faraday x law xxxxxxx the xxxxxx in xxxxxxxx flux xx induced xxx and xxxx B x cos xxx rate xx change xx B xxxxx directly xxxxxxx while xxxxxxx based xx slope x E x D xxx MRI xxxxxxxxxx neglected xx remove x metal xxxxxxxx from x patient xxx bracelet xx cm xx diameter xx the xxxxxxxx field xx oriented xxxx the xxxxxxx s xxxx to xxxx the xxxx of xxx bracelet xxxx be xxxxxxxxxxxxx to xxx magnetic xxxxx During xxx scan xxx magnetic xxxxx increases xxxx T xx T xx seconds xxxx is xxx magnitude xx the xxxxxxx emf xx the xxxxxxxx Show xxxx work xxxxxxxx d xx mRadius x m x T xxxx to x t xxxxx A x x x m xxxxxxxxxxx Faraday x law x Bdt x B x dt x dBdT x - x mV xxx induced xxx is xxxxxxxxxxxxx A xxxx loop xx being xxxxxx out xx a xxxxxxx magnetic xxxxx directed xxxx the xxxx at xxxxxxxx speed x Figure xxxx the xxxxxxxxx of xxx force xx the xxxx due xx the xxxxxxxx field xx the xxxxxxx in xxx loop xx going xx the xxxxxxxxx direction xxxxxx A xxxx loop xxxxx blue xxxxx with x clockwise xxxxxxx black xxxxxx pulled xxx of x uniform xxxxxxxx field xxxx Xs xxxxxxx is xxxxxxxxxxx by xxxxx arrows xxxxxxxxx current xxxx magnetic xxxxx into xxx page xxxxxxx right-hand xxxx induced xxxxx leftward xx the xxxx segment xxxxxxx the xxxxx based xx my xxxxxxxxxxxxx here xx diagram xxxx Velocity x Wire xxxx ----- x clockwise x B xxxx page xxx F xxxxxxx force xx wire xxxxxx shows x conductor xxxxxx in x uniform xxxxxxxx field xxxx that xxxx the xxxxxxxxx moves xx the xxxxxxxx field xxx magnetic xxxxx induces xx electric xxxxx in xxx conductor xx drawing xxxx occurs xxxxxx of xxx conductor xxxxxxx your xxxxxxx Hint xxxxx about xxx magnetic xxxxx on xxx charges xxxxxx the xxxxxxxxx Figure x conductor xxxxx blue xxxxxxxxx moving xxxxxxx a xxxxxxxx field xxxx Xs xxxxxxxxxxx the xxxxx hand xxxx where xxx Thumb xx the xxxxxxxx fingers xxxxx magnetic xxxxx and xxxx being xxxxxxxx force xx positive xxxxxxx In xxxxx of xxxxxxxx field xx set xx due xx charge xxxxxxxxxx charge xxxxxxxxxxx v x charge xxxxxxxxxxx B xxxxx into xxxx Considering xxx diagram xxx magnetic xxxxxxx force x qv x separates xxxxxxx in xxx conductor xxxxxxxx an xxxxxxxx electric xxxxx E xxxxxxx to x motional xxx across xxx conductor xxxxxx Experiment xxxxxxx s xxxxxxx SheetTable xxxxx of xxxxxx vs xxxxxxx when xxxxxx is xxxx from xxxxxxxxx of xxxxxx of xxxxxx qualitative xxxxxxx Current xxxxxxx A xxxx Medium xxxx Table xxxxx of xxxxxx vs xxxxxxx when xxxxxx is xxxxxx CoilPrediction xxxxx of xxxxxx of xxxxxx qualitative xxxxxxx Current xxxxxxx A xxxx Medium xxxx Table xxxxxx of xxxxxx vs xxxxxxx when xxxxxx is xxxx from xxxxxxxxxxxxxx Number xx MagnetsMaximum xxxxxxx Reading x Post-Lab xxxxxxxxxxxxxxxx the xxxxxxxxx you xxxx to xxxxxxxxx your xxxxxxxxxxx in xxxxxx and xxx your xxxxxxxxxxx match xxxx results xxxxxxxxxxx the xxxxxxxx from xxxxx where x greater xxxxx increases xxx rate xx magnetic xxxx change x raising xxxxxxx emf xxxxx table xxxx magnets xxxxxxx B-field xxxxxxxx larger xxxxxxx predictions xxxxxxx matched xxxxxx outcomes xx your xxxxxxx support xxxxxxx s xxx Use xxxx results xx explain xxxx answer xxx the xxxxxxx demonstrate xxxx induced xxxxxxx is xxxxxxxxxxxx to xxx rate xx change xx magnetic xxxxx through xxxxx and xxx magnitude xx magnetic xxxxx through xxxxxx of xxxxxxx -N x BdtWhat xx you xxxxxxx will xxxxxx to xxx maximum xxxxxxx if xxx used xxx same xxxxxx moving xx the xxxx speed xxx increased xxx radius xx the xxxx Larger xxxx A xxxxxx flux x A xxxxxxx change xx flux xxx same x and x increased xxxxxxx current xxxx do xxx predict xxxx happen xx you xxxx the xxxx magnet xxxxxx at xxx same xxxxx but xxxxxxx a xxxx with xxxx loops xxxxxxx s xxx includes xxxx N x whereby xxxxx turn xxxxxx induced xxx smaller xxxxxxx Estimate xxx change xx flux xxx one xx your xxxxxxx in xxxxx Note xxxxxxxxxx of x wire xx equal xx L x and xxx resistivity xx copper xx x x m xxxxxxxx thatImax x R xx E- xx V x s xxx N xxxxx N x tN x - xxxxxxxxxxxx Building x Simple xxxxxxxx MotorPost-Lab xxxxxxxxxxxxx orientation xx the xxxx vertical xx horizontal xxxxxx current xx flow xxxxxxx the xxxxxxxx What xxxxxxx as xxx rotate xxx coil xxxx this xxxxxxxx Explain xxxx answer xxxxxxxx orientation xxxxxx with xxxxxxxxxx contact xxxxxxxx current xx flow xxxxxx generated xxxxx with xxxxxxxx disrupts xxxxxxx momentarily xxxxx current xxxxxxxx continuous xxxxxxxx without xxxxxxxx Explain xxxx would xxxxxx if xxxx tails xx the xxxx coil xxx all xx the xxxxxxxxxx scraped xxx Constant xxxxxxx in xxxx positions xx torque xxxxxxxx motor xxxxxx or xxxxx to xxxxxxxxxxx the xxxxx design xxx list xxxxx variables xx the xxxxxxxxxx that xx changed xxxx increase xx decrease xxx speed xx which xxx coil xxxxxxx Explain xxxx reasoning xxxx turns xxx more xxxxxxxxxx the xxxxxxxx torque xxx too xxxx increases xxxxxxxxxx while xx terms xx magnetic xxxxx strength xxxxxxxx B xxxxxxxxx torque x NIBAsin xxxxxx brush xxxxxxx reduces xxxxxxxxx losses xxxxxxxx motion xxxxx the xxxxxxxx of xxx battery xxx the xxxx of xxx coil xxxxx are xx ideal xxxxxx of xxxx turns xxxx make x motor xxxx at xxxx speeds xxxxxxx being xxxxxxxx Critique x motor xxxxxx constructed xxxx a xxxx of xxxxx of xxxx instead xx coils xxx your xxxxxxx to xxxxxxx your xxxxxxxx Considering xxxx there xx higher xxxxxx due xx more xxxxx while xxxx being xxxx resistance xxx to xxxx Joule xxxxxxx slower xxxxxxx instability xxx to xxxx imbalance xxxxxxxxx in xxxxxx efficient xxx unstable xxx if xxx power xxxxxx is xxxxxxx a xxxxxxx can xx achieved Read More

Ans. Pre-Lab xxxxxxxxxxx moving xxxxxxx create x magnetic xxxxx explain xxx a xxxxxxxxx magnet xxx a xxxxxxxx field x permanent xxxxxx produces x magnetic xxxxx due xx the xxxxxxx mechanical xxxxxxxx of xx... ....... Pre-Lab xxxxxxxxxxx moving xxxxxxx create x magnetic xxxxx explain xxx a xxxxxxxxx magnet xxx a xxxxxxxx field x permanent xxxxxx produces x magnetic xxxxx due xx the xxxxxxx mechanical xxxxxxxx of xxxxxxxx spin xxx the xxxxxxxxx of xxxxxxxx domains xxxxx ferromagnetic xxxxxxxxx unpaired xxxxxxxx spins xx atoms xxxxx within xxxxxxx called xxxxxxx However xxxx these xxxxxxx align xxxxxxxxxxxxxxx the xxx result xx a xxxxxxxxxx magnetic xxxxxx field xxxx in xxx absence xx macroscopic xxxxxxx If x current xxxxxxxx wire xx coming xxx of xxx page xx you xxxxxx what xxxxxxxxx is xxx magnetic xxxxx going xxxxxx A xxxxxxxxxxxxx of x current xxxxxxxx wire xxxxxx out xx the xxxx is xxxxxxxx by xxx circle xxxx a xxx Utilizing xxx right-hand xxxx pointing xxx right-hand xxxxx in xxx direction xx the xxxxxxx out xx the xxxx and xxxxxx fingers xxxx the xxxxxxxx field's xxxxxxxxx implying xxxx the xxxxxxxx field xxxxxxxxxx counterclockwise xxxxxx the xxxx Use xxx equation xxx magnetic xxxxx on x moving xxxxxx to xxxxxx the xxxxxxxx for xxxxxxxx force xx a xxxxxxx carrying xxxx Show xxxx work xxx Lorentz xxxxx on x moving xxxxxx is x qv x in x conductor xxxxxxx charges xxx moving xxxxxxxxxxx the xxxx of xxxxxx L xxxxxxxx current x if x is xxx number xx charges xxxxxxx per xxxx volumes xxxx with xxxxxx q xxx they xxxx with xxxxx velocity xx then x nqAvd xxxxx A xx the xxxxxxxxxxxxxxx area xx the xxxx While xxx total xxxxx on xxx charges xx volume x ALF xxxxxx BSubstituting x nqAvd x IL xxxxxxxxxxx magnet xxxxxxxxxxxx SheetTable xxxxxx Magnet xxxxxxxxxxx BehaviorMagnet xxxxxxxxxxxxxxxxxx to x Repelled xxxx poles xxxxxx each xxxxx e x north xx north xxxxxxx a xxxxxxxxx magnetic xxxxx A xx B xxxxxxxxx opposite xxxxx facing xxxx other x g xxxxx to xxxxx generate xx attractive xxxxx A xx B xxxxxxxx like xxxxx again x g xxxxx to xxxxx creating xxxxxxxxx A xx B xxxxxxxxx opposite xxxxx e x south xx north xxxxx attraction xxxxxx Table xxxxxxx Magnet xxxxxxxxxxx BehaviorInteractionObservationsA xx Metal xxxxxxxxxxxxxxxx metal xxxxxx iron xxxxxxx magnetized xxxxxxxx attraction xxxxxxxxxx of xxxxxxxx A xx StackRepelled xxxx poles xxxx each xxxxx resulting xx repulsion x to xxxxx SurfaceAttracted xxxxx due xx induced xxxxxxxxxxxxx in xxxxx surface x to xxxxxxxxxxxxxx opposite xxxxx cause xxxxxxxxxx Post-Lab xxxxxxxxxxxx stack xx magnets xxxxx as xxx large xxx magnet xxxx one xxxxxx was xxxxxxx from xxx stack xxx the xxxxxxxx poles xxxxxx Use xxxx results xx support xxxx answer xx every xxxxxxxxxx magnet xxxxxxx its xxxxx and xxxxx pole xxxxx removing xxx magnet xxxx a xxxxx does xxx alter xxx intrinsic xxxxxxxx dipole xxxxxx because xx is x property xx the xxxxxxxxxx domain xxxxxxxxx Were xxxx sides xx the xxxxxx magnet xxxxxxxxx to xxx metal xxxxxxx Use xxxx results xx support xxxx answer xxxxxx yes xxxxxxxxxxx a xxxxxxxxxxxxx surface xxxx is xxxx becoming xxxxxxxxxx in xxx presence xx a xxxxxxxx field xxxxxxx the xxxxx interacts xxxx the xxxxxxx regardless xx the xxxx orientation xxxxxxx to xxxxxxxxxx on xxxx sides xxx to xxxxxxx magnetization xxxxxxx why xxx side xx the xxxxxx magnet xxxxxxxxx the xxxxx surface xxx repelled xxx stack xx magnets xxx side xx the xxxxxx being xxx north xxxx repels xxx same xxxx of xxx stacked xxxxxx which xxxxx north xxxxxxxxxxxxx like xxxx repulsion xxxxxxx the xxxx pole xxx still xxxxxxx the xxxxx due xx inducted xxxxxxxx magnetic xxxxx in xxx metallic xxxxxxx What xxxxxxxxxxx of xxx magnets xxxxx the xxxxxxxxx repulsion xx attraction xxx do xxx think xxxx is xxx case xxxx must xx true xx the xxxxxxxx field xx those xxxxxxxxx compared xx other xxxxxxxxx around xxx magnet xxx strongest xxxxxxxxxxx occurs xxxxxxxx the xxxxxxxx poles xxx directly xxxxxxx that xx attraction xx like xxxxx are xxxxxxx repulsion xx these xxxxxxxxx the xxxxxxxx field xx most xxxxxxxxxxxx and xxx field xxxxxxxx is xxxxxxx resulting xx a xxxxxxx force x B xx you xxx a xxx magnet xx half xxx the xxx halves xxxxx magnets xxxxxxx your xxxxxxxxx Yes xxxx half xxxx develop xxx own xxxxx south xxxx due xx realignment xx magnetic xxxxxxx where xxxxxx magnetic xxxxxxxx cannot xx isolated xxxxxxx mechanical xxxxxxxx of x magnet xxx does x magnet xxxxxxx something xxxx is xxxxxxxxxx non-magnetic xxx magnetic xxxxx induces x magnetic xxxxxx in xxx material xxxxxxx the xxxxxxxxx of xxxxxxxx orbits xx spins xxxxxx the xxxxxxxx lacks xxxxxxxxx magnetization xxx induced xxxxxx interacts xxxx the xxxxxxxx magnetic xxxxx gradient xxxxxxxxx in xxxxxxxxxx Experiment xxxxxxxx field xxxxxxxxxxxxx QuestionsDescribe xxx direction xx the xxxxxxx needle xx you xxxxx it xxxxxx the xxx magnet xxx did xxx needle xxxxx behave xx opposite xxxx of xxx magnet xxx did xxx distance xx the xxxxxxx to xxxxxx affect xxx compass xxxxxx s xxxxxxxx The xxxxxx in xxx compass xxxxxxx tangentially xx the xxxxx magnetic xxxxx wherein xxxx the xxxxx pole xxx needle x northern xxx pointed xxxx while xxxx the xxxxxxxx pole xx points xxxxxx As xxx distance xxxxxxxxx the xxxxx strength xxxxxxxxx and xxx needle x deflection xxxxxxx Sketch xxxx predictions xx the xxxxxxxx field xxxxx N xxxxx lines xxxxxx from xxxxx to xxxxx SSketch xxxx observations xx the xxxxxxxx field xxxxxxx by xxx iron xxxxxxx N x Describe xxx the xxxxxx arrangement xx the xxxx filings xxxxxxxx field xxxxx compare xx your xxxxxxxxx magnetic xxxxx lines xxx actual xxxxx lines xxxxxxxx through xxxx filings xxxxxxx match xxxxxxxxxxx predictions xxxxxxxx that xxxxxxxxx loops xxxx north xx south xxxxxxxxxxxx near xxx poles xxxxx minor xxxxxxxxxxxxx arise xxxx imperfections xx magnet xxxxx or xxxxxx distribution xxx the xxxxxxxxxxx topology xxxxxxx consistent Read More

Ans. Pre-Lab xxxxxxxxxxxxxxxxxx to xxx s xxx if xxx have x simple xxxxxxx Figure xxxx happens xx the xxxxxxx and xxxxxxx of xxx resistor xx the xxxxxxxxxx increases xxxxxx A xxxxxx circuit x VRIf x resisto... ....... Pre-Lab xxxxxxxxxxxxxxxxxx to xxx s xxx if xxx have x simple xxxxxxx Figure xxxx happens xx the xxxxxxx and xxxxxxx of xxx resistor xx the xxxxxxxxxx increases xxxxxx A xxxxxx circuit x VRIf x resistor xx attached xx a x battery xxx much xxxxxxx flows xxxxxxx the xxxxxxxx I xx AIf x wire x length xx cut xx half xxxx happens xx the xxxx s xxxxxxxxxx The xxxxxxxxxx is xxxx half xxxxxxx R xxx a xxxx s xxxx is xxxxxxx by xxxx what xxxxxxx to xxx wire x resistance xxx resistance xxxxx to xxxxxx because x AIf xxx diameter xxx length xx a xxxx are xxxxx in xxxx what xxxxxxx to xxx resistivity xx both xxxxxxxx and xxxxxx are xxxxxx resistivity xxxxx remains xxxxxxxxx it's x material xxxxxxxx independent xx geometry xxxxxxxxxx ohm x lawData xxxxxxxxxx Voltage xxxxxxx of xxxxxxxxx AA xxxxxxx CombinationsBattery xxxxxxxxxxxxxxxxxx V xxx and xxx Table xxxxxxxx DataResistance xxxxx V x Percent xxxxxxxxxx Post-Lab xxxxxxxxxxxxx a xxxxx of xxxxx Construct xxxx plot xx a xxxxxxxx program xxxx as xxxxxxxxx Excel xxxx is xxx relationship xxxxxxx voltage xxx current xxx data xxxx your xxxxx to xxxxxxx your xxxxxx The xxxxxxx is xxxxxxxx proportional xx the xxxxxxx doubling xxxxxxx doubles xxxxxxx for x constant xxxxxxxxxx while xxxxxx behavior xxxxxxx Ohm x Law xxxxxxxx the xxxxx of xxx linear xxxx and xxxxxx it xx Table xxxx the xxxxx the xxxxx V x How xxxx the xxxxx of xxx slope xxxxxxx to xxx resistance xxx measured xxxxxxxxx the xxxxxxx difference xxxxx closely xxxxxxx the xxxxxx resistance xxxx off xxx the xxxxxxx of xxxx experiment xx verify xxx s xxx Yes xxx linear xxxxxxxx and xxxxx percent xxxxx confirm xxx s xxx How xxxx adding xxxx batteries xxxxxx the xxxxx dissipated xxxxxxx the xxxxxxxx Support xxxx answer xxxxxxxxxxxxxx and xxxxxx your xxxxxx in xxxxxxxx form x I x VR x V xxxxxxxxxxx Resistance xx play-doh xxxx SheetTable xxxxxxxx Length xxxxxxx DataBattery xxxxxxx V xxxxxxxx Radius x Table xxxxxx and xxxxxxxxxx of xxxxxxx DataLength x Current x Resistance xxxxx Cylinder xxxx Circuit xxxxxxxxxxx Voltage x Cylinder xxxxxx m xxxxx Resistance xxx Area xxxxxxx DataDiameter x Area x Current x Resistance xx e- xx e- xx Post-Lab xxxxxxxxxxxxxxxxxx the xxxx for xxxx diameter xxxxxx Record xxxx values xx Table xxxx above xx Table xxxxx professorFind xxx resistance xx each xxxx of xxx Play-Doh xxxxx Ohm x Law xxx finish xxxxxxxxxx Tables xxx Done xxxxx in xxxxx above xxxxxxxxxxxxx a xxxx of xxxxxxxxxx R xxxxxx Length x and xxxxxxxxxx versus xxxx A xxxxxxxxx your xxxx on x computer xxxxxxx such xx Microsoft xxxxx What xx the xxxxxxxxxxxx between xxxxxxxxxx R xxx length x Since xxxxxxxx the xxxxxx doubles xxx resistance xxxx is xxx relationship xxxxxxx resistance x and xxxx A xxxxx R x the xxxxxx cross-sectional xxxx lower xxxxxxxxxxxxxxxxxxx the xxxxxxxxxxx of xxx Play-Doh xxxx the xxxxx of xxx graph x LA x LA xxxx Table x mDoes xxx resistivity xx Play-Doh xxxxxx when xxx length xx area xx changes xxxxxxx your xxxxxxxxx No xxxxxxxxxxx is x material xxxxxxxx so xxxxx differences xx calculated xxxxxx come xxxx experimental xxxxxxxxx Hint x percent xxxxxxxxxx calculation xxxx be xxxxxxx Calculate xxx current xxxxxxx J xxx all xxxxxxxx radii xx Table xxxx trend xx you xxxxxxx J xx - xx As xxxx increases xxxxxxx density xxxxxxxxx current xxxxxxx out xxxx Read More

Ans. Pre-Lab xxxxxxxxxxxx identical xxxxx are xxxxxxx to x and x respectively xxxx a xxxx body xxxxxxx for xxx electrostatic xxxxx on xxxx balls xxxx they xxx a xxxxxxxx of x away xxxx each xxxxx Remember... ....... Pre-Lab xxxxxxxxxxxx identical xxxxx are xxxxxxx to x and x respectively xxxx a xxxx body xxxxxxx for xxx electrostatic xxxxx on xxxx balls xxxx they xxx a xxxxxxxx of x away xxxx each xxxxx Remember xxxxxxx have xxxx size xxxxxxxx by xxx length xx the xxxxx and xxxxxxxxx depicted xx the xxxxxxxxx the xxxxx points xxxxxxx Electrostatic xxxxx on xxx Charged xxxxx q xxx q x -------- xx ---------- x Depicting xxx two xxxxxxx being xxxxx apart xxxxx FE xx - xx arrows xxx equal xx length xxx point xx opposite xxxxxxxxxx The xxxxx is xxxxxxxxx since xxxx charges xxx positive xxxxxxx the xxxx of xxx electrostatic xxxxx and xxxxxxxxxxxxx force xxxxxxx two xxxxxxxxx when xxxx are x distance x apart xxx mass xx an xxxxxxxx is x - xx and xxx charge xx an xxxxxxxx is x - x Show xxx work xxxx Find xxx ratio xx FE xx FG xx keq x electrostatic xxxxx FG xx r xxxxxxxxxxxxx forcewhile xxxxxxxxxxx the xxxxx FEFG xxx Gm x - x Electrostatic xxxxx between xxxxxxxx is xxxx stroger xxxx gravitational xxxxx Pith xxxxx are xxxxx lightweight xxxxxxx that xxx pick xx an xxxxxxxx charge xxxxxxx an xxxxxxxxxx is xxxxxxxxx and xxxxxxx show xxxx Ball xxxxxxxx Ball x third xxxx Ball xx negative xxx repels xxxx What xxx be xxxxxxxxx about xxxx If xxxxxxxxxxxx based xx the xxxxxxxxx observations xxxx additional xxxxxxxxxxxx would xx necessary xx order xx draw x conclusion xxxx the xxxx is xxxxxxxxx to xxxx basing xx on xxxxxxxx charges xx one xx neutral xxxxx ball xx negative xxxxxxxxx Ball xx assuming xxxx the xxxx is xxxxxxxx therefore xxxx being xxxxxxxx If xx electroscope xx negatively xxxxxxx what xxxx happed xx the xxxxxx if xxxxxxx negatively xxxxxxx rod xxxx brought xxxxx to xxx electroscope xxxx will xxxxxx if xxx leaves xx a xxxxxxxxxx charged xxx were xxxxxxx close xx the xxxxxxxxxxxx How xxxxx this xx different xx the xxxxxxxxxxxx was xxx charged xx all xxxxxxxxxx charged xxxxxxxxxxxx negative xxx kinda xxxxxx diverge xxxxxxx due xx more xxxxxxxx charge xxxxxxxxx while xx negatively xxxxxxx electroscope xxxxxxxx rod xxxxxxx converge xx opposite xxxxxx attracts xxx neutralizes xxxxxx electrons xxxxxx uncharged xxxxxxxxxxxx negative xxxxxxxx rod xxxxxxx separate xxxxxxxx due xx induced xxxxxx redistribution xxxxxxxxxx exploring xxxxxx with xxxxxx tapeData xxxxxxxxxx Electric xxxxxx ObservationsProcedureInteracting xxxxxxxxxxxxxxxxxxxxxx Two xxxxxx on xxxxx No xxxxxxxxxxx both xxx neutral xxxx T x Attract xxxx other x B xxxxxxx each xxxxx T x Repel xxxx other x B xxxxx each xxxxx T x Repel xxxx other x B xxxxx each xxxxx T xxx HairAttracts xxx hair x Arm xxxxxxxxxxxx arm xxxx Post-Lab xxxxxxxxxxxxxxxxx the xxxxxxxxxxx between xxx top xxx bottom xxxxxx as xxxx relate xx electric xxxxxx Did xxx behavior xx the xxxxxx change xxxx the xxxx was xxxx different xxxx Use xxxx results xx support xxxx answer xxx and xxxxxx strips xxxxxxx opposite xxxxxxx resulting xx consistent xxxxxx sets xxxxxxxx repeatability xxxxxxxx the xxxxxxxxxxx between xxx top xxx two xxxxxx pieces xx tape xx they xxxxxx to xxxxxxxx charge xx this xxxxxxxxxx with xxx existence xx only xxx types xx charge xxx your xxxxxxx to xxxxxxx your xxxxxx Both xxxxx each xxxxx carrying xxx same xxxxxx while xxxxxxxxxx existence xx only xxx charge xxxxx positive xxx negative xxxx do xxx observe xxxxx the xxxxx of xxxxxxxxxx or xxxxxxxxx when xxx pieces xx tape xxx closer xxxxxxxx and xxxxxxx apart xxxx this xxxxxx happen xxxxxxxxx or xxxxxxx Attraction xxxxxxxxx is xxxxxxxx at xxxxx distances xxx weakens xxxxxxx with xxxxxxxxx separation xxxxx change xx not xxxxxx following xxxxxxxxxxxxxx law x r xxx the xxx tape xxxxxxx your xxx hair xxx the xxxxxx tape xxxxxxx your xxx hair xxxxxxx arm xxxx is xxxxxxx it xxx equal xxxxxx positive xxx negative xxxxxxx Use xxxx information xx explain xxxx results xxx hair xx neutral xxx polarizable xxxxxxx both x and x can xxxxxx opposite xxxxxxx charge xxxxxxx to xxxxxxxxxx Which xxxxxx of xxxx are xxxxxxxxxx charged xxxxx pieces xx tape xxx negatively xxxxxxx Explain xxxx reasoning x T xxxxx same xxxxxx while x repels x but xxxxxxxx B x and x opposite xxxxxxx wherein xxx tape xx positive xxx bottom xxxx being xxxxxxxx Use xxxx data xx create x rule xxxxxxxxxx how xxxx charges xxxxxxxx charges xxx neutral xxxxxx interact xxxx charges xxxxx opposite xxxxxx attracts xxxxxxx objects xxxxxxx both xxxxxxx weakly xxxxxxx polarization xxxxxxxxxx charging xx contact xxx inductionPost-Lab xxxxxxxxxxxxxxxx why xxx pith xxxxx were xxxxxxxxx to xxx charged xxxxxxx strip xxxxxxx strip xxx excessive xxxxxx inducing xxxxxxxx charges xx neutral xxxx balls xxxxxxx polarization xxxxxxxxxx State xxx observations xxxx show xxx right xxxx ball xxx charged xxxxx it xxxx into xxxxxxx with xxx plastic xxx After xxxxxxx with xxx plastic xx is xxxxxxxx by xxx rod xxxxx attracted xxxxxxxx by xxx charged xxxxxxx implying xxxx the xxxx has xxxxxxxx same xxxxxx as xxx rod xxxx a xxxxxxx to xxxx how xxxx charged xxx right xxxx ball xxxxxxxx by xxxxxxx Step xxxxxxx Rod x --- xxxxxxx Pith xxxx Contact xxxxxx electrons xxxxxxxxxxxxx contact xxxxxxx Rod x Pith xxxx - xxxxxxxxx in xxxxxx both xxxxxxxx charge xxxxx each xxxxx What xxx you xxxxxxx as xxx performed xxxx Use xxxx results xx explain xxxx happened xxxxxxxxx Step xxxxxxx Rod x ----- xxxxxxx Pith xxxx Effect xxxxx electrons xx the xxxx ball xxx repelled xx the xxx side xxxxx the xxxx side xxxxxxx positive xxxx is xxxxxxxxx without xxxxxxx Pith xxxx is xxxxxxxxx without xxxxxxx depicting xxxxxxx polarization xxxxxxx negative xxxx of xxxx repelled xxxxxxxx side xxxxxxxxx net xxxxx toward xxx What xxx you xxxxxxx as xxx performed xxxx Use xxxx results xx explain xxxx happened xxxx touched xxx grounded xxxxxx while xxxx negative xxx while xxxxxxxxx leave xxxx ball xxxxxxx positively xxxxxxx and xxxxx the xxx is xxxxxxx ball xxxxxxx positive xxxx is xxx charge xx each xxxx ball xx they xxx attracted xx each xxxxx Explain xxxx reasoning xx two xxxxx attract xxxx other xxxx likely xxxx opposite xxxxxxx or xxx is xxxxxxx Read More

Ans. Pre-Lab xxxxxxxxxxxx are xxxxxxxx potential xxx electric xxxxx similar xxx are xxxx different xxxxxxxxxxxx Both xxx related xx electric xxxxxx and xxxxxxxxx from xxxxxxxx charges xxxx describe xxx spa... ....... Pre-Lab xxxxxxxxxxxx are xxxxxxxx potential xxx electric xxxxx similar xxx are xxxx different xxxxxxxxxxxx Both xxx related xx electric xxxxxx and xxxxxxxxx from xxxxxxxx charges xxxx describe xxx space xx influenced xx charges xxxxxxxxxxx Electric xxxxxxxxx V xx a xxxxxx quantity xxxxxxxxxx the xxxxxxxxx energy xxx unit xxxxxx while xxx electric xxxxx E xx a xxxxxx quantity xxxxxxxxxxxx the xxxxx per xxxx charge x VDraw xxx equipotential xxxxx for x single xxxxxxxx charge xxxxx -- xxxxxxxx equipotential xxxx -----If xxx were xx walk xx an xxxxxxxxxxxxx line xxx would xxxx electric xxxxxxxxx change xxxx time x believe xx will xxx change xxxxx the xxxxxxxx potential xxxx tend xx remain xxxxxxxx along xx equipotential xxxx What xxxx it xxxx when xxxxxxxxxxxxx lines xxx closer xxxxxxxx What xxxx it xxxx when xxxx are xxxxxxx apart xxxxxx together x stronger xxxxxxxx field xxxxxxx apart x weaker xxxxxxxx field xxxx direction xx electric xxxxxx travel xxxx positive xx negative xxxxxxxxxx can xxx tell xxxx an xxxxxxxx field xxx whether xx electric xxxxx is xxxxxx or xxxx The xxxxxxx of xxxxx lines xxxxxxx more xxxxx per xxxx area xxxxxxxx fieldWhat xxxxx the xxxxxxxx field xxxxx look xxxx if xxx electric xxxxx was xxxxxxxx They xxx parallel xxx evenly xxxxxx linesCan xxxxx be x point xx space xxxxx there xx an xxxxxxxx potential xxx not xxxxxxxx field xxx there xx a xxxxx in xxxxx where xxxxx is xx electric xxxxx but xx electric xxxxxxxxx Explain xxx answer xxxxxxx at xxx center xx a xxxxxxx sphere xx charge xxxxxxxxx exists xxx field xx zero xxxxxxxx electric xxxxx implies x gradient xx potential xx potential xxxx existUse xxxxxx to xxxxxx the xxxxxxxxx questions xxxxxx Charged xxxxxxxxx P xxxx and x right xxx charges x and x negative xx positive xxx do xxx know x has xxxxx lines xxxxx outward xx it's xxxxxxxx while x has xxxxx lines xxxxx inward xx it's xxxxxxxx Which xxxxxxxx has xxx highest xxxxxxxxx of xxxxxx How xx you xxxx The xxxxxxxx with xxxxxx field xxxxx has x greater xxxxxxxxx of xxxxxx P xxxxxxxx field xxxxx point xxxxxxx Q xxxxxxxx field xxxxx point xxxxxx Given xxx two xxxxx maps xxxxx if xxx left xxxxxx blue xxxxxxxxx or xxxxxx is xxxxxxxx and xxx right xxxxxx is xxxxxxxx predict xxx electric xxxxx lines xx drawing xxxx over xxx field xxxx The xxxxxxxx with xxxxxx field xxxxx has xxx higher xxxxxxxxx of xxxxxx Field xxxxx start xx the xxxxxxxx charge xxx end xx the xxxxxxxx charge xxxxxxx curved xxxxx that xxxxx cross x -- xxx --- xx ------ xx ------ xxxxxxxxxx Mapping xxxxxxxx potentials- x a xxxxxxxx Questionsa x b x b x Use xxx data xxxxxxxxx to xxxx your xxxxxxxxxxxxx lines xx Figures x and x above xxxxx what xxxxxxxxx each xxxxxxxxxxxxx line xxxxxxxxxx Your xxxxxxxxxx may xxxxxxx you xx submit x photograph xx scanned xxxx of xxxx drawings xxx electric xxxxx lines xx the xxxxxx field xxxx Don x forget xxxx electric xxxxxx are xxxxxxx and xxxx to xxxx a xxxxxxxxx Your xxxxxxxxxx may xxxxxxx you xx submit x photograph xx scanned xxxx of xxxx drawings xxxx Use x different xxxxxxx writing xxxxxxx to xxxx make xxx distinction xxxxxxx the xxxxxxxxxxxxx lines xxx the xxxxxxxx field xxxxx Did xxxx predictions xxxx Pre-Lab xxxxxxxx match xxxx your xxxx analysis xxx your xxxxxxx to xxxxxxx your xxxxxx Yes xxx predictions xxxxxxx since xxx electric xxxxx lines xxx originate xxxx the xxxxxxxx charge xxx terminate xx the xxxxxxxx charge xxxxx the xxxxxxxxxxxxx lines xxx perpendicular xx the xxxxxxxx field xxxxxxxxxx the xxxxxxxxxxx expectations xxxxxxxxxx DESIGN xxxx OWN xxxxxxxxxxxxxxxx Blank xxxxxxxx mapping xxxxx Goal xx my xxxxxxxxxx is xx investigate xxx a xxxxx neutral xxxxxxxxx placed xxxx a xxxxxx affects xxxxxxxxxxxxx lines xxxxxxxxxx will xx conducted xxxx conductive xxxxx voltage xxxxxx probes xxxxx neutral xxxxxxxxx metal xxxxx Procedure xxxxxxx up x dipole xxxx two xxxxxxx then xx inserting x neutral xxxxxxxxx between xx near xxxx By xxxxx probes xx measure xxxxxxxxx at xxxxxxx points xxx map xxxxxxxxxxxxx lines xxx then xxxxxxxxx the xxxxx map xxxx and xxxxxxx the xxxxxxxxx Expected xxxxxxx subjected xx change xxx presence xx the xxxxxxx conductor xxxx distort xxxx the xxxxxxxx field xxx equipotential xxxxx indicating xxx influence xx induced xxxxxxx Source xxxxx created xxxxx Adobe xxxxxxxxxxx Read More

Ans. Lab x OpticsMaterials xxxxxxxxxxxxxx to xxxxxxxx and xxxxxxxxxx internet xxxx installed xx the xxxxxxxx a xxxxxxx with xxxxx built-in xxxxxx Chrome xx best xxxx Spent xxxxxxxxxxxxx hours xxxx not xxxx... ....... Lab x OpticsMaterials xxxxxxxxxxxxxx to xxxxxxxx and xxxxxxxxxx internet xxxx installed xx the xxxxxxxx a xxxxxxx with xxxxx built-in xxxxxx Chrome xx best xxxx Spent xxxxxxxxxxxxx hours xxxx not xxxx to xx done xx one xxxxxxxxxxxxxxx ObjectivesDefine xxx a xxxxx wave xxxxxxxxx with x physical xxxxxx and xxxxxxxxx laws xxxxx govern xxxx interaction xxxxxxx LabTo xxxxx this xxxx s xxx proceed xx the xxxxxxxxx Bending xxxxx SimulationOnce xxx have xxx browser xxxx you xxxx see xxxxxxxxx like xxx screenshot xxxxx Figure xxx screenshot xxxxx a xxxxx which xx turned xx shining xxxxx from xxx to xxxxx If xxx drag xxx protractor xx that xxx central xxxxx is xxxx the xxxxx light xxxx it xxxx the xxxxx then xxx can xxxxxxx the xxxxxx between xxx laser xxxx and xxx normal xxxxxx line xx both xxxxx of xxx water xxxxxx go xxxxx and xxxxxxx the xxxxx between xxx incoming xxxxx and xxx dashed xxxx going xx Also xxxxxx measure xxx angle xxxxxxx the xxxxx in xxx water xxx the xxxxxx line xxxxx down xxxxx the xxxxxxx below xxx comment xx whether xxx angles xxxxxx be xxx same xxxxxxxxx in xxxx way xxxxxx Incident xxxxx air xxxxxxxxx angle xxxxx I xxxxxxx angles xxxxx to xx different xxxxxxx light xxxxx down xxxx entering x denser xxxxxx like xxxxx causing xx to xxxx toward xxx normal xxxxx on xx understanding xx is xx the xxxxx of xxxxx s xxx stating xxxx whenever xxxxx passes xxxx a xxxxxx with x lower xxxxx of xxxxxxxxxx to xxx with x higher xxxxx the xxxxx of xxxxxxxxxx is xxxx than xxx angle xx incidence xxx may xxxx already xxxx in xxx textbook xxxx Snell x Law xxxxxx that xxxxx entering xxxx a xxxxxxxxx substance xx some xxxxx will xxxxxxx by xxxx angle xxxxx is xxxxx by xxxxx s xxx n xxx n xxx eq xxxxx that xxxxx s xxx is xxxxxxx for xxx default xxxxxxxxx in xxx simulator xxxxxxx a xxxxxx to xxxxx this xxxxx it xxx below xxx then xxxxxxx to xxxx the xxxxxx Write xxx results xx your xxxx below xx well xxxxxx Method xxxxxxx the xxxxx of xxxxxxxxx in xxx Measure xxx angle xx refraction xx water xxx the xxxxx refractive xxxxxxx Air x Water x Apply xxxxx s xxx n xxx n xxx LHS xxx RHS xxx since xxxx the xxxxxx are xxxx close xxxxxxxxx Snell x Law xxxxxx measurement xxxxxxxxxxx Hopefully xxx found xxxx Snell x Law xxxx apply xx the xxxxxxxxx depicted xx the xxxxxxxxx Now xxx s xxx Snell x Law xx a xxxx practical xxx to xxxxxx out xxxx an xxxxxxx substance xx made xx On xxx right xxxx of xxx screen xxx are xxxx to xxxxxx the xxxxx material xx a xxxxxxxxx substance xxxxxxx A xxxxxx do xx and xxxx develop x method xx test xxx index xx refraction xx the xxxxxxxxx Mystery x and xxxxx down xxxx procedure xxxxx You xxxx take xx least xxxx of xxxx with xxx protractor xx your xxxxxx Answer xxxxxxx the xxxxx medium xx Mystery x using x protractor xx measure xxxxxx of xxxxxxxxx and xxxxxxxxxx for xx least xxxxxxxxx incident xxxxxx then xxxxx Snell x Law xx solve xxx the xxxxxxx index x n x sin xxx making xx assumption xxxx n xx for xxx n xxx sin xxx average xxxxx is xxxxxxxx that xxx mystery xxxxxxxxx is xxxxxx glass xxxxx out xxxx data xxx your xxxxxxxxxxx of xxxx tests xxxxx Include x guess xx to xxxx the xxxxxxx substance xx Answer xxx way x lens xxxxx real xx virtual xxxxxx depending xx object xxxxxxxxx is xxxxxxxxx to xxxxx about xxxx while xxxxxxxxxx control xxxx lens xxxxxxxxx or xxxxxxxxxx index xx the xxxxxxxxxx is xxxxxxxxx less xxxxxxxxxxx So xxxxx light xxxx a xxxxxxxxx substance xx some xxxxx with xxxxxxx to xxx normal xxx it xxxxx Big xxxx It xxxxxxx a xxxxxx big xxxx when xxxxxxxxxx people xxxx imperfect xxxxxx and xxxxx desire xx see xxxxxxxxx The xxxxx that xxxxx into xxx their xxxx is xxx bending xxxxxxxx because xxxxx eye xxx formed xxxxxxxx differently xxxx normal xxx way xx correct xxxx slight xxxxxxxxx is xxxx a xxxx of xxxxxxxxxxxx lenses xx order xx better xxxxxxxxxx eyeglasses xxx s xxxxx do xxx best xx understand xxxx lenses xx begin xxxxxxx to xxx following xxxxxxx Lense xxxxxxxxxxxxxx you xxxx see x screen xxxxxxx to xxx one xxxxx Figure xxxx is x simulation xxxxx has x picture xx a xxxxxx on xxx left xxxx is xx actual xxxxxxxx object xxx light xxxx the xxxxxx is xxxx out xx all xxxxxxxxxx but xxxx of xxxx light xxxx through x small xxxx in xxx middle xx the xxxxxx That xxxx will xxxx the xxxxx and xxxx the xxxxx will xxxx a xxxxxxxxxxxxx image xx the xxxxx side xx what xxx shining xxxxx on xxx left xxxx By xxxxxxx you xxxx see xxxx as xxx upside-down xxxxxx on xxx right xx the xxxx This xxxxxxx of xxxxx by x lens xx form x clear xxxxx is xxxxxxxxx referred xx as xxx physics xx thin xxxxxx In xxxxx to xxxxxxxxxx thin xxxxxx and xxxxxxx experiments xxxxxx play xxxxxx with xxxx you xxx change xxx what xxx cannot xx the xxxxxxxxx Write xxx what xxx find xxxx interesting xxxxx the xxxxxxxxx What xxx find xxxxx interesting xxxxx the xxxxxxxxx Answer xxx simulator xxxxxxx demonstrates xxx image xxxxxxxxxxxxxxx real xxxxxxx inverted xxxxxxx magnified xxxxxxx change xxxxxxxxxxx as xxx object xxxxxxxx changes xxxxxxxx to xxx focal xxxxxx particularly xxxxxxxxxxx to xxxxxxx how xxxxxxxxxx and xxxxxxxxx lenses xxxxxx distinctly xx the xxxxx hand x felt xxx simulation xxxxxx the xxxxxxx to xxxxx custom xxxxx lengths xx material xxxxxxxxxx like xxxxxxxxxx index xxxxxxxx more xxxxxxxx explorations xxx let x get xxxx some xxxxxxxxxxxxxx of xxxxxx Below xxx some xxxxxxxxx equations xxx may xxxx to xxxx in xxxx Figure xx case xxx have xxx encountered xx yet xxxx Khan xxxxxxx video xxxx help xxxxxxxxxx the xxxx convention xxx lenses xxxxxx watch xxx video xxx the xxx through xxx then xxxxxxx with xxx lab xx begin xxx s xxxx the xxxxxx away xxxx the xxxx so xxxx it xx to xxx LEFT xx the xxxxx labeled xx f xx the xxxxxxxxxx What xxxxxxx to xxx image xxxxxx on xxx other xxxx of xxx lens xx you xxxx the xxxxxx to xxx left xx specific xx your xxxxxxxxxxx Answer xxxxxxxx the xxxxxx is xxxxxxxxxx beyond x farther xxxx twice xxx focal xxxxxx from xxx lens xxx image xxxxx between x and x on xxx opposite xxxx where xxx image xx smaller xxxxxxxx and xxxx meaning xx can xx projected xxxx a xxxxxx As xxx move xxx object xx between xxx f xxx f xxxxxxxxx describe xxxx happens xx the xxxxx on xxx right xx specific xxx state xxx the xxxxx image xxxxxxxx to xxx object xxxxxx As xxx object xxxxx between x and x the xxxxx forms xxxxxx f xx the xxxxxxxx side xx the xxxx It xxxxxxx larger xxxxxxxx and xxxx the xxxxxxxxxxxxx is xxxxx employed xx devices xxxx projectors xx you xxxx the xxxxxx in xxxxxxx the x and xxx lens xxxxxxxx what xxxxxxx to xxx image xx the xxxxx of xxx lens xxxxx the xxxxxx at xxx blue xxxx closest xx the xxxx but xxx actually xx the xxxx Describe xxx image xxxxxx and xx specific xxxxx how xx compares xx the xxxxxx Answer xxxxxxxx the xxxxxx is xxxxxx between xxx focal xxxxx f xxx the xxxx the xxxxx rays xxxxxxx after xxxxxxx through xxx lens xxxxxxx tracing xxx rays xxxxxxxx depicts xxxx they xxxxxx to xxxxxxxx on xxx same xxxx as xxx object xxxxxxx a xxxxxxx upright xxx magnified xxxxx implying xxx functioning xx a xxxxxxxxxx glass xxxxx the xxxx lens xxxxxxxxx from xxxxx calculate xxx image xxxxxxxx for xxx image xxx compare xxxx to xxx image xxxxxxxx given xx the xxxxxxxxx Show xxx of xxxx work xx you xxxxxx any xxxxxxxxxxx Make xxxx to xxxx the xxxx of xxx image xxxxxxxx Answer xxxxxxxxxxx the xxxxx data xxxxx length xx positive xxx converging xxxx and xxxxxx distance xx cm xxxxx the xxxx formula x do xx di xx - x di xx interpreting xxxx the xxxxx distance xx cm xxxx indicates x real xxxxx on xxx opposite xxxx of xxx lens xxx simulation xxxxxxx cm xxxxx distance xxx theoretical xxxxxxxxxx matches xxxx while xxx discrepancies xx due xx measurement xxxxxxxxxxxxxx Change xxx lens xx a xxxxxxxxx lens xxx try xx form x real xxxxx from xxx object xxxxxxxx your xxxxxxxx below xxx the xxxxxxx of xxxx experiment xxxxxx diverging xxxx always xxxxxx light xxxx to xxxxxx apart xxxx images xxxxxxx rays xx physically xxxxxxxx that xxxxxxxxx lenses xxxxxx achieve xxx real xxxxxxx despite xxxxxxxx object xxxxxxxx all xxxxxx formed xxxxxxxx virtual xxxxxxx and xxxxxxx in xxxx a xxxx image xxxxxx be xxxxxx with x diverging xxxx and x real xxxxxx Summary xxxxxxxxxxxxxxxx formed xx the xxxxx of xxx lens xxx Answer xxxxxx are xxxxxxxx and xxx projected xxxx a xxxxxxx since xxxxxxxxxx lens xx usedUsing x converging xxxx real xxxxxx are xxxxxx when xxx object xx Answer xxxxxx beyond xxx focal xxxxxx the xxxxx location xx the xxxxx depends xx whether xxx object xx beyond x between x and x or xx f xxxxx a xxxxxxxxx lens xxx images xxx Answer xxxxxxx upright xxx smaller xxxx the xxxxxx as xxx images xxxxxx appear xx the xxxx side xx the xxxxxx and xxxxxx be xxxxxxxxx Imagine xxx are xxxxxxxxxxx At xxxx last xxx appointment xxxx optometrist xxxxx you xxxx she xxxx need xx increase xxxx prescription xxxxxxx as xx turns xxx light xx focusing xxx soon xx front xx your xxxxxx What xxxx of xxxx will xxxx optometrist xxxxxxxxx and xxx Answer xxxxx on xx understanding x diverging xxxxxxx lens xxx be xxxxxxxxxx since xx myopia xxx eye's xxxx focuses xxxxxxxx light xx front xx the xxxxxx resulting xx blurry xxxxxxx vision xxxxxxx a xxxxxxxxx lens xxxxx to xxxxx the xxxxx rays xx spread xxx slightly xxxxxx entering xxx eye xxxxxx the xxxxx point xxxx onto xxx retina xxxx correcting xxx vision xx have xxxxx with xxxxx as xx it xxxx traveling xx nice-clean xxxxxxxx lines xxxxxx that xxxxx is x wave xx why xxx t xx depict xxxxx as x wave xx geometrical xxxxxx The xxxxxx is xxxxx is xxxxxx no xxxx to xx so xxxx Huygen x principle xxx we xxxx see xxxx on xxx in xxx next xxx final xxx Once xxx have xxxxxxxxx all xxx questions xxxx the xxxx using xxxx name xxx example xxxxxxxx lab xxxxxxxxxx to xxx Module xxx EM xxxxx and xxxxxx assignment xx Canvas xxx grading xxxxxxxx of xxxx lab xxxx taken xxxx a xxxxx up xx Chris xxxxx - xxxx Read More

Ans. Pre-Lab xxxxxxxxxxxxxx a x or x capacitor xxxx a xxxxx bulb xx longer xxxxxxx your xxxxxxxxx Based xx my xxxxxxxxxxxxx if x F xxxxxxxxx would xxxx the xxxxx bulb xx longer xxxxxxx it xxxxxx more xxxxx... ....... Pre-Lab xxxxxxxxxxxxxx a x or x capacitor xxxx a xxxxx bulb xx longer xxxxxxx your xxxxxxxxx Based xx my xxxxxxxxxxxxx if x F xxxxxxxxx would xxxx the xxxxx bulb xx longer xxxxxxx it xxxxxx more xxxxxx Q x V xxxx a x capacitor xx the xxxx voltage xxxxx the xxxxxx charge xxxxxxxxxx through xxx light xxxx and x higher xxxxxxxxxxx means xxxx stored xxxxxx and xxxxxxxxx a xxxxxx discharge xxxx How xxxx charge xxx a x capacitor xxxxx if xx is xxxxxxxxx to x V xxxxxxx How xxxx this xxxxxxx to xxx charge xxxxxx when xx is xxxxxxxxx to x V xxxxxxx Q x VAt x Q x F x mCAt x Q x F x mCSo xxx F xxxxxxxxx stores xx at x and xx at x doubling xxx voltage xxxxxxx the xxxxxx stored xxx long xxxxx the xxxxx of xxxxxx need xx be xx you xxxx to xxxxxxxxx a x parallel xxxxx capacitor xxxxx square xxxxxx that xxxx separated xx millimeters x Ad x m xxxx length x kmWe xxxxx need xxxx square xxxxxx about xx on xxxx side xxxxxxxxxxx for xxxx world xxxxxxxxxxxx which xx why xxxxxxxxxxxxxxx use xxxxxxxx materials xxx do xxx get x larger xxxxxxxxxxx with xxxxxxxxxx in xxxxxxxx and x smaller xxxxxxxxxxx for xxxxxxxxxx in xxxxxx Parallel xxxxxxxxxxx adds xxxxxxxx like xxxxxx area xxx C x Series xxxxxxx capacitances xxx like xxxxxxxxxx distance xxxxxxx plates xxx C x geting xxxxxx total xxxxxxxxxxx in xxxxxxxx because xxx effective xxxxx area xxxxxxxxx while xx series xxxxxxxxx plate xxxxxxxxxx increases xxxxxxxx the xxxxxxxxxxx Calculate xxx capacitance xx a x and x capacitor xx series xxx parallel xxxx the xxxx capacitances xxxx greatest xx smallest xxx individual xxxxxxxxxx and xxxxx capacitance xx series xxx parallel xxx C x F xxxxxxxx Ceq xxx F xxxxxx Experiment xxxxxxxxxx in xxxxxx and xxxxxxxxxxxx SheetTable xxxx Circuits xxxxxxxxxxx DataTrialCapacitance xxxx s xxxxxxxxxxx Time x Capacitance xxxx s xxxxxxxxxxx Time x Average x s x sPost-Lab xxxxxxxxxxxx did xxx behavior xx the xxx differ xxxx you xxxxx the xxxxxx capacitor xx Part xxx LED xxxxxx on xxxxxx when xxx second xxxxxxxxx F xxx added xx the x capacitor xx Part xxxxxxx the xxxxxxx discharge xxxx increased xxxx s x alone xx s xxxxxxxx configuration xxxxxxxxxx that xxx circuit xxxxx store xxx discharge xxxx energy xxxxx adding xxx F xxxxxxxxx in xxxx are xxx capacitors xx series xx in xxxxxxxx Use xxxx to xxxxxxx your xxxxxx Calculate xxx equivalent xxxxxxxxxxx The xxxxxxx time xxxxxxxxx significantly xxxx s xx s xxxxxxxxxx the xxxxxxxxxx were xxxxxxxxx in xxxxxxxx since xxxxxxxxxxx adds xxxxxxxx Ceq x C x F x How xxx the xxxxxxxx of xxx LED xxxxxx when xxx added xxx second xxxxxxxxx in xxxx Whenever xxx F xxxxxxxxx was xxxxx to xxx F xxxxxxxxx in xxxx the xxx stayed xx for x shorter xxxx average xxxxxxx to x than xxxx the x alone xxxxx decreases xx time xxxxxxxxxx that xxx total xxxxxxxxxxx dropped xxxxxxxxxx a xxxxxx configuration xxxxx adding xxx F xxxxxxxxx in xxxx are xxx capacitors xx series xx in xxxxxxxx Use xxxx to xxxxxxx your xxxxxx Calculate xxx equivalent xxxxxxxxxxx The xxxxxxxx in xxx time xxxxxxxx that xxx capacitors xxxx in xxxxxx Ceq xxx FThe xxxxxx the xxxxx bulb xx lit xxx larger xxx capacitance xxxxxxxxx the xxxxxxxxxxx for xxxx circuit xxxxxxxxxxx Rank xxxx capacitances xx order xxxx greatest xx least xxxxx off xx the xxxxxxx time xxx light xxxx was xxx Does xxxx ranking xxxxx with xxxx calculations xxxxxxxxxx Time xxxxxxx Capacitance xxxxxxxx s xxxxxxxxxxxx F x FCapacitance x s xxxxxxxxxxxx series x FYes xxx ranking xxxxx on xxx time xxx light xxxx remained xxx matches xxx calculated xxxxxxxxxxx values xxxxxxxxxx the xxxxxx relationship xxxxxxx time xxx and xxxxx capacitance Read More