Sound Waves Practice Problems PSI AP Physics 1 Name .
Sound Waves Practice ProblemsPSI AP Physics 1NameMultiple Choice1. dofwave2theresultis:(A) Twiceasgreat(B)One- hthegiveninformation.2. (A) Vair Vwater Vsteel(B) Vair Vwater Vsteel(C) Vair Vwater Vsteel(D) Vair Vwater VsteelUsethefollowingpictureforquestions3and4.3. relationshipbetweenthedistancesisSA AB BC frequency?(A) quency4. relationshipbetweenthedistancesisSA AB BC estintensity?(A) ensity5. gth(D)Speedofsound
6. length(D)Speedofsound7. 3,L/5(D)4L,4L/3,4L/58. ,850Hz(D)50Hz,100Hz,150Hz9. quency?(Vsound 340m/s)(A)85Hz(B)170Hz(C)340Hz(D)510Hz
12. 6.0m13. hatistheresonatingfrequency?(Vsound 340m/s)(A)85Hz(B)170Hz(C)340Hz(D)510Hz14. ,L/5(D)4L,4L/3,4L/515. z,750Hz(D)900Hz,1500Hz,2100Hz16. B)800Hz(C)1200Hz(D)2500Hz17. isthebeatfrequency?(A)5Hz(B)10Hz(C)15Hz(D)20Hz
18. (D)3.0m19. (D)6.0m20. Whatistheresonatingfrequency?(Vsound 340m/s)(A)85Hz(B)170Hz(C)340Hz(D)680Hz21. . (D)Decreasesandthenincreases
23. z(B)100Hz(C)180Hz(D)270Hz24. heobserver?(Vsound 340m/s)(A)1560Hz(B)780Hz(C)390Hz(D)195Hz25. ndatpointP?(A)0.75m(B)1.50m(C)1.75m(D)2.25m
26. cevelocity?DirectionMagnitude(A)TotherightVobj Vsound(B)TotherightVobj Vsound(C)TotherightVobj Vsound(D)TotheleftVobj Vsound27. ndinthatroom?(A) Theperiodofthetuningfork.(B) ) Thetemperatureintheroom.(D) loffluidinthebottledecreases?(A) Thespeedofthewave(B) Thewavelengthofthewave(C) Thefrequencyofthewave(D) Nothingremainsthesame.
Multi- mustselectbothanswers.29. defromthedisplay?Selecttwoanswers.(A) Thesoundwavesaretravelinginthesamedirection.(B) Thesoundwaveshavedifferentfrequencies.(C) Thesoundwaveshavethesameamplitude.(D) Thesoundwavesaretravelingatdifferentspeeds.30. cieswillresonateinbothtubes?(A) 340Hz(B) 680Hz(C) 1020Hz(D) 1360Hz
Free Response1) Twoloudspeakersseparatedbyadistanced 0.5mareplacedatadistanceL 2mfromy- quencyf microphonemovesinparalleltoy- mamplitude.(Vsound 340m/s)a. Determinethewavelengthofthesoundwaves.b. ximumandfirst- ‐ordermaximum.c. Determinethedistancefromtheorigintothefirst- ‐ordermaximum.d. erethemicrophonedetectsnosound.e. Iftheloudspeakersoscillateinanti- pattern?
2) nd 340m/s)a) Determinethewavelengthofthesoundwave.b) taysthesameasitwasdetermineinthefirsttrial.c) hentheaircolumnresonatesforthefirsttime.d) forthesecondtime?thirdtime?
3.Twoloudspeakersseparatedbyadistanced 0.75mareplacedatadistanceL 4mfromthey- quencyf icrophonemovesinparalleltothey- umamplitude.(Vsound 340m/s)a. Determinethewavelengthofthesoundwaves.b. ximumandfirst- ‐ordermaximum.c. Determinethedistancefromtheorigintothefirst- ‐ordermaximum.d. erethemicrophonedetectsnosound.e. Iftheloudspeakersoscillateinanti- pattern?
vsound ime?Thirdtime?
5. ethetubetofindthespeedofsoundintheroom.a. includewhatmeasurementsyouwouldmake.b. thespeedofsound.c. s1.5m0.005s1.7m0.007s2.5m
6. stanceLfromthey- amicrophonemovesinparalleltothey- umamplitude.a. ionxalongthex- ntheaxesbelow.b. functionofpositionalongthey- ‐axis.c. Assumethatd longthelineHH.
7. le.Use340m/sforthespeedofsound.a) Calculatethewavelengthofthesesoundwaves.b) tancethestudentcouldhavemovedtohearthismaximum.c) youranswer.
3.14.15.16.17.18.CDDCBB19.20.21.22.23.24.B25. BB26. CC27.BD28. AB29. B,CC30. 0.25m30 ceversa.2m170Hz0.5m1.5m,2.5m5.a) tleast3morepairsofdata.b) !!!wheren 1.Thenuse𝑣 onesetofdata,theaveragecanbefound.c) Thespeedofsoundshouldbeapproximately340m/s.
5.a)b)c)113Hz6.a) 0.425mb) 2.4mc) 2.4montheoppositeoftheoriginoranymultipleof2.4md) tweenthespeakers.e) proportionaltofrequency.
PSI AP Physics 1 Name_ Multiple Choice 1. Two&sound&sources&S 1∧&S p;Hz&and250&Hz.&Whenwe& esult&is:& (A) great&&&&&(C)&The&same&&&&&
Handbook: Sound Waves Homework pg. 24 Simulation: Sound Waves 8 The Propagation of Sound Speed of sound Read: Speed of Sound, pg. 243 Problems: pg. 243 #1,3, pg. 246 #1,2,5 Handbook: Propagation of Sound Homework pg. 26 Video: Transverse and Longitudinal Waves 9 The Interference of Sound Interference of sound waves, beat
electromagnetic waves, like radio waves, microwaves, light, and x-rays are examples of transverse waves. Longitudinal waves travel through a medium in a direction parallel to the direction of travel of the wave. Mechanical waves such as sound waves, seismic waves created by earthquakes, and explosions are all examples of longitudinal waves.
Titanium alloys commonly used in industry Table 1 1 INTRODUCTION 35A 1 R50250 35,000 psi 25,000 psi C.P. Titanium* 50A 2 R50400 50,000 psi 40,000 psi C.P. Titanium* 65A 3 R50550 65,000 psi 55,000 psi C.P. Titanium* 75A 4 R50700 80,000 psi 70,000 psi C.P. Titanium* 6-4 5 R56400 130,000 psi 120,000 psi 6% AI, 4% V *Commercially Pure (Unalloyed .
Q: What are mechanical waves? A: Waves that require a medium in which to travel. A medium is the _ that waves travel through o Mediums can be solid, liquid, or gas Examples of mechanical waves include sound waves, seismic waves, ocean waves, etc Q: Describe two types of mechanical waves.
College physics Semester 2 Unit 2 What is a wave? How do they act? How are do waves differ? 1/29 Pre-test Waves on a String. Notes: Introduction to Waves . Lab: Waves on a String Activity (PhET) Do: read 12.3 p457 (1,3,5) 1/30 Clicker questions: Waves on a String. Lab: Fourier-Making Waves part 1 (PhET) 2/1 Lab: Fourier-Making Waves part 2 (PhET)
Chapter 16 Waves and Sound 179 Chapter 16 WAVES AND SOUND PREVIEW A wave is a disturbance which causes a transfer of energy.Mechanical waves need a medium in which to travel, but electromagnetic waves do not. Waves can be transverse or longitudinal, depending on the direction of the vibration of the wave.Sound is a longitudinal
electromagnetic waves we can see. We see these waves as the colors of the rainbow. Each color has a different wavelength. Red has the longest wavelength and violet has the shortest wavelength. When all the waves are seen together, they make white light. Visible light waves are the only electromagnetic waves we can see.
Properties of EM Waves Electromagnetic waves are transverse waves Electromagnetic waves travel at the speed of light Because em waves travel at a speed that is precisely the speed of light, light is an electromagnetic wave Electromagnetic waves carry energy as they travel through space, and this energy can be transferred to objects
