June 2018 Physics Regents (2024)

1. Which combination correctly pairs a vector quantity with its corresponding unit?

(1) weight and kg
(2) velocity and m/s
(3) speed and m/s
(4) acceleration and m2/s

2. A June 2018 Physics Regents (1)-kilogram cart is moving at a speed of a June 2018 Physics Regents (2) meter per second. After the speed of the cart is tripled, the inertia of the cart will be

(1) unchanged
(2) one-third as great
(3) three times greater
(4) nine times greater

3. While taking off from an aircraft carrier, a jet starting from rest accelerates uniformly to a final speed of June 2018 Physics Regents (3) meters per second on a runway that is June 2018 Physics Regents (4) meters long. What is the magnitude of the acceleration of the jet?

(1) June 2018 Physics Regents (5)m/s2
(2) June 2018 Physics Regents (6)m/s2
(3) June 2018 Physics Regents (7)m/s2
(4) June 2018 Physics Regents (8)m/s2

4. A June 2018 Physics Regents (9)-kilogram cart initially traveling at June 2018 Physics Regents (10) meters per second east accelerates uniformly at June 2018 Physics Regents (11) meter per second squared east for June 2018 Physics Regents (12) seconds. What is the speed of the cart at the end of this June 2018 Physics Regents (13) second interval?

(1) June 2018 Physics Regents (14)m/s
(2) June 2018 Physics Regents (15)m/s
(3) June 2018 Physics Regents (16)m/s
(4) June 2018 Physics Regents (17)m/s

5. A soccer ball is kicked into the air from level ground with an initial speed of June 2018 Physics Regents (18) meters per second and returns to ground level. At which angle above the horizontal should the ball be kicked in order for the ball to travel the greatest total horizontal distance? [Neglect friction.]

(1) June 2018 Physics Regents (19)
(2) June 2018 Physics Regents (20)
(3) June 2018 Physics Regents (21)
(4) June 2018 Physics Regents (22)

6. Starting from rest, a car travels June 2018 Physics Regents (23) meters as it accelerates uniformly for June 2018 Physics Regents (24) seconds. What is the magnitude of the car’s acceleration?

(1) June 2018 Physics Regents (25)m/s2
(2) June 2018 Physics Regents (26)m/s2
(3) June 2018 Physics Regents (27)m/s2
(4) June 2018 Physics Regents (28)m/s2

7. A ball is rolling horizontally at June 2018 Physics Regents (29) meters per second as it leaves the edge of a tabletop June 2018 Physics Regents (30) meter above the floor. The ball lands on the floor June 2018 Physics Regents (31) second after leaving the tabletop. What is the magnitude of the ball’s acceleration June 2018 Physics Regents (32) second after it leaves the tabletop? [Neglect friction.]

(1) June 2018 Physics Regents (33)m/s2
(2) June 2018 Physics Regents (34)m/s2
(3) June 2018 Physics Regents (35)m/s2
(4) June 2018 Physics Regents (36)m/s2

8. A projectile with mass June 2018 Physics Regents (37) is fired with initial horizontal velocity June 2018 Physics Regents (38) from height June 2018 Physics Regents (39) above level ground. Which change would have resulted in a greater time of flight for the projectile? [Neglect friction.]

(1) decreasing the mass to June 2018 Physics Regents (40)
(2) decreasing the height to June 2018 Physics Regents (41)
(3) increasing the initial horizontal velocity to June 2018 Physics Regents (42)
(4) increasing the height to June 2018 Physics Regents (43)

9. A golf club hits a stationary June 2018 Physics Regents (44)-kilogram golf ball with an average force of June 2018 Physics Regents (45) newtons, accelerating the ball to a speed of June 2018 Physics Regents (46) meters per second. What is the magnitude of the impulse imparted to the ball by the golf club?

(1) June 2018 Physics Regents (47)
(2) June 2018 Physics Regents (48)
(3) June 2018 Physics Regents (49)
(4) June 2018 Physics Regents (50)

10. A tennis player’s racket applies an average force of June 2018 Physics Regents (51) newtons to a tennis ball for June 2018 Physics Regents (52) second. The average force exerted on the racket by the tennis ball is

(1) June 2018 Physics Regents (53)
(2) June 2018 Physics Regents (54)
(3) June 2018 Physics Regents (55)
(4) June 2018 Physics Regents (56)

11. The diagram below represents a box sliding down an incline at constant velocity.

June 2018 Physics Regents (57)

Which arrow represents the direction of the frictional force acting on the box?

(1) A
(2) B
(3) C
(4) D

12. Which diagram represents the directions of the velocity, June 2018 Physics Regents (58), and acceleration, June 2018 Physics Regents (59), of a toy car as it moves in a clockwise, horizontal, circular path at a constant speed?

(1)June 2018 Physics Regents (60)
(2)June 2018 Physics Regents (61)
(3)June 2018 Physics Regents (62)
(4)June 2018 Physics Regents (63)

13. A charged particle is located in an electric field where the magnitude of the electric field strength is June 2018 Physics Regents (64) newtons per coulomb. If the magnitude of the electrostatic force exerted on the particle is June 2018 Physics Regents (65) Newton, what is the charge of the particle?

(1) June 2018 Physics Regents (66)C
(2) June 2018 Physics Regents (67)C
(3) June 2018 Physics Regents (68)C
(4) June 2018 Physics Regents (69)C

14. The magnitude of the gravitational field strength near Earth’s surface is represented by

(1) June 2018 Physics Regents (70)
(2) June 2018 Physics Regents (71)
(3) June 2018 Physics Regents (72)
(4) June 2018 Physics Regents (73)

15. A car engine supplies June 2018 Physics Regents (74) joules of energy during the June 2018 Physics Regents (75) seconds it takes to accelerate the car along a horizontal surface. What is the average power developed by the car engine while it is accelerating?

(1) June 2018 Physics Regents (76)
(2) June 2018 Physics Regents (77)
(3) June 2018 Physics Regents (78)
(4) June 2018 Physics Regents (79)

16. Which forces can be either attractive or repulsive?

(1) gravitational and magnetic
(2) electrostatic and gravitational
(3) magnetic and electrostatic
(4) gravitational, magnetic, and electrostatic

17. Compared to the resistivity of a June 2018 Physics Regents (80)-meter length of June 2018 Physics Regents (81)-millimeter-diameter copper wire at June 2018 Physics Regents (82)C, the resistivity of a June 2018 Physics Regents (83)-meter length of a June 2018 Physics Regents (84)-millimeter-diameter copper wire at June 2018 Physics Regents (85)C is

(1) one-fourth as great
(2) one-half as great
(3) the same
(4) four times greater

18. The work per unit charge required to move a charge between two points in an electric circuit defines electric

(1) force
(2) power
(3) field strength
(4) potential difference

19. A June 2018 Physics Regents (86)-meter length of copper wire is connected across a potential difference of June 2018 Physics Regents (87) millivolts. The current through the wire is June 2018 Physics Regents (88) ampere. The same copper wire at the same temperature is then connected across a potential difference of June 2018 Physics Regents (89) millivolts. The current through the wire is

(1) June 2018 Physics Regents (90)
(2) June 2018 Physics Regents (91)
(3) June 2018 Physics Regents (92)
(4) June 2018 Physics Regents (93)

20. What is the magnitude of the gravitational force of attraction between two June 2018 Physics Regents (94)-kilogram soccer balls when the distance between their centers is June 2018 Physics Regents (95) meter?

(1) June 2018 Physics Regents (96)
(2) June 2018 Physics Regents (97)
(3) June 2018 Physics Regents (98)
(4) June 2018 Physics Regents (99)

21. A sound wave produced by a loudspeaker can travel through water, but not through a vacuum. In comparison, a red light wave produced by a laser can travel through

(1) water, but not through a vacuum
(2) a vacuum, but not through a water
(3) both water and a vacuum
(4) neither water nor a vacuum

22. As a group of soldiers marches along a road, each soldier steps simultaneously. However, when crossing a bridge, the group does not step simultaneously in order to prevent the bridge from vibrating intensely. The phenomenon responsible for the intense vibrations is

(1) action and reaction
(2) conservation of momentum
(3) inertia
(4) resonance

23. Which characteristics of a light wave remain constant when the light wave travels from air into corn oil?

(1) speed and frequency
(2) wavelength and frequency
(3) period and frequency
(4) wavelength and period

24. The speed of a light ray (June 2018 Physics Regents (100)Hz) in corn oil is

(1) June 2018 Physics Regents (101) m/s
(2) June 2018 Physics Regents (102) m/s
(3) June 2018 Physics Regents (103) m/s
(4) June 2018 Physics Regents (104) m/s

25. The spreading out of a wave after passing through an opening in a barrier is an example of

(1) diffraction
(2) Doppler effect
(3) reflection
(4) refraction

26. A microwave with a frequency of June 2018 Physics Regents (105) hertz has a period of

(1) June 2018 Physics Regents (106)s
(2) June 2018 Physics Regents (107)s
(3) June 2018 Physics Regents (108)s
(4) June 2018 Physics Regents (109)s

27. After two light waves have interfered in a vacuum, the two waves will be

(1) changed in frequency
(2) changed in velocity
(3) changed in amplitude
(4) unchanged

28. A glass rod is rubbed with silk. During the process, a positive charge is given to the glass rod by

(1) adding electrons to the rod
(2) adding protons to the rod
(3) removing electrons from the rod
(4) removing protons from the rod

29. A photon with an energy of June 2018 Physics Regents (110) joule has a frequency of

(1) June 2018 Physics Regents (111)Hz
(2) June 2018 Physics Regents (112)Hz
(3) June 2018 Physics Regents (113)Hz
(4) June 2018 Physics Regents (114)Hz

30. The speed of a car is increased uniformly from June 2018 Physics Regents (115) meters per second to June 2018 Physics Regents (116) meters per second. The average speed of the car during this interval is

(1) June 2018 Physics Regents (117) m/s
(2) June 2018 Physics Regents (118) m/s
(3) June 2018 Physics Regents (119) m/s
(4) June 2018 Physics Regents (120) m/s

31. The energy equivalent of the rest mass of an electron is

(1) June 2018 Physics Regents (121)J
(2) June 2018 Physics Regents (122)J
(3) June 2018 Physics Regents (123)J
(4) June 2018 Physics Regents (124)J

32. A spring has an unstretched length of June 2018 Physics Regents (125) meter. The spring is stretched to a length of June 2018 Physics Regents (126) meter when a June 2018 Physics Regents (127)-newton weight is hung motionless from one end. The spring constant of this spring is

(1) June 2018 Physics Regents (128) N/m
(2) June 2018 Physics Regents (129) N/m
(3) June 2018 Physics Regents (130) N/m
(4) June 2018 Physics Regents (131) N/m

33. An electric circuit contains a battery, three lamps, and an open switch, as represented in the diagram below.

June 2018 Physics Regents (132)

When the switch is open, there is an electric current in

(1) lamp I, only
(2) lamps II and III, only
(3) lamps I, II, and III
(4) none of the lamps

34. Which diagram correctly represents an electric field?

(1)June 2018 Physics Regents (133)
(2)June 2018 Physics Regents (134)
(3)June 2018 Physics Regents (135)
(4)June 2018 Physics Regents (136)

35. Which points on the wave diagram below are June 2018 Physics Regents (137) out of phase with each other?

June 2018 Physics Regents (138)

(1) A and E
(2) B and C
(3) C and D
(4) D and E

36. The height of an individual step on a staircase is closest to

(1) June 2018 Physics Regents (139)m
(2) June 2018 Physics Regents (140)m
(3) June 2018 Physics Regents (141)m
(4) June 2018 Physics Regents (142)m

37. What is the magnitude of the electrostatic force exerted on an electron by another electron when they are June 2018 Physics Regents (143) meter apart?

(1) June 2018 Physics Regents (144)N
(2) June 2018 Physics Regents (145)N
(3) June 2018 Physics Regents (146)N
(4) June 2018 Physics Regents (147)N

38. After a June 2018 Physics Regents (148)-newton weight has fallen freely from rest a vertical distance of June 2018 Physics Regents (149) meters, the kinetic energy of the weight is

(1) June 2018 Physics Regents (150)J
(2) June 2018 Physics Regents (151)J
(3) June 2018 Physics Regents (152)J
(4) June 2018 Physics Regents (153)J

39. A June 2018 Physics Regents (154)-kilogram cart traveling to the right on a horizontal, frictionless surface at June 2018 Physics Regents (155) meters per seconds collides head-on with a June 2018 Physics Regents (156)-kilogram cart moving to the left at June 2018 Physics Regents (157) meters per second. What is the magnitude of the total momentum of the two-cart system after the collision?

(1) June 2018 Physics Regents (158) kgJune 2018 Physics Regents (159)m/s
(2) June 2018 Physics Regents (160) kgJune 2018 Physics Regents (161)m/s
(3) June 2018 Physics Regents (162) kgJune 2018 Physics Regents (163)m/s
(4) June 2018 Physics Regents (164) kgJune 2018 Physics Regents (165)m/s

40. An object weighing June 2018 Physics Regents (166) newtons is pushed across a horizontal, frictionless surface by a horizontal force of June 2018 Physics Regents (167) newtons. The magnitude of the net force acting on the object is

(1) June 2018 Physics Regents (168)N
(2) June 2018 Physics Regents (169)N
(3) June 2018 Physics Regents (170)N
(4) June 2018 Physics Regents (171)N

41. The ratio of the wavelength of AM radio waves traveling in a vacuum to the wavelength of FM radio waves traveling in a vacuum is approximately

(1) June 2018 Physics Regents (172) to June 2018 Physics Regents (173)
(2) June 2018 Physics Regents (174) to June 2018 Physics Regents (175)
(3) June 2018 Physics Regents (176) to June 2018 Physics Regents (177)
(4) June 2018 Physics Regents (178) to June 2018 Physics Regents (179)

42. A charm quark has a charge of approximately

(1) June 2018 Physics Regents (180)C
(2) June 2018 Physics Regents (181)C
(3) June 2018 Physics Regents (182)C
(4) June 2018 Physics Regents (183)C

43. The diagram below represents a June 2018 Physics Regents (184)-ohm resistor connected to a June 2018 Physics Regents (185)-volt battery. Meters June 2018 Physics Regents (186) and June 2018 Physics Regents (187) are correctly connected in the circuit.

June 2018 Physics Regents (188)

What are the readings on the meters?

(1) June 2018 Physics Regents (189) and June 2018 Physics Regents (190)
(2) June 2018 Physics Regents (191) and June 2018 Physics Regents (192)
(3) June 2018 Physics Regents (193) and June 2018 Physics Regents (194)
(4) June 2018 Physics Regents (195) and June 2018 Physics Regents (196)

44. A toy airplane, flying in a horizontal, circular path, completes June 2018 Physics Regents (197) complete circles in June 2018 Physics Regents (198) seconds. If the radius of the plane’s circular path is June 2018 Physics Regents (199) meters, the average speed of the airplane is

(1) June 2018 Physics Regents (200) m/s
(2) June 2018 Physics Regents (201) m/s
(3) June 2018 Physics Regents (202) m/s
(4) June 2018 Physics Regents (203) m/s

45. Which pair of graphs represents the vertical motion of an object falling freely from rest?

(1)June 2018 Physics Regents (204)
(2)June 2018 Physics Regents (205)
(3)June 2018 Physics Regents (206)
(4)June 2018 Physics Regents (207)

46. An object is thrown straight upward. Which graph best represents the relationship between the object’s kinetic energy and the height of the object above its release point?[Neglect friction.]

(1)June 2018 Physics Regents (208)
(2)June 2018 Physics Regents (209)
(3)June 2018 Physics Regents (210)
(4)June 2018 Physics Regents (211)

47. In the diagram below, June 2018 Physics Regents (212) represents a particle in a spring.

June 2018 Physics Regents (213)

Which diagram represents the motion of particle June 2018 Physics Regents (214) as a longitudinal wave passes through the spring toward the right?

(1)June 2018 Physics Regents (215)
(2)June 2018 Physics Regents (216)
(3)June 2018 Physics Regents (217)
(4)June 2018 Physics Regents (218)

48. As represented in the diagram below, two wave pulses, June 2018 Physics Regents (219) and June 2018 Physics Regents (220), are traveling toward each other in a rope. Both wave pulses have an amplitude of June 2018 Physics Regents (221)m.

June 2018 Physics Regents (222)

Which diagram shows the pulse produced due to the superposition of pulse June 2018 Physics Regents (223) and pulse June 2018 Physics Regents (224)?

(1)June 2018 Physics Regents (225)
(2)June 2018 Physics Regents (226)
(3)June 2018 Physics Regents (227)
(4)June 2018 Physics Regents (228)

49. The horn of a car produces a sound wave of constant frequency. The car, traveling at constant speed, approaches, passes, and then moves away from a stationary observer. Which graph best represents the frequency of this sound wave detected by the observer during the time interval in which the car approaches, passes, and moves away?

(1)June 2018 Physics Regents (229)
(2)June 2018 Physics Regents (230)
(3)June 2018 Physics Regents (231)
(4)June 2018 Physics Regents (232)

50. A combination of two identical resistors connected in series has an equivalent resistance of June 2018 Physics Regents (233)ohms. What is the equivalent resistance of the combination of these same two resistors when connected in parallel?

(1) June 2018 Physics Regents (234)
(2) June 2018 Physics Regents (235)
(3) June 2018 Physics Regents (236)
(4) June 2018 Physics Regents (237)

June 2018 Physics Regents (2024)
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