Chapter 6: Q3-1 OQ (page 150)
Is it possible to add a vector quantity to a scalar quantity? Explain.
Short Answer
No, it is not possible to add a vector quantity to a scalar quantity.
Chapter 6: Q3-1 OQ (page 150)
Is it possible to add a vector quantity to a scalar quantity? Explain.
No, it is not possible to add a vector quantity to a scalar quantity.
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Get started for freeA block of mass m is dropped from the fourth floor of an office building and hits the sidewalk below at speed V. From what floor should the block be dropped to double that impact speed? (a) the sixth floor (b) the eighth floor (c) the tenth floor (d) the twelfth floor (e) the sixteenth floor.
Consider a system of two particles in the xy plane: is at the locationrole="math" localid="1668080105256" and has a velocity of ; is at and has velocity . (a) Plot these particles on a grid or graph paper. Draw their position vectors and show their velocities. (b) Find the position of the center of mass of the system and mark it on the grid. (c) Determine the velocity of the center of mass and also show it on the diagram. (d) What is the total linear momentum of the system?
Question: A golf ball is hit off a tee at the edge of a cliff. Itsx and y coordinates as functions of time are givenby x = 18.0tand y = 4.00t -4.90t2where x and y are in meters and t is in seconds.
(a) Write a vector expression for the ball's position as a function of time, using the unit vectors and . By taking derivatives, obtain expressions for
(b) The velocity vector as a function of time and
(c) The acceleration vector as a function of time.
(d) Next use unit-vector notation to write expressions for the position, the velocity, and the acceleration of the golf ball at t = 3.00 s.
Vectorhas x and y components of -8.70 cmand 15.0 cm, respectively; vectorhas x and y components of 13.2 cm and -6.60 cm, respectively. If, what are the components of?
Two gliders are set in motion on a horizontal air track. A spring of force constantis attached to the back end of the second glider. As shown in Figure P9.75, the first glider , of mass
, moves to the right with speed
, and the second glider, of mass
, moves more slowly to the right with speed
. When
collides with the spring attached to
, the spring compresses by a distance
, and the gliders then move apart again. In terms of
,
,
,
, and
, find (a) the speed
at maximum compression, (b) the maximum compression
, and (c) the velocity of each glider after
has lost contact with the spring.
Figure P9.75
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