Physics I. Unit : potential energy and conservation of energy. A,B,C, please
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Physics I. Unit : potential energy and conservation of energy.
A,B,C, please
In the figure, a...
In the figure, a 2.6 kg block is accelerated from rest by a compressed spring of...
In the figure, a 2.6 kg block is accelerated from rest by a
compressed spring of spring constant 660 N/m. The block leaves the
spring at the spring's relaxed length and then travels over a
horizontal floor with a coefficient of kinetic friction
?k = 0.272. The frictional force stops the
block in distance D = 7.9 m. What are (a)
the increase in the thermal energy of the block
In the figure, a 2.6 kg block is accelerated from...
In the figure below, a 4.0 kg block is accelerated from rest by a compressed spring...
In the figure below, a 4.0 kg block is accelerated from rest by a compressed spring of spring constant 600 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction uk= 0.30.The frictional force stops the block in the distance of D = 8.0 m. -- No friction a) Find the increase in the thermal energy of the block-floor system b) What is the original compression...
In the figure, a 4.2 kg block is accelerated from rest by a compressed spring of...
In the figure, a 4.2 kg block is accelerated from rest by a compressed spring of spring constant 650 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction WK = 0.264. The frictional force stops the block in distance D = 7.8 m. What are (a) the increase in the thermal energy of the block-floor system, (b) the maximum kinetic energy of the block, and...
In the figure, a 2.8 kg block is accelerated from rest by a compressed spring of...
In the figure, a 2.8 kg block is accelerated from rest by a compressed spring of spring constant 650 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction μk = 0.290. The frictional force stops the block in distance D = 7.8 m. What are (a) the increase in the thermal energy of the block–floor system, (b) the maximum kinetic energy of the block, and...
In the figure below, a 3.0 kg block is accelerated from rest by a compressed spring...
In the figure below, a 3.0 kg block is accelerated from rest by a compressed spring of spring constant 640 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction μk = 0.25. The frictional force stops the block in distance 6.2 m. (a) What is the increase in the thermal kinetic energy of the block floor system? ___J (b) What was the maximum kinetic energy...
1a. 1b. In the figure below, a block slides along a track from one level to...
1a.
1b.
In the figure below, a block slides along a track from one level to a higher level after passing through an intermediate valley. The track is frictionless until the block reaches the higher level. There a frictional force stops the block in a distance d. The block's initial speed is vo; the height difference is h and the coefficient of kinetic friction is Wk. Find d in terms of the given variables (use g where applicable). u-0- In...
In the figure, a 3.5 kg block is accelerated from rest by a compressed spring of...
In the figure, a 3.5 kg block is accelerated from rest by a compressed spring of spring constant 640 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction _k-0.25. The frictional force stops the block in distance D-78 m. What is the original compression distance of the spring? Consider 9 - 9.8 m/s -No friction D (4) Select one: 0.25 m 1.2 m 0.78 m...
A 2.1.0-kg block is accelerated from rest by a compressed spring (ks = 545 N/m). The...
A 2.1.0-kg block is accelerated from rest by a compressed spring (ks = 545 N/m). The block leaves the spring at the spring’s relaxed length. The block then travels along a rough horizontal with a coefficient of kinetic friction μk = 0.240 a distance of x = 6.90 m before frictional force stops the block. What was the original compression distance of the spring?
Physics I. Unit : potential energy and conservation of energy. In the figure, a 4.1 kg...
Physics I. Unit : potential energy and conservation of
energy.
In the figure, a 4.1 kg block slides along a track from one level to a higher level after passing through an intermediate valley. The track is frictionless until the block reached the higher level. There a frictional force stops the block in a distance d. The block's initial speed is v_0 = 6.3 m/s, the height difference is h = 1.1 m, and mu_k = 0.621. Find d.
Question 3 In the figure, a block is accelerated from rest by a compressed spring and,...
Question 3 In the figure, a block is accelerated from rest by a compressed spring and, after leaving the spring, encounters a frictional force from the floor that eventually stops it in distance D. -No friction- D The spring constant is k = 600 N/m and the initial compression of the spring is d = 0.0200 m. How much energy is transferred to thermal energy of the block and track? AE =
In the figure, a 2.6 kg block is accelerated from rest by a
compressed spring of spring constant 660 N/m. The block leaves the
spring at the spring's relaxed length and then travels over a
horizontal floor with a coefficient of kinetic friction
?k = 0.272. The frictional force stops the
block in distance D = 7.9 m. What are (a)
the increase in the thermal energy of the block
In the figure, a 2.6 kg block is accelerated from...
In the figure below, a 4.0 kg block is accelerated from rest by a compressed spring of spring constant 600 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction uk= 0.30.The frictional force stops the block in the distance of D = 8.0 m. -- No friction a) Find the increase in the thermal energy of the block-floor system b) What is the original compression...
In the figure, a 4.2 kg block is accelerated from rest by a compressed spring of spring constant 650 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction WK = 0.264. The frictional force stops the block in distance D = 7.8 m. What are (a) the increase in the thermal energy of the block-floor system, (b) the maximum kinetic energy of the block, and...
1a.
1b.
In the figure below, a block slides along a track from one level to a higher level after passing through an intermediate valley. The track is frictionless until the block reaches the higher level. There a frictional force stops the block in a distance d. The block's initial speed is vo; the height difference is h and the coefficient of kinetic friction is Wk. Find d in terms of the given variables (use g where applicable). u-0- In...
In the figure, a 3.5 kg block is accelerated from rest by a compressed spring of spring constant 640 N/m. The block leaves the spring at the spring's relaxed length and then travels over a horizontal floor with a coefficient of kinetic friction _k-0.25. The frictional force stops the block in distance D-78 m. What is the original compression distance of the spring? Consider 9 - 9.8 m/s -No friction D (4) Select one: 0.25 m 1.2 m 0.78 m...
Physics I. Unit : potential energy and conservation of
energy.
In the figure, a 4.1 kg block slides along a track from one level to a higher level after passing through an intermediate valley. The track is frictionless until the block reached the higher level. There a frictional force stops the block in a distance d. The block's initial speed is v_0 = 6.3 m/s, the height difference is h = 1.1 m, and mu_k = 0.621. Find d.
Question 3 In the figure, a block is accelerated from rest by a compressed spring and, after leaving the spring, encounters a frictional force from the floor that eventually stops it in distance D. -No friction- D The spring constant is k = 600 N/m and the initial compression of the spring is d = 0.0200 m. How much energy is transferred to thermal energy of the block and track? AE =
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