CALC (a) Explain why in a gas of N molecules, the number of molecules having speeds in the finite interval υ to υ + Δ υ is Δ N = ∫ υ υ + Δ υ f ( υ ) d υ . (b) If Δ υ is small, then f ( υ ) is approximately constant over the interval and Δ N ≈ Nf ( υ )Δ υ . For oxygen gas (O 2 , molar mass 32.0 g/mol) at T = 300 K, use this approximation to calculate the number of molecules with speeds within Δ υ = 20 m/s of υ mp . Express your answer as a multiple of N . (c) Repeat part (b) for speeds within Δ υ = 20 m/s of 7 υ mp . (d) Repeat parts (b) and (c) for a temperature of 600 K. (e) Repeat parts (b) and (c) for a temperature of 150 K. (f) What do your results tell you about the shape of the distribution as a function of temperature? Do your conclusions agree with what is shown in Fig. 18.23?
CALC (a) Explain why in a gas of N molecules, the number of molecules having speeds in the finite interval υ to υ + Δ υ is Δ N = ∫ υ υ + Δ υ f ( υ ) d υ . (b) If Δ υ is small, then f ( υ ) is approximately constant over the interval and Δ N ≈ Nf ( υ )Δ υ . For oxygen gas (O 2 , molar mass 32.0 g/mol) at T = 300 K, use this approximation to calculate the number of molecules with speeds within Δ υ = 20 m/s of υ mp . Express your answer as a multiple of N . (c) Repeat part (b) for speeds within Δ υ = 20 m/s of 7 υ mp . (d) Repeat parts (b) and (c) for a temperature of 600 K. (e) Repeat parts (b) and (c) for a temperature of 150 K. (f) What do your results tell you about the shape of the distribution as a function of temperature? Do your conclusions agree with what is shown in Fig. 18.23?
CALC (a) Explain why in a gas of N molecules, the number of molecules having speeds in the finite interval υ to υ + Δυ is
Δ
N
=
∫
υ
υ
+
Δ
υ
f
(
υ
)
d
υ
. (b) If Δυ is small, then f(υ) is approximately constant over the interval and ΔN ≈ Nf(υ)Δυ. For oxygen gas (O2, molar mass 32.0 g/mol) at T = 300 K, use this approximation to calculate the number of molecules with speeds within Δυ = 20 m/s of υmp. Express your answer as a multiple of N. (c) Repeat part (b) for speeds within Δυ = 20 m/s of 7υmp. (d) Repeat parts (b) and (c) for a temperature of 600 K. (e) Repeat parts (b) and (c) for a temperature of 150 K. (f) What do your results tell you about the shape of the distribution as a function of temperature? Do your conclusions agree with what is shown in Fig. 18.23?
No chatgpt pls will upvote Already got wrong chatgpt answer
An electron and a proton are each accelerated through a potential difference of 21.0 million volts. Find the momentum (in MeV/c)
and the kinetic energy (in MeV) of each, and compare with the results of using the classical formulas.
Momentum (MeV/c)
relativistic
classical
electron
proton
Kinetic Energy (MeV)
Four capacitors are connected as shown in the figure below. (Let C = 20.0 µF.)
(a) Find the equivalent capacitance between points a and b.
µF
(b) Calculate the charge on each capacitor, taking ΔVab = 14.0 V.
20.0 µF capacitor
µC
6.00 µF capacitor
µC
3.00 µF capacitor
µC
capacitor C
µC
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