To solve this problem, Coulomb's law will be applied as follows:
F = k*q1*q2 / r^2 where:
F indicates the force magnitude between the charges
k is a constant = 9.00 * 10^9 N.m^2/C^2
q1 = <span>+2.4 × 10–8 C
q2 = </span><span>+1.8 × 10–6 C
r represents the distance separating the charges = </span><span>0.008 m
By substituting these values, we derive:
F = (9*10^9)(2.4*10^-8)(1.8*10^-6) / (0.008)^2 = 6.075, which rounds to 6.1 Newtons
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<span>The partial pressure of A = 1.06 atm and the partial pressure of B = 0.53 atm</span>
Answer:
10000 V
0.00225988700565 m²

Explanation:
E = Electric field = 
d = Distance = 2.5 mm
Q = Charge = 80 nC
= Permittivity of free space = 
The potential difference is calculated as

The potential difference across the plates amounts to 10000 V
Area is determined by

The area of each plate measures 0.00225988700565 m²
Capacitance is determined by

The capacitance is 
Answer: Tension = 47.8N, Δx = 11.5×
m.
Tension = 95.6N, Δx = 15.4×
m
Explanation: The speed of a wave on a string under tension can be determined using the following:

denotes tension (N)
μ refers to linear density (kg/m)
Calculating the velocity:


0.0935 m/s
Distance a pulse traveled in 1.23ms:


Δx = 11.5×
With a tension of 47.8N, the distance a pulse will cover is Δx = 11.5×
m.
When tension is doubled:



|v| = 0.1252 m/s
Distance in the same time:


15.4×
With the increased tension, it moves
15.4×
m
Power is defined as the speed at which work is performed on an object. Like all rates, power is measured in relation to time. It reflects how quickly a task is completed. Two identical tasks can be executed at varying speeds - one slower and the other faster. The equation P = Fv can be used, where P symbolizes power, F denotes force, and V represents average velocity. Calculating the average velocity gives us V = P/F, or V = (5.8 x 10^4 W) / (2.1 x 10^4 N), resulting in V = 2.8 m/s.