Answer:
Distance: 4.6 km Displacement= -0.2 km
Explanation:
The overall distance covered: 1.5 + 2.4 + 0.7 = 4.6 km
Displacement calculation: 1.5 - 2.4 + 0.7 = -0.2 km
The displacement could also simply be stated as 0.2 km depending on whether negative value is preferred.
Answer:
1.32.225 N/C, moving away from the point charge
2. 8.972*10^-12 C
3. the field is oriented away from the axon
Explanation:
The calculation for the electric field is illustrated below:
E = k*|q|/r²
Where:
E = electric field; k = 8.98755*10⁹ N*m²/C²; r = distance separating the field being measured from the point charge = 0.05 m; q = point charge
For a length of 0.100 m of the axon, the value of q is calculated as:
q = (5.6*10¹¹)*(+e)*(0.001)
+e = charge of an electron = 1.60217*10^-19 C
Therefore:
q = (5.6*10¹¹)*(1.60217*10^-19)*(0.0001) = 8.972*10^-12 C
Consequently:
E = (8.98755*10⁹)*(8.972*10^-12)/0.05² = 32.255 N/C
A positive point charge produces an electric field that radiates outward, while a negative point charge creates an electric field directed inward.
Answer:
The overall length of the spiral, designated as L, is calculated to be 5378.01 m
Explanation:
Provided information:
Inner radius R1=2.5 cm
and outer radius R2= 5.8 cm.
The thickness of the spiral winding is (d) =1.6 \mu m = 1.6x 10^{-6} m
The total length of the spiral can be computed as
= 5378.01 m
The solution leads to the conclusion that m1 = m2
For mass m1, the force balance in the y direction equals zero:
0 = T - m1*g
Rearranging gives:
m1*g = T
For mass m2, the force balance in the y direction equals zero:
0 = T - m2*g
Rearranging provides:
m2*g = T
Setting these two equal allows us to solve for m1:
m1*g = m2*g
= m1 = m2
Explanation:
The force acting on each individual mass pulls down while the tension created by the other mass exerts an upward force due to the operation of the pulley system, resulting in balanced forces on both masses.
