<span>The primary factor behind these currents is the </span>variability in the density of ocean waters.
Answer:
R₂ / R₁ = D / L
Explanation:
The resistance for a metal can be calculated by
R = ρ L / A
Where ρ indicates the resistivity of aluminum, L is the resistance's length, and A indicates the cross-sectional area
We use this formula for both configurations
For small face measurements (W x W)
The length is
L = W
Area
A = W W = W²
R₁ = ρ W / W² = ρ / W
For larger face measurements (D x L)
Length L = D= 2W
Area A = W L
R₂ = ρ D / WL = ρ 2W / W L = 2 ρ/L
From this, we find the relation to be
R₂ / R₁ = 2W²/L
The masses of particle A, B, and C are given, with all three particles aligned linearly. The distances between them are noted. The gravitational forces are attractive, compounding when acting in the same direction. The effects on each particle are formulated based on their distances.
Response:R=1607556m
θ=180degrees
Clarification:
d1=74.8m
d2=160.7km=160.7km*1000
d2=160700m
d3=80m
d4=198.1m
Utilizing an analytical approach:
Rx=-(160700+75*cos(41.8))= -160755.9m
Ry= -(74.8+75sin(41.8))-198.1=73m
Magnitude, R:
R=√Rx+Ry
R=√160755.9^2+20^2=160755.916
R=160756m
Direction,θ:
θ=arctan(Rx/Ry)
θ=arctan(-73/160755.9)
θ=-7.9256*10^-6
It is worth noting that since θ is in the second quadrant, 180 is added
θ=180-7.9256*10^6=180degrees
