I think that the short answer to this question is to convert 300mph into metres per second, and then divide by 5 to get the average acceleration. Since 1g is, I think, 9.81 m/s^2 (nearly 10), dividing by 9.81 should give the number of gs in the acceleration.1 mile is 1760 yards which is 1760x3 feet which is 1760x3x12 inches.300 miles would be 300x1760x3x12 inches.1 inch is 2.54 cm.300 miles would be 2.54x300x1760x3x12 cm.300 miles would be 2.54x300x1760x3x12/100 m.Then do the number of seconds in an hour.I hope this helps ...
Makes the electron move in a certain direction which can be measured through Flemming's left hand rule.
Answer:
A) c₁ = m, c₂ = m/s
B) c₁ = m/s²
C) c₁ = m/s²
D) c₁ = m/s c₂ = °
E) c₁ = m/s , c₂ = /s
Explanation:
A) x = c₁ + c₂t
⇒m = m + (m/s)s (Only same units can be added)
⇒m = m
So, c₁ = m, c₂ = m/s
B) x = 0.5c₁t²
⇒m = 0.5 (m/s²)s²
⇒m = m
So, c₁ = m/s²
C) v² = 2c₁x
⇒m²/s² = 2 (m/s²)m
⇒m²/s² = m²/s²
So, c₁ = m/s²
D) x = c₁ cos(c₂)t
⇒m = (m/s) cos(°)s
⇒m = m
So, c₁ = m/s c₂ = °
E) v² = 2c₁v-(c₂x)²
⇒m²/s² = 2(m/s)(m/s)-(1/s²)(m²)
⇒m²/s² =m²/s²
So, c₁ = m/s , c₂ = /s
To solve this problem we will start by defining the relationship of the pitot tube and the value indicated in the pressure. We will take advantage of this relationship to obtain a ratio between the defined pressures and proceed to calculate the total and static pressure of the system through the correlation of pressure in isotropic systems. Finally we will perform this same procedure for pressure. Pitot tube measure the total pressure minus static pressure, then



Express the total pressure and static pressure ratio
![\frac{p_0}{p} = [1+\frac{\gamma-1}{2}M^2]^{\frac{\gamma}{\gamma-1}}](https://tex.z-dn.net/?f=%5Cfrac%7Bp_0%7D%7Bp%7D%20%3D%20%5B1%2B%5Cfrac%7B%5Cgamma-1%7D%7B2%7DM%5E2%5D%5E%7B%5Cfrac%7B%5Cgamma%7D%7B%5Cgamma-1%7D%7D)
![\frac{155}{p} +1 = [1+\frac{1.4-1}{2}(0.7)^2]^{\frac{1.4}{1.4-1}}](https://tex.z-dn.net/?f=%5Cfrac%7B155%7D%7Bp%7D%20%2B1%20%3D%20%5B1%2B%5Cfrac%7B1.4-1%7D%7B2%7D%280.7%29%5E2%5D%5E%7B%5Cfrac%7B1.4%7D%7B1.4-1%7D%7D)


Hence the static pressure is 400.4kPa
Express stagnation to static temperature ratio,



Therefore the stagnation temperature is 316.224K
Answer:
v₂ = 0.0529 [m/s]
Explanation:
To solve this problem we must use the principle of conservation of linear momentum, where momentum is conserved before or after launching the baseball. Momentum is defined as the product of mass by Velocity.

where:
P = lineal momentum [kg*m/s]
m = mass = 0.1 [kg]
v = velocity of the ball = 45 [m/s]
![P = 0.1*45\\P=4.5[kg*m/s]](https://tex.z-dn.net/?f=P%20%3D%200.1%2A45%5C%5CP%3D4.5%5Bkg%2Am%2Fs%5D)
Now when the catcher receives the ball it will carry the same momentum as when it was thrown.
![4.5=85*v_{2}\\v_{2}=0.0529[m/s]](https://tex.z-dn.net/?f=4.5%3D85%2Av_%7B2%7D%5C%5Cv_%7B2%7D%3D0.0529%5Bm%2Fs%5D)