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Angelina_Jolie [31]
3 years ago
12

What is the station's orbital speed? the radius of earth is 6.37×106m, its mass is 5.98×1024kg.

Physics
2 answers:
Zielflug [23.3K]3 years ago
5 0

The station's orbital speed is about 7.69 × 10³ m/s

\texttt{ }

<h3>Further explanation</h3>

<u>Complete Question:</u>

<em>The International Space Station is in a 230-mile-high orbit.</em>

<em>What is the station's orbital speed? The radius of Earth is 6.37×10⁶ m, its mass is 5.98×10²⁴ kg</em>

<u>Given:</u>

height of the station = h = 230 miles = 3.70 × 10⁵ m

mass of the earth = M = 5.98 × 10²⁴ kg

radius of the earth = R = 6.37 × 10⁶ m

<u>Unknown:</u>

Orbital Speed of the station = v = ?

<u>Solution:</u>

<em>We will use this following formula to find the orbital speed:</em>

F = ma

G \frac{ Mm}{(R+h)^2}=m v^2 \div (R+h)

G \frac{ M}{R+h} = v^2

v = \sqrt{ G \frac{M}{R+h}}

v = \sqrt{ 6.67 \times 10^{-11} \frac{5.98 \times 10^{24}}{6.37 \times 10^6 + 3.70 \times 10^5}}

v = 7.69 \times 10^3 \texttt{ m/s}

\texttt{ }

<h3>Learn more</h3>
  • Impacts of Gravity : brainly.com/question/5330244
  • Effect of Earth’s Gravity on Objects : brainly.com/question/8844454
  • The Acceleration Due To Gravity : brainly.com/question/4189441

\texttt{ }

<h3>Answer details</h3>

Grade: High School

Subject: Physics

Chapter: Circular Motion

\texttt{ }

Keywords: Gravity , Unit , Magnitude , Attraction , Distance , Mass , Newton , Law , Gravitational , Constant

Paha777 [63]3 years ago
3 0

Answer:

v_o=2503.08\frac{m}{s}

Explanation:

Orbital velocity is the speed that a body that orbits around another body must have, for its orbit to be stable. For orbits with small eccentricity and when one of the masses is almost negligible compared to the other mass, like in this case, the orbital speed is given by:

v_o=\sqrt{\frac{GM}{r}}

Where M is the greater mass around which this negligible body is orbiting, r is the radius of the greater mass and G is the universal gravitational constant. So:

v_o=\sqrt{\frac{6.674*10^{-11}\frac{m^3}{kg\cdot s^2}(5.98*10^{24}kg)}{6.37*10^6m}}\\v_o=2503.08\frac{m}{s}

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eduard

Answer:

= 2.33

Explanation:

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n1sin i = n2sin r ,

where n1 is refractive index of the medium in which incident ray is travelling, n2 is the refractive index of the medium in which refracted ray is travelling,

i is angle of incidence,

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Given that,

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7 0
3 years ago
Before the experiment, the total momentum of the system is 2.5 kg m/s to the right and the kinetic energy is 5J. After the exper
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Answer:

Option (b) is correct.

Explanation:

Elastic collision is defined as a collision where the kinetic energy of the system remains same. Both linear momentum and kinetic energy are conserved in case of an elastic collision.

Inelastic collision is defined as a collision where kinetic energy of the system is not conserved whereas the linear momentum is conserved. This loss of kinetic energy may due to the conversion to thermal energy or sound energy or may be due to the deformation of the materials colliding with each other.

As given in the problem, before the collision, total momentum of the system is 2.5~Kg~m~s^{-1} and the kinetic energy is 5~J. After the collision, the total momentum of the system is  2.5~Kg~m~s^{-1}, but the kinetic energy is reduced to 4~J. So some amount of kinetic energy is lost during the collision.

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5 0
3 years ago
If a student flicks a stationary 0.1 kg ball with 5N of force for 0.1 seconds. What is its final
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5m/s

Explanation:

Given parameters:

Mass of ball = 0.1kg

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time taken = 0.1s

Unknown:

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  Force = mass x acceleration      equation 1

Acceleration =

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  T is the time taken

 U = O since it is a stationary body;

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  F = m x \frac{V}{T}

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learn more:

Newton's laws brainly.com/question/11411375

#learnwithBrainly

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A Ferris wheel has a diameter of 60 m and a period of rotation of 70 s. A passenger weighs 500 N. What is her apparent weight at
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Answer:

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Hopefully this helps.

8 0
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to 10 Hz. Superimposed on this signal is 60-Hz noise with an amplitude of 0.1 V. It is desired to attenuate the 60-Hz signal to
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Answer:

G \sqrt{1 +(\frac{f}{f_c})^{2n}} = 1

If we square both sides we got:

G^2 (1+\frac{f}{f_c})^{2n}= 1

We divide both sides by G^2 and we got:

(1+\frac{f}{f_c})^{2n} = \frac{1}{G^2}

Now we can apply log on both sides and we got:

2n ln(1+\frac{f}{f_c}) = ln (\frac{1}{G^2})

And solving for n we got:

n = \frac{ ln (\frac{1}{G^2})}{2ln(1+\frac{f}{f_c})}

And replacing we got:

n = \frac{ln (\frac{1}{0.1^2})}{2ln(1+\frac{60}{10})}

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Explanation:

For this case we can use the formula for the Butterworth filter gain given by:

[tec] G = \frac{1}{\sqrt{1 +(\frac{f}{f_c})^{2n}}}[/tex]

Where:

G represent the transfer function and we want that G =0.1 since the desired signal is less than 10% of it's value

f_c = 10 Hz represent the corner frequency

f= 60 Hz represent the original frequency

n represent the filter order and that's the variable that we need to find

G \sqrt{1 +(\frac{f}{f_c})^{2n}} = 1

If we square both sides we got:

G^2 (1+\frac{f}{f_c})^{2n}= 1

We divide both sides by G^2 and we got:

(1+\frac{f}{f_c})^{2n} = \frac{1}{G^2}

Now we can apply log on both sides and we got:

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And replacing we got:

n = \frac{ln (\frac{1}{0.1^2})}{2ln(1+\frac{60}{10})}

n = \frac{4.60517}{3.8918}=1.18

And since n needs to be an integer the correct answer would be n=2 for the filter order.

7 0
3 years ago
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