Distance to space as a function of angle

Simply plug in the desired angle and solve for D. In summary, the distance to space (D) as a function of theta is given by the equation D = 100/sin(theta). To find the distance for a specific angle, simply plug in the angle and solve for D.
  • #1
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We want to find the distance to space as a function of theta from zenith to 90 degrees at the horizon. I assumed space began at about 100km. For zenith, it's really easy, since the distance to space is just 100km. We know the distance to space based off of geometry for looking horizontally, too. However, I'm stuck on trying to determine the distance to space as a function of angle, where 0 degrees is straight up and 90 at the horizon.

We've tried law of cosines to no avail and want to be done with this final question. Our attempts have been seemingly too complex for what I think is a simple solution. Any ideas on where to go?
 
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  • #2
The best way to approach this problem is by using the law of sines. We know that the angle at the zenith is 0 degrees and the angle at the horizon is 90 degrees. From the law of sines, we can determine that the distance to space (D) is equal to 100km divided by the sine of theta: D = 100/sin(theta). This equation will give you the distance to space as a function of theta from zenith to 90 degrees at the horizon.
 

1. What is the distance to space?

The distance to space is not a fixed value, as it can vary depending on several factors such as the angle of ascent, the location of the launch site, and the type of spacecraft being used. However, the generally accepted boundary of space is 100 kilometers (62 miles) above sea level, also known as the Kármán line.

2. How does the angle of ascent affect the distance to space?

The angle of ascent plays a crucial role in determining the distance to space. The steeper the angle, the shorter the distance to space will be. This is because a steeper angle allows the spacecraft to gain altitude more quickly and reach the boundary of space in a shorter amount of time.

3. Is the distance to space the same for all launch sites?

No, the distance to space can vary depending on the location of the launch site. For example, launch sites near the equator have a slight advantage in reaching space compared to launch sites closer to the poles. This is due to the Earth's rotation, which provides an extra boost to the spacecraft's velocity.

4. Does the type of spacecraft affect the distance to space?

Yes, the type of spacecraft being used can impact the distance to space. For instance, a rocket-powered spacecraft can reach the boundary of space faster than a spaceplane due to its more powerful engines. Additionally, the weight and design of the spacecraft can also affect the distance it can travel into space.

5. How far into space can a spacecraft travel based on its angle?

The distance a spacecraft can travel into space is not solely dependent on its angle of ascent. Other factors such as the spacecraft's design, propulsion system, and the amount of fuel it carries also play a significant role. However, in theory, a spacecraft launched at a 90-degree angle could travel infinitely far into space, assuming it has enough fuel and resources to sustain its journey.

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