<p>Here is a render of what an observer might see near the edge of our galaxy. The "edge" itself being rather fuzzy, let's assume that we are in an area of the edge dense enough where a few occasional stars are still visible. (As far as we know, intergalactic space contains objects and stars, but so few that seeing even one naked-eye star in the sky there would be uncommon)</p>

<p>Looking at the sky towards the opposite side of the Milky Way, one could see the Magellanic Clouds, and a small quantity of naked-eye stars:</p>

<p><a href="https://i.sstatic.net/gbiXU.jpg" rel="nofollow noreferrer"><img src="https://i.sstatic.net/gbiXU.jpg" alt="enter image description here"></a></p>

<p>The Milky Way side of the sky would be interesting to look at:</p>

<p><a href="https://i.sstatic.net/KnFjf.jpg" rel="nofollow noreferrer"><img src="https://i.sstatic.net/KnFjf.jpg" alt="enter image description here"></a></p>

<p>Now, as interesting as these artistic renditions may be, there is very little that we know about actual objects in these regions. Seeing individual stars there is quasi-impossible from here; we have a general idea of how dense some regions of the galaxy are, but for the rendition part here, it is mostly procedural based on some general facts and statistics. </p>

<p>The software used for these renders is called Space Engine and contains all catalogued objects, and it procedurally generates objects to fill in the gaps based on what we know about space. </p>

CC BY-SA 4.0
2018-09-11T00:03:13.470Z
2018-09-11T00:03:13.470Z
FSimardGIS
<p>Let's say, for the sake of speculation, we acquire the technology necessary to travel to the outer edge of one of the spiral arms of our galaxy. We go to a star in this "outer rim" and land on a planet orbiting a star there. What would we see when our side of the planet is facing outward from the galaxy? (Assume no atmospheric interference.) The answer will, of course, depend on the galactic coordinates of the star we choose to visit. Provided a particular set of coordinates, how much do we know about what we could see with the naked eye or through some form of optical instrument? I'm more interested in our ability to answer the question, rather than the specific objects we'd see (although they're pretty interesting too). You're welcome to select an arbitrary but still useful and appropriate boundary as the edge of the spiral arm. </p>

CC BY-SA 4.0
2018-09-10T16:34:19.777Z
Depending on your location, you could see the Magellanic clouds, Andromeda, and perhaps a few faint naked-eye stars, depending on how far away you are. Star density decreases the further you are from the center and the plane of the galaxy. So the sky would be pretty empty in my opinion!
FSimardGIS
CC BY-SA 4.0
2018-09-10T20:03:54.083Z
@FSimardGIS Thanks, I'd love to know what a person would really see!
Alphecca
CC BY-SA 4.0
2018-09-12T03:07:40.010Z
If you're off the galactic plane, the centre of the milky way should look a fair bit brighter than it does to us, because of the lack of obscuring dust clouds.
Ingolifs
<galaxy><observational-astronomy><future>
What would stargazing be like at the edge of our galaxy?
Alphecca
# What would stargazing be like at the edge of our galaxy?

(Asked by: username_0 on 2018-09-10)

Let's say, for the sake of speculation, we acquire the technology necessary to travel to the outer edge of one of the spiral arms of our galaxy. We go to a star in this "outer rim" and land on a planet orbiting a star there. What would we see when our side of the planet is facing outward from the galaxy? (Assume no atmospheric interference.) The answer will, of course, depend on the galactic coordinates of the star we choose to visit. Provided a particular set of coordinates, how much do we know about what we could see with the naked eye or through some form of optical instrument? I'm more interested in our ability to answer the question, rather than the specific objects we'd see (although they're pretty interesting too). You're welcome to select an arbitrary but still useful and appropriate boundary as the edge of the spiral arm.

**Tags:** galaxy, observational-astronomy, future

> **Comments:**
> **username_1**: Depending on your location, you could see the Magellanic clouds, Andromeda, and perhaps a few faint naked-eye stars, depending on how far away you are. Star density decreases the further you are from the center and the plane of the galaxy. So the sky would be pretty empty in my opinion!  
> **username_0**: @username_1 Thanks, I'd love to know what a person would really see!  
> **username_2**: If you're off the galactic plane, the centre of the milky way should look a fair bit brighter than it does to us, because of the lack of obscuring dust clouds.  

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## 1 answers

### Answer by username_1 on 2018-09-11. Score: 2 | Accepted answer

Here is a render of what an observer might see near the edge of our galaxy. The "edge" itself being rather fuzzy, let's assume that we are in an area of the edge dense enough where a few occasional stars are still visible. (As far as we know, intergalactic space contains objects and stars, but so few that seeing even one naked-eye star in the sky there would be uncommon)

Looking at the sky towards the opposite side of the Milky Way, one could see the Magellanic Clouds, and a small quantity of naked-eye stars:

[![enter image description here](https://i.sstatic.net/gbiXU.jpg)](https://i.sstatic.net/gbiXU.jpg)

The Milky Way side of the sky would be interesting to look at:

[![enter image description here](https://i.sstatic.net/KnFjf.jpg)](https://i.sstatic.net/KnFjf.jpg)

Now, as interesting as these artistic renditions may be, there is very little that we know about actual objects in these regions. Seeing individual stars there is quasi-impossible from here; we have a general idea of how dense some regions of the galaxy are, but for the rendition part here, it is mostly procedural based on some general facts and statistics.

The software used for these renders is called Space Engine and contains all catalogued objects, and it procedurally generates objects to fill in the gaps based on what we know about space.


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