No telescope? No problem! You can still shoot deep-sky astrophotography images like a pro.

What can you shoot without a telescope?
The short answer: almost anything! Remember, a telescope is just a big (huge) lens. When shooting astrophotography without a telescope, you are only limited by the magnification of the lens you are choosing. Luckily, the number of available targets worth shooting with just a standard camera lens is huge!
1 Gather your equipment
Camera
Your normal DSLR will do just fine! It always helps to have one that has been IR modified (replacement or removal of the stock standard infrared filter) so you can capture that beautiful red hydrogen alpha (Ha) that is the stuff of most emission nebulae. Regardless — this is NOT a necessity.
Another choice, if you want to up your game, is an astronomical cooled CCD camera. These are definitely the stuff of the best astrophotography photographs out there, but it’s big step from the standard DSLR methods.

Lens
This is where it’s easy — almost any good-quality lens will do. You are going to be able to shoot very long exposures, only limited by the sky conditions and your mount’s sky-tracking quality, so even a quality f/4 lens will do just fine. Fast is nice, but not required.
Tracked wide-field images can look amazing with lenses from the 24-50mm range. And a zoom lens, anywhere from 100mm-300mm can work wonderfully with nebula and even large galaxies, like Andromeda (M31).
Read our tutorial on how to use the free application Stellarium to choose the perfect focal length for your target!

Tracking mount
Some of the best advice for a beginner astrophotographer is to buy the best mount your money can buy, and get the telescope later.
That being said, if you plan to travel a lot and need something small, or if you only have aspirations for DSLR and camera lens astrophotography, then a smaller budget mount can work wonders for you.
For larger mounts, we can easily recommend the Celestron Advanced VX mount. It will hold far more than just a camera, so when you get a telescope, chances are it will handle it just fine. When you’re ready to upgrade and add the telescope, check the payload capacity of your mount to ensure it can accommodate it.
Some of the smaller recommended mounts that can be used on standard camera tripods are the SkyWatcher Star Adventurer, iOptron SkyTracker, Vixen Polarie, and the Astrotrac. These are great for travel portability and quick setup.
Once properly polar aligned, they can all offer several minutes of accurate tracking to keep the stars in your images round. Usually exposure times of around 3-5 minutes are possible depending on the weight of your camera and lens, and setup. Most often this is more than enough time to capture your target.
Tripod
As with any astrophotography equipment, you’ll need a stable, heavy-duty tripod. You are going to be shooting very long exposures, so the slightest movement will ruin the photo and cost you minutes of time. Luckily, most of the smaller mounts like the SkyWatcher Star Adventurer, iOptron SkyTracker, Vixen Polarie, and the Astrotrac can be used on conventional camera tripods. Most of the larger mounts like the Celestron Advanced VX will come with their own tripods.
The keys to getting it right are stable legs, heavy weight, and keeping it low. Try and keep the tripod legs as short as you can cope with to minimize risk. If the tripod doesn’t have a lot of weight by itself, add weight by hanging something heavy from it. One of the things I often do when traveling is hang my camera bag with rocks in it from the center column of the tripod. Heavy is stable!
Optional: autoguiding (advanced)
Depending on the mount you choose, you may be able to also set up an autoguiding interface for increased quality and longer exposures.
This requires a special input port on the mount and often, a connection to a computer to control and correct your mount. The autoguiding camera and lens (telescope) will add to the overall weight of your system, so you’ll need a beefier mount to keep things on track. Once a successful autoguiding system is in place, however, the ability to capture far longer exposures is enabled. 10-30 minute exposures (or more) are possible using systems like these.
Most often, an autoguiding system is best utilized for use with cooled CCD cameras, as DSLR cameras get too noisy as the sensor heats up after a few minutes.
Other equipment
Some of the following will be required depending on what you choose for a setup:
- Remote shutter release cable
- Computer (for autoguiding and/or tethered image capture)
- Power source for the mount
- Extra camera batteries or external camera power (recommended)
2 Pick a target
Not unlike using a telescope, choosing your target is going to be highly focal length dependent. How long your lens is and what you can fit with good detail in the field of view will dictate what your best choices for targets will be.
A large galaxy like Andromeda (M31), around 8 full moons in apparent width, will look great in a 200mm lens. Pleiades (M45), the Carina nebula, and other large objects also work well at 200mm with a full-frame camera, and even better with a crop frame DSLR.
A great way to pick a target that fits perfectly within the field of view of your lens and camera choice is with the free application, Stellarium. Read our tutorial about how to use it!
![]() |
![]() |
Luckily you’ll have a lot of options with a typical telephoto zoom lens. For example, these were shot at 135mm on a 70-200mm lens and a full-frame Canon 5D.
![]() |
![]() |
Even shooting wide at 24-50mm can give you some beautiful results!

3 Set up your mount and tripod
Mount setup is the key to getting round stars and sharp details for each photo. Take the time to do it properly!
Balance and leveling
For accurate tracking of the stars, the tripod and mount will need to be as perfectly level as possible. Many will have a built-in spirit level to help, but remember to not always trust them without a sanity check.
Some mounts don’t have a counterweight system, like the iOptron SkyTracker and the Vixen Polarie. If this is the case then you obviously don’t have to worry about it.
For the mounts that can handle more weight, proper balance is important for the motor of the tracking mount to run smoothly and move with the stars accurately. Be sure to set the counterweight on the RA axis correctly so that the camera moves easily in both rotational directions. It is sometimes necessary to slightly set the weight balance a bit heavier in the up direction of the motion to keep even stress on the gears, but not likely for lightweight camera applications like this.
Polar alignment
Ensuring that the polar axis of the mount is as accurate as possible, it’s a make-or-break step to success with a tracking mount. No matter how good your balance, motor speed, and mount quality is, if you don’t take time to polar align, you’ll get egg-shaped stars at best, or ugly trails at worst. Once polar aligned, you’re going to trust that your mount is pointed at the celestial pole so when you turn on the motor(s), it will track as perfectly as possible to maximize your exposure length.
If you’re using an autoguiding system, check out this tutorial detailing how to easily polar align with PhD!
4 Capture the data
At a minimum, you’ll need to use a remote shutter release cable with your camera in bulb mode. For best results, attach the camera to a computer (or mobile device) for remote shooting and camera control.
DSLR settings
ISO
Now that you are able to shoot for longer duration without the stars trailing, you can dial the ISO speed down to keep the noise to a minimum. Anywhere from 400-800 is just fine, and a good starting point.
Aperture
Depending on the quality of the lens you are using, it is always recommended to stop it down bit from wide open. This will make your stars sharper, and the image will be of higher quality in general.
For example, if you don’t like what you see from a long exposure (zoom in all the way!) at f/2.8, drop it down to f/3.2 or even f/4. Testing your lens is the best way to decide what it can handle!
Exposure length
If you’re properly balanced and polar aligned, and not using an autoguider, you should expect to be able to achieve photos with round stars at up to 5 minutes with wider lenses (24-50mm) and around 2-3 minutes with longer focal lengths (100-300mm). Your mileage may vary with this, depending on your imaging setup and tracking quality, so again some testing will be required!
Other settings
Shoot raw, as always!
Set the color temperature the same as you would for wide-field astrophotography, but remember it can be changed in post when you shoot raw. See this article for tips on choosing the right white balance.
Turn off long-exposure noise reduction and other in-camera noise helper functions.
Disable all image stabilization features of your lens.
How many frames to shoot
The more the better! Capture as many light frames (images of your target) as possible if things are going right. However, in addition to the light frames, you’ll need to save some time to shoot darks — so while the ambient temperature is still stable, don’t forget to set aside time for around 25-30 dark frames at the end of your imaging session. Flat frames and bias frames can be made later, after you’ve gotten some sleep, if you’re careful.
Don’t think calibration frames matter? Read this article!

5 Process your images
Once your data is captured, it is processed using the exact same method used for telescopic deep-sky images.
Calibration frames
When using a DSLR and standard lens for deep-sky imaging, you are still much better off to create calibration frames for the best results. Shooting darks, flats, and bias will exceptionally increase the quality of your final image. See our tutorial on how to easily shoot flat frames!
Stacking
You’ll need to combine your captured images using a specialized computer program. This drastically increases the overall quality by reducing noise and boosting faint details.
Not sure if stacking is worth it? See this article! If you want to give it a try and practice on some my data, I’ve got that waiting for you as well, right here.
I use the iOptron Star Tracker on a MeFoto tripod and have had good luck with it so far, as you have said polar alignment is critical…with a good polar alignment I have had excellent results with 2 minute exposures up to 200mm, the stars are still pinpoint so im sure you could do longer exposures if needed. Anyone on a budget might want to go this route, I got the iOptron for $299 and the tripod with a good ball head for $189. … I also found that a good ball head is a must especially when shooting nearly vertical….hope this is of help to someone….clear sky’s!!!!
Thanks for the first-hand advice and experience, Rodney!
Cheers,
Cory
No problem, I hope it helps someone get into astrophotography, and thanks to you Cory for your many informative articles..clear sky’s!
Hi, this product iOptron 3305A SkyTracker Ball Head http://www.amazon.com/gp/product/B00OTZWJWY/ref=nav_timeline_asin?ie=UTF8&psc=1 has an internal motor who track the desire celestial object?
No, this is just a ball head that iOptron sells, the product that actually tracks for you is the ioptron 3302B or 3302W
Hi Elizaul,
If it is the iOptron tracker you want, check this out: http://amzn.to/1YYhrO0
Cheers,
Cory
Another +1 for the iOptron Skytracker. I’m out with it tonight should it stay clear! Nice article, Cory.
Thank you for the wonderful article!
Will you be posting a review of your experience with the Star Adventurer. It is the first time that I see someone using guiding with this mount. I am sure there are lots of people interested in hearing about your experience!
Hi Stephan,
Thanks for your comments! Yes, I will be doing a review of the Star Adventurer, as I found it to work very well. I just have a little more testing to do!
Cheers,
Cory
That is awesome! I can’t wait to read about your experience!
Hi Cory. I’m thinking about deep sky photography witch some telephoto lens and I’m wondering about sigma 70-300mm f4-5.6 AOP it’s quite chip lens but are you think it’s gona be enough to have some decent photos? As far as I know 80mm scope with f/6 has about 480mm f lenght and most of the people dissuade scopes smaller then 80mm on account of poor observation quality so 300mm lens won’t be too small to catch some nebulas or bigger galaxies as Andromeda? Sorry if question sounds ridiculous but I’m just a begginier. Thanks
Hi Ralph,
There’s no such thing as a bad question!
300mm at f/4 will be just fine for some decent AP. You will need to make sure and use a proper tracking mount, however. 300mm is definitely enough to get Andromeda! Best of luck.
Cheers,
Cory
I have a Star Adventurer and may I know how do you mount the auto guider to the bracket? Did u have to use a ball head to do that? I’m thinking that this might not be a firm attachment and therefore not be able to guide well?
HJ
Hi HJ,
I’ve used a strong ball head mount in the past, yes. It works but it’s not perfect. A better solution would be to attach the guide scope right next to the camera, or even ON the camera, if you can. However, it has definitely worked for us with a ball head. Just make sure everything is EXTREMELY tight and you don’t have any cable tension issues.
See here for a photo of what I did one time: https://www.instagram.com/p/BE_0NDqnGEs/
Cheers,
Cory
Thanks for sharing Cory!
HJ
Hello guys,
I have ordered the new mount iOptron Skyguider Pro, and planning to get Nikon D750 and Tamron 150-600mm F/5-6.3 (the new generation). my interests are only about deep sky AP
what do you think about this combination?
Hi there,
I can’t say I’ve used the iOptron Skyguider Pro yet, but I’ve heard good things. The only thing I’d worry about is weight and tracking accuracy, but I would bet you’d be able to get away with long enough exposures of a minute or two if your balance and polar alignment is good enough. As far as deep-sky with that lens, 600mm at f/6.3 is OK, but you probably won’t be able to track accurately enough with a small mount at that focal length. 200mm-400mm would most likely be your max focal length for a good long-exposure tracked image.
Best of luck!
Cheers,
Cory
Hi Cory,
I just started my astrophotography with a canon dslr, tokina 11-16mm, canon 50 mm and canon 70 200 mm. so far i was taking milky way images with 11 – 16 mm and some faint shots of orion nebula and andromeda with 50 mm. now i am planning to get a tracker. I dont want a telescope now so I prefer a portable tracker. which one you can suggest? ioptron or start watcher star adventurer? I saw some instructional videos in youtube, my doubts are
1. After polar alignment, the tracker should always face to the polaris. correct? we cannot touch the tripod or tracker till the session is complete?
2. some videos say we should set the latitude in the tracker. how we find the latitude?
3.Can we remove the infrared filter on the camera sensor by ourselves? or is it a professional’s job?
Thanks in advance
Rajesh
Hi Rajesh,
As far as which tracker to choose, the iOptron and Sky Watcher are both great mounts. We personally use a Sky Watcher Star Adventurer with good results.
To specifically answer your questions:
1. Yes, once you have aligned the tracker towards the celestial pole, you cannot move it or it will need to be aligned again. That is true for any tracking mount, big or small.
2. For the first rough alignment, you need to set the latitude of the mount to the latitude from where you are shooting. The best way to find that out is with a GPS system, phone compass app, or a mapping application such as Google Maps.
3. If you aren’t experienced at removing the IR filter on a DSLR, my advice is to have it done by a professional. The IR filter will need to be replaced with one that will allow the hydrogen alpha frequency of light through.
Best of luck!
Cheers,
Cory
How can you get solid deep space photographs with something as wide as 24mm? Would you not have to crop so much that it would ruin the quality? Am I missing something?
Hi Stephen,
Targets requiring high-magnification would not be good with a 24mm lens, you are obviously limited as to what objects will work nicely with an FOV allowed by that. However, tracked and stacked images of the Milky Way core and wide-field areas are amazing!
Cheers,
Cory