Best Astrophotography Cameras 2026

The Celestron NexYZ is the simplest way to photograph the Moon and planets: clip your phone to an eyepiece, adjust three alignment screws, press the wireless shutter button, and save images to your phone. No USB cables, no software, no learning curve. Works with any eyepiece you own and any smartphone made in the last decade.

The 3-axis adjustment means you can centre the phone's camera precisely over the eyepiece exit pupil — the critical step in phone-eyepiece astrophotography. Get this right and you capture sharp, detailed Moon craters and Jupiter's belts. Get it wrong and you get vignetting (dark edges). The NexYZ removes the trial-and-error.

The downsides are obvious: you're limited by your phone's sensor and lens. A modern smartphone has a fine sensor, but it's still optimised for general photography, not astronomy. Long exposures create hot pixels. Low-light performance is noisy. But for £40, it's hard to complain.

The Svbony SV105 replaces your eyepiece — insert the camera's 1.25" barrel into your focuser and you're capturing video instead of looking through the scope. Hook it up to a laptop with a USB cable, run free software (SharpCap, Firefly or AutoStakkert), and record videos of Jupiter, Saturn, or the Moon.

Here's the key: you then stack the best 200 frames from a 2000-frame video, aligning each one on the same reference point. This technique, called "lucky imaging," eliminates turbulence and sharpens detail you'd never see by eye. The result is stunning — planetary detail often exceeds what a 6" telescope can show visually.

The trade-off is the workflow. Instead of point-and-shoot, you're recording video, processing with free software (which takes time to learn), and producing stacked images. It's accessible but not passive. Many beginners find it addictive once they see their first stacked Jupiter image.

The ZWO ASI120MC-S is the planetary camera that the imaging community standardised on. If you search "planetary camera" in any astronomy forum, this is the model that appears most. For good reason: excellent sensor, fast USB 3.0 connection, and compatibility with all major imaging software (SharpCap, FireCapture, Siril, etc.).

The USB 3.0 connection is crucial — at 145 fps you can capture 2000 frames in 15 seconds, giving you enough material for genuinely sharp stacked images. The sensor is Sony-built and proven in thousands of rigs. If you read the community feedback, owners rave about the quality for the price.

At £150 it's a step up from the Svbony SV105, but not a huge one. The difference is reliability and speed. The Svbony will do the job; the ASI120MC-S does it faster and with less faffing about. This is the scope you keep for years — it also works as an autoguider for DSLR astrophotography, so it has a dual role.

The Canon EOS 2000D is the DSLR every astrophotography tutorial uses. Why? Because at £450 it's cheap enough for beginners to justify, capable enough for serious work, and popular enough that you can find firmware mods, community support, and three dozen blog posts showing exactly how to use it.

You remove the lens (which you never use for astronomy), fit a T-ring adapter, and either point it at the sky through a telescope (prime focus) or on a star tracker or equatorial mount pointed at the Milky Way (wide-field). The 24MP APS-C sensor captures stunning nightscape panoramas and, with stacking software, impressive deep-sky images of nebulae and galaxies.

The trade-offs: Canon modifies the infrared filter in the DSLRs, which makes it less sensitive to hydrogen-alpha light (the light emission from nebulae). You can buy modified versions, but they're pricier. Also, the 2000D has a 30-second maximum exposure without an external remote — not a problem for the Milky Way, but limits some deep-sky workflows.

The ZWO ASI294MC Pro is the camera that serious hobbyist astrophotographers use for deep-sky imaging. The thermoelectric (TEC) cooler drops the sensor to −40°C (or more) below ambient temperature, which dramatically reduces thermal noise (the grainy mess that appears in long exposures). Cooled astrophotography is the step into "proper" deep-sky work.

The large 4/3" sensor captures an impressive field of view through a typical scope. The 9.3MP resolution is lower than a DSLR, but that's by design — bigger pixels are more forgiving of atmospheric seeing and optical imperfections. Long 15–30 minute exposures at high gain produce clean, detailed images of distant galaxies and nebulae.

But this camera requires infrastructure: a proper equatorial mount with accurate tracking (to avoid star trails in 30-minute exposures), a dedicated observatory-grade 12V power supply, and experience with image stacking software (Siril, PixInsight, Astro Pixel Processor). It's not a casual buy.