Blazar S5 0014+81
Cepheus • 22 billion light-years from Earth
🔭
Askar 130PHQ
📷
ZWO 2600MC Pro
🌃
Bortle 8
⏱️
2 hours
🗓️
March 2026

Overview
Blazar S5 0014+81 is one of the most distant objects that can realistically be photographed with amateur astrophotography equipment. Located in the constellation Cepheus, this quasar has a redshift of z = 3.366, meaning the light recorded in my image has been travelling for approximately 11.6 billion years.
Because the universe has been expanding during that entire time, S5 0014+81 is now about 22 billion light-years away.
Imaging this object from a Bortle 8 city demonstrates how modern astro cameras and precision optics make it possible to capture light emitted when the universe was less than 2.2 billion years old, even through thick light pollution.
Background
This isn’t my usual kind of imaging target. I normally prefer sweeping nebulae or dramatic spiral galaxies. From a city location, however, those objects demand long integration times — and recent weather has made long, uninterrupted sessions a distant memory!
That pushed me toward objects that are relatively bright compared to faint nebulosity, but scientifically interesting enough to justify the effort. That search led me to S5 0014+81, a blazar in Cepheus.
To locate it, I used the Custom Object function in my ASIAIR and entered the following J2000 coordinates:
RA: 0h 17m 8s
Dec: +81° 35′ 8″

After plate solving, the mount centred the target precisely. The total integration time in this image is just two hours, dramatically shorter than my usual deep-sky projects.
Science
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Objects in this field 1 object
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- S5 0014+81
- BlazarAlso catalogued as QSO J0017+8135
- A distant blazar that appears as a faint point source in this photograph.
About the labels and credits
Positions and outlines are calculated from a plate solution of this photograph. Outlines are catalogue guides and may not follow every visible filament. Additional catalogue objects may be faint or indistinct in this exposure.
The S5 0014+81 marker uses SIMBAD coordinates. The small circle locates the point source and does not represent its physical size.
Plate solving and annotation data: SkySolver, by Dominik Sito. Stars: Gaia DR3 and Hipparcos (ESA). Deep-sky data: OpenNGC © Mattia Verga (CC BY-SA 4.0), SIMBAD and VizieR (CDS). Names: Wikipedia (CC BY-SA 4.0) and IAU WGSN. Catalogue overlay adaptations, including styling and selected display names, are shared under CC BY-SA 4.0. Photograph © Lee Pullen.
S5 0014+81 is classified as a blazar, which is a subtype of quasar. This is a supermassive black hole at the centre of a galaxy. As matter spirals inward, it forms an accretion disk heated to extreme temperatures, producing enormous luminosity across the electromagnetic spectrum. What makes S5 0014+81 a blazar rather than a regular quasar is its orientation in space. It’s blasting out jets (narrow beams of particles accelerated to velocities close to the speed of light), and one of these is pointed almost directly toward Earth. This alignment makes it a lot brighter to us than if it were pointing in a different direction. In fact, it’s more than 25,000 times as luminous as every star in our Milky Way Galaxy combined! The fact that it looks like a faint dot is just because it’s unfathomably far away.
The light in my photo has been travelling for approximately 11.6 billion years, and during that time the universe has also been expanding, meaning S5 0014+81 is now 22 billion light-years from Earth. It’s among the most distant objects possible to see. However, thanks to those jets shining right at us, it’s just about possible to glimpse S5 0014+81 through all of Bristol’s light pollution even in a single 2-minute subframe.

S5 0014+81 is so far away, we’re observing it during an era when galaxies were still assembling. In fact, the universe was only around 2.2 billion years old, which is roughly 16% of its current age. So, S5 0014+81 is one of the most energetic and distant phenomena accessible to astronomers, and capturing its light is effectively recording radiation emitted when the universe was still in its formative stages. Mind-blowing stuff!
Imaging details
- Total exposure
- 2 hours
- Dates captured
- 2-3 March 2026 (one night)
- Location and sky
- Bristol, UK (Bortle 8)
Equipment and software
- Telescope
- Askar 130PHQ Flatfield Astrograph
- Camera
- ZWO ASI 2600MC Pro
- Mount
- StellarDrive X 6R PRO
- Guiding
- Askar M54 Off-Axis Guider and ZWO ASI 220MM Mini
- Control
- ASIAIR Plus
- Software
- PixInsight, Lightroom
- Image by
- Lee Pullen
Kit list
This is the equipment I used to capture the image.
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Telescope: Askar 130PHQ
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Camera: ZWO ASI 2600MC Pro
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Mount: StellarDrive X 6R PRO
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Rebuilt into a StellarDrive X 6R PRO by DarkFrame Optics.

Askar M54 Off-Axis Guider
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ZWO ASI 220MM Mini
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Control: ASIAIR Plus
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Filter: Optolong L-Quad Enhance
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Seestar S50 image
I tried using my Seestar S50 telescope to photograph S5 0014+81 from my Bortle 8 city centre. I collected 113 minutes of data, and there’s a slight brightening where it should be, but to be honest it’s not conclusive. If you want to image this Blazar from a city using your own Seestar, plan for a longer integration time.

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