Microscope Cameras for UK Research & Industry
What is a Microscope Camera?
A microscope camera is a digital imaging device that captures and displays images seen through a microscope, either on a computer or directly on a monitor. These cameras typically connect via a trinocular port using a tube lens, or, in some cases, through an eyepiece adapter. The resulting image closely replicates what is visible through the microscope’s eyepieces, making them ideal for capturing still images or recording video.
Microscope cameras are widely used across life sciences, industrial inspection, education, and research applications.
At Indigo Scientific, we offer a curated range of research-grade microscope cameras from leading manufacturers, with direct UK supply and support. Whether you need high-resolution imaging, fluorescence capabilities, or fast frame rates, our UK-based team ensures you get the right camera with expert technical assistance.
Types of Microscope Cameras
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USB Microscope Cameras – Connects to a PC or laptop for viewing, capture and often advanced processing.
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HDMI Microscope Cameras – For connecting directly to a monitor ideal for real time viewing, such as teaching environments or industrial applications.
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CMOS or CCD Sensors:
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CMOS microscope cameras are a modern, standard technology for imaging sensors, there are also cooled (CCMOS) and scientific (SCMOS) grades of these cameras
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CCD is being phased out and is generally less common but generally provides higher sensitivity, but at a cost.
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Monochrome vs Colour Cameras:
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Colour microscope cameras are generally used for general imaging
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Monochrome microscope cameras are used for fluorescence applications requiring better sensitivity
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Microscope Camera Models
Altair
Jenoptik Altair 12 megapixel back illuminated 1/1.75-inch colour microscope camera, ideal for educational microscopy imaging for teaching.
Axiocam 105 Colour
Zeiss Axiocam 105 5 megapixel 1/2.24 inch colour sensor, ideal for straight-forward capture in routine lab settings in bright samples.
Axiocam 305 Colour
Zeiss Axiocam 305 5 megapixel 2/3 inch colour microscope camera for routine and research imaging on compound, stereo and zoom optics.
Axiocam 705 Mono
Zeiss Axiocam 705 Monochrome 5 megapixel 2/3 inch microscope camera, ideal for fast fluorescence imaging at high resolution at up to 62 frames/s.
Axiocam 807 Colour
Zeiss Axiocam 807 Monochrome 7 Megapixel large format 1.1-inch sensor ideal for live cell imaging at up to 73 images per second.
Axiocam 820 Mono
Zeiss Axiocam 820 Monochrome large format 1.1-inch microscope camera featuring 86% quantum efficiency, recommended for demanding life science fluorescence.
Kapella
Jenoptik Kapella colour 2.3 megapixel 1/1.2-inch fluorescence microscope camera, featuring passive cooling ideal for low light and bright field imaging.
MIchrome 5 Pro
Tucsen MI Chrome 5 Pro colour 2/3 inch microscope camera, featuring a global shutter ideal for fluorescence applications.
Naos
Jenoptik Naos Colour full field 1-inch microscope camera featuring a 20 megapixel microscope camera ideal for life, materials, manufacturing and medical sciences.
Rigel
Jenoptik Rigel 1/1.2-inch 2.3 megapixel monochrome microscope camera with passive cooling ideal for fluorescence applications.
Arktur
Jenoptik Arktur 8 megapixel back illuminated 2/3-inch colour microscope camera, designed for life sciences and material/manufacturing applications. Ideal for high resolution 4K real time imaging requirements.
Axiocam 202 Mono
Zeiss Axiocam 202 monochrome 2-megapixel 1/1.23 inch HDMI microscope camera with USB interface for routine fluorescence documentation in real-time.
Axiocam 305 Mono
Zeiss Axiocam 305 5-megapixel 2/3-inch monochrome microscope camera for routine fluorescence imaging at up to 36 frames/s.
Axiocam 705 Pol
Zeiss Axiocam 705 Pol 5 megapixel 2/3-inch microscope camera for single shot polarization imaging.
Axiocam 807 Mono
Zeiss Axiocam 807 Colour 7 Megapixel large format 1.1-inch microscope camera ideal for large pathology and material samples.
Betria
Jenoptik Betria Monochrome 3 megaixel 1/1.75 inch fluorescence microscope camera for teaching educational fluorescence.
MIchrome 16
Tucsen MI Chrome 16 colour 1/1.2-inch microscope camera for high quality brightfield images.
MIchrome 6
Tucsen MI Chrome 6 colour 1/1.8-inch microscope camera for economic images with high-end features.
Polaris
Jenoptik Polaris monochrome 3.2 megapixels 1/1.2-inch fluorescence microscope camera, ideal for the most demanding low light scenarios with 7.2-micron pixel size.
Subra
Jenoptik Subra 1/1.2-inch 2.3 megapixel colour fluorescence microscope camera with a global shutter, for colour fluorescence applications.
Avior
Jenoptik Avior 8.3 megapixel back illuminated 1/1.2 inch colour microscope camera, ideal for live 4K image output in academic scenarios.
Axiocam 208 Colour
Zeiss Axiocam 208 colour 8.3 megapixel 1/2.1 inch HDMI microscope camera with USB interface for brightfield 4K imaging.
Axiocam 705 Colour
Zeiss Axiocam 705 Colour 5-megapixel 2/3 inch microscope camera, ideal for true colour imaging at high resolution at up to 62 frames/s.
Axiocam 712 Mono
Zeiss Axiocam 712 Monochrome 12-megapixel 1.1-inch large format microscope camera with 72% quantum efficiency for high resolution imaging of large samples.
Axiocam 820 Colour
Zeiss Axiocam 820 Colour large format 1.1-inch microscope camera, recommended for colour life science, materials and geoscience applications with a large field of view.
FL20BW
Tucsen FL 20BW monochrome, 20 megapixel, 1-inch, fluorescence high-resolution microscope camera. Featuring an actively cooled CMOS sensor for reduced dark current and readout noise.
MIchrome 20
Tucsen MI Chrome 20 colour 1-inch microscope camera for full field of view imaging at high resolution.
Prokyon
Jenoptik Prokyon 1/1.2-inch colour fluorescence camera with scanning capabilities for up to 20 megapixels with passive cooling.
Wega
Jenoptik Wega 1/1.2 inch 2.3 megapixel monochrome fluorescence camera for fluorescence, material and manufacturing in HD.
Model Name | Colour | Mega Pixels | Pixel Size(um) | Sensor Size(in) | Manufacturer |
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Altair | Colour | 12.0 Megapixel | 1.85 | 0.5714 | Jenoptik |
Arktur | Colour | 8.0 Megapixel | 2.4 | 0.66 | Jenoptik |
Avior | Colour | 8 Megapixel | 1.85 | 0.5 | Jenoptik |
Axiocam 105 Colour | Colour | 5.0 Megapixel | 2.2 | 0.4 | Zeiss |
Axiocam 202 Mono | Monochrome | 2.0 Megapixel | 5.86 | 0.51 | Zeiss |
Axiocam 208 Colour | Colour | 8.3 Megapixel | 1.85 | 0.476 | Zeiss |
Axiocam 305 Colour | Colour | 5.0 Megapixel | 3.45 | 0.66 | Zeiss |
Axiocam 305 Mono | Monochrome | 5.0 Megapixel | 3.45 | 0.66 | Zeiss |
Axiocam 705 Colour | Colour | 5.0 Megapixel | 3.45 | 0.66 | Zeiss |
Axiocam 705 Mono | Monochrome | 5.0 Megapixel | 3.45 | 0.66 | Zeiss |
Axiocam 705 Pol | Polarized | 5.0 Megaixel | 3.45 | 0.66 | Zeiss |
Axiocam 712 Mono | Monochrome | 12.0 Megapixel | 3.45 | 1.1 | Zeiss |
Axiocam 807 Colour | Colour | 7.1 Megapixel | 4.5 | 1.1 | Zeiss |
Axiocam 807 Mono | Monochrome | 7.1 Megapixel | 4.5 | 1.1 | Zeiss |
Axiocam 820 Colour | Colour | 20 Megapixel | 2.74 | 1.1 | Zeiss |
Axiocam 820 Mono | Monochrome | 20 Megapixel | 2.74 | 1.1 | Zeiss |
Betria | Monochrome | 3.0 Megapixel | 3.7 | 0.5714 | Jenoptik |
FL20BW | 20 Megapixel | 2.4 | 1 | Tucsen | |
Kapella | Colour | 2.3 Megapixel | 5.86 | 0.83 | Jenoptik |
MIchrome 16 | Colour | 16 Megapixels | 1.34 | 0.43 | Tucsen |
MIchrome 20 | Colour | 20 Megapixels | 2.4 | 1 | Tucsen |
MIchrome 5 Pro | Colour | 5 Megapixels | 3.45 | 0.66 | Tucsen |
MIchrome 6 | Colour | 6 Megapixel | 2.4 | 0.83 | Tucsen |
Macro Stand and Lens | Stand | - | |||
Naos | Colour | 20.0 Megapixel | 2.4 | 1 | Jenoptik |
Polaris | Monochrome | 3.44 Megapixel | 7.2 | 1 | Jenoptik |
Prokyon | Colour | 20.7 Megapixel | 5.86 | 0.83 | Jenoptik |
Rigel | Monochrome | 2.3 Megapixel | 5.86 | 0.83 | Jenoptik |
Subra | Colour | 2.2 Megapixel | 5.86 | 0.83 | Jenoptik |
Wega | Monochrome | 2.3 Megapixel | 5.86 | 0.83 | Jenoptik |
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Why is my JB4 polymerisation so slow?Normal polymerisation of JB4/dye mix taken directly from the fridge should begin within approximately 15 to 30 minutes. The mixture will begin to become viscous and if there is any surplus you should feel it begin to warm up. If the mix is taking substantially longer or does not polymerise fully at all check your components by testing polymerisation of JB4 without dyes. Incomplete removal of methanol during sample infiltration appears to inhibit polymerisation.
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Can ethanol be used instead of methanol for HREM dehydration?The difference between ethanol and methanol in sample dehydration is that methanol can be 100% pure, while ethanol usually contains a small amount of water. If your sample needs to be completely free of water, such as using Technovit 8000 (which is moisture sensitive) methanol is better. However, ethanol can be used as an alternative with JB-4.
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How to orientate samples in JB4 while embedding?Don’t embed the sample right away—wait until the JB-4 has started to set slightly. It should still be a bit runny but firm enough to hold the sample in place. Use a torch (a phone light works) to shine through the PTFE mould so you can check the sample’s position. To adjust the orientation, use flat capillary tubes with the ends gently heated and rounded to avoid damage. Try to keep handling to a minimum to reduce the chance of introducing air bubbles.
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How to fix soft blocks?If your blocks come out of the mould feeling very soft, rubbery, or jelly-like, there may be an issue with the JB4 mix or one of its components. A slight springiness is normal, especially in larger blocks, but they should still feel firm overall. If needed, you can harden them by baking at 90–100 °C for a few hours or overnight. Even fully cured blocks can soften slightly over time, whether stored at room temperature or in the fridge. The exact cause isn’t clear, but this tends to happen more often during warmer months in the UK. Re-baking usually restores the hardness.
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How to fix blocks breaking off chucks?This can happen if not enough JB4 has set through the central hole and crosshair gaps in the base of the chuck. To prevent this, add a small amount of fresh polymerisation mix to fully fill the base. If the block has already broken off, use abrasive paper to flatten both the surface of a new chuck base (they’re often uneven from manufacturing) and the bottom of the JB4 block. Then reattach the block using SuperGlue or a similar contact adhesive. We have found that additive resin glues such as araldite also work well (if not better).
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Can I trim JB4 blocks?Yes. You can trim them by briefly baking the block at 90–100 °C for 5 to 10 minutes. This softens the resin, making it flexible for about 1–2 minutes after coming out of the oven. During that time, you can cut it using a single-edge razor blade or utility knife with a steady push and gentle sawing motion. Work quickly—once the block cools, it hardens again and becomes difficult to cut.
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Why is there a bright area in the centre of my tissue images?This usually means the sample wasn't infiltrated long enough. Infiltration time is important not just for letting the methacrylate fully penetrate the tissue, but also for allowing the dyes to stain it properly. For reasons we don’t completely understand, the staining seems to take longer and is key to getting good image contrast. Dense tissue is especially prone to showing a bright, featureless centre if infiltration is too short. To fix this, try extending the infiltration time. Just keep in mind that longer infiltration can also darken the overall grayscale in your images.
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Why do my images have ripple-like wavy lines?These wavy lines, usually running along the direction of the cutting blade, are often caused by JB4 that hasn’t fully hardened. This is more common near the base of the block, where polymerisation can be weaker—likely due to oxygen exposure interfering with the setting process.
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What is the difference between the OHREM Micro and Ultra systems?HREM Micro is ideal for standard high-resolution episcopic applications offering a compact design and straightforward setup. The HREM Ultra delivers optimisation for higher resolution, improved throughput and extended capabilities
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Are HREM systems customisable?HREM systems can be adapted if you have a specific requirement, for example, higher resolution cameras or models. Split moulds can also be adapted to your requirements.
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Do you provide support globally?Support is offered, as well as install, to your location assuming safe travel of our friendly team here in the UK.
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What types of samples are supported by the HREM Micro and Ultra systems?Both systems support imaging of fixed, resin-embedded biological samples such as embryos, organs, plant tissue and tissue blocks. They are compatible with analysing morphology or also multi-fluorescence with the Ultra system.
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Is the imaging software included with the instrument?Both the Micro and Ultra include specialised imaging software for automated capture and integration.
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Are blades included with HREM systems?Our systems include starter blades, we offer replacement blades designed specifically for HREM resin systems. Ultra systems are compatible with 60mm, and 160mm blades while Micro systems are compatible with 60mm and 80mm blades only.
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Do you ship globally?We ship HREM equipment to the UK, Europe, USA, Canada and to the rest of the world.
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How long does production take?HREM systems take between 8-12 weeks to be hand manufactured by our team but can take longer based on configuration. Delivery can take 3-4 weeks depending on if in the UK or overseas.
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How large a sample can I image with HREM?HREM can accommodate volumes from under 1mm to 2/3 centimetres. Depending on the ability to set in resin and staining samples can be imaged larger with scanning.
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What resolution can HREM achieve?HREM is capable of achieving resolutions down to 1 micron, which allows for accurate 3D reconstructions without interpolation artefacts. Resolution can be improved in the XY direction by introducing scanning, individual images can be combined into larger fields for sub-micron XY resolution. Z Resolution is limited based on the optics and sectioning quality of the system.
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Can HREM help with phenotyping or developmental studies?Yes, HREM is widely used in developmental biology, toxicology and mutant screening for denser structures, thanks to consistent resolution and scalability.
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What software is used for HREM?HREM images are captured on our OHREM systems with OHREM Acquire software and is flexible to imaging needs and requirements. Imaging unlimited channels and combinations and with scanning implements. For after processing we offer a range of simple, free tools for simple start-up. Advanced packages such as dragonfly can be used for segmentation and 3D visualisation.
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Is HREM suitable for imaging internal structures like blood vessels or cardiac tissue?As HREM can achieve down to 1 micron resolution it allows visualisation of not only the whole structure of samples but down to smaller structures including blood vessels.
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Who manufactures Optical HREM and do you ship globally?Indigo Scientific UK design and assemble HREMs, we offer worldwide service and installation of our instruments. We offer delivery to Europe, Americas, Canada and the rest of the world. For more information please contact us.
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What is High-Resolution Episcopic Microscopy(HREM)?High-Resolution Episcopic Microscopy (HREM) is a 3D imaging technique used to visualise while biological samples at high resolution by imaging a resin block face during serial sectioning. This can either be done with scanning or single shot images.
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Is HREM a good choice for 3D histology or tissue morphology analysis?HREM outputs perfectly aligned 3D datasets which is ideal for morphometric and histological analysis at organ level in smaller structures.
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How does HREM compare to similar techniques such as micro-CT or light sheet for structural imaging?HREM is a light microscopy technique, meaning more economical in comparison to micro-CT, while providing similar (if not better) resolution. It also does not require clearing, which can cause issues in sample data output.
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Can HREM be used to image whole embryos or organs in 3D?Yes, High-Resolution Episcopic Microscopy (HREM) is an ideal solution for capturing denser structures such as while mice embryos and organs without the need for tissue clearing.
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What samples can be imaged with HREM?HREM was designed for imaging mouse embryo heart defects but has been used to image whole mouse embryos, plant seeds, insect models like Drosophila, organs such as brain, liver and kidneys in pups and embryos.
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How do I choose the right camera for my microscope?Choosing the right microscope camera can depend on a few crucial factors: Compatibility – the microscope must have a trinocular port and check for optical interface such as C-mount. It is also worth checking the software, connectors to PC and trigger requirements. Resolution – Dependent on the requirements of your image’s resolution needs may differ. As a very general rule, teaching and standard documentation will require between 2MP-5MP while research, fluorescence and publications may require 6MP to 20MP. For advanced fluorescence applications a larger pixel size may be needed which will reduce resolution of the sensor. Frame Rate – Higher frame rates (30-60fps) may be required for industrial or live imaging applications like cell applications. Budget – Scientific microscope camera will vary in price, but can range from hundreds to thousands, be sure to ask for options based on your needs If you require help finding an option please contact us.
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What is a microscope camera and why is it different to a phone/DSLR?A microscope camera is a specialised imaging device is attached to a microscope for capture of images, video or time-lapse. Microscope cameras vary in type and specifications. While phones/DSLRs may fit some purposes of microscopy they are not always optimised for this: Lack features for software such as stitching, Z stacking, time-lapse and colour functions May suffer from vignette effects Due to the sensor sizes, it may be not as sensitive or have as good of a resolution to a specialised solution
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Can inverted microscopes be used for fluorescence imaging?Inverted microscopes can absolutely be used for fluorescence imaging and are commonly used in live-cell fluorescence microscopy.
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What is an inverted microscope and how does it work?An inverted microscope is designed so the transmitted light source and condenser are positioned above the stage, while the objectives and turret are located below. This setup allows for visualisation from beneath the surface of the sample, which makes it ideal for observing living cell cultures, flasks and large samples that would be difficult to mount on a slide for viewing on an upright microscope.
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What are inverted microscopes used for?Inverted microscopes are ideal for samples that are better visualised from beneath, examples include live-cell imaging, cell culture observations and examining samples in liquid. Common applications and fields include: Cell biology and molecular biology labs IVF and fertility clinics Tissue culture and stem cell research Microbiology Industrial applications
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What is the difference between an inverted and upright microscope?The main difference between an inverted microscope and an upright microscope is the orientation of the optics and light path in respect to the sample. An upright microscope has transmitted light coming from beneath the stage and to the objective above the sample, where as an inverted microscope has transmitted light coming from above and the objective seated below the sample.
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What Samples are Best Viewed on a Stereo Microscope?Stereo microscopes allow for a range of samples such as: Insects, plants, rocks and fossils Electrical products and components (circuit boards, capacitors, silicon chips etc) Medical dissection and microsurgery (mice embryos, zebrafish embryos) Quality control and industry inspection
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What Magnifications Should I Expect from a Stereo Microscope?Magnifications are purely model dependent but are often delivered via a zoom wheel. A common range is between 6.5x – 50x but you can expect up to 200x.
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What is a Greenough System?A Greenough based stereo microscope features dual optics in a symmetrical design. This design allows for each objective to have its own optical path leading to the 3D effect. Greenough design stereos allow for high numerical apertures, while a single objective stereo is designed for infinity correction which permits the use of beam splitters, camera ports etc with greater ease. For routine viewing of samples such as dissection and observation the Greenough design offers an economical design. While more advanced applications that require a camera port may benefit from a common objective system.
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What is a Stereo Microscope?A stereo microscope is a dual optical path system designed to provide a 3D image to the user allowing for depth perception of a sample/object. Ideal for visualising larger or opaque samples, for example for inspection and manipulation rather than high resolution imaging (a upright/inverted microscope is ideal for this application).
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What Types of Lighting are Compatible with Stereo Microscopes?Stereo microscopes have two main types of illumination category: Top (reflected) light for solid objects Ring lights Goosenecks Bottom (transmitted) for visualisation of transparent or opaque samples
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Can I Capture Video or Images Through a Stereo Microscope?If your system has a trinocular/camera port an image can be captured. Some Zeiss stereos come integrated with a camera in the head of the microscope for wireless capture, while others allow for multiple models of microscope camera. For help on configuration of a stereo microscope please contact us.
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Do you ship globally?Yes we ship and service OHREM's globally, service contracts are provided to help maintain your machine.
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Can a demo unit be organised at my institution?Indigo is a small company and uses its size to give the best possible product for the best possible price to help researches get the most from their product. To keep costs low we do not have a facility to deliver demo stock to customers. Instead we invite customers to make specimens and send them to us to either be processed by us or one of our existing customer network. Get in contact to see how we can help.
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What is the difference between HREM and OHREMHREM and OHREM are interchangeable however at Indigo we refer to OHREM as the system and HREM as the Technique. OHREM stands for Optical High Resolution Episcopic Microscopy.
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Can the machine be adapted to different techniques?The system is flexible and we can help adapt the system to user requirements, get in contact to see what we can do.
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Who Manufactures OHREM?The Optical HREM System is manufactured and sold by us here at Indigo Scientific.
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How is the OHREM controlled?OHREM is controlled by a custom application designed by us here at Indigo to help deliver the most optimal performance and efficiency.
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What is the maximum size of a specimen?A single shot optic (no scanning) is limited to the optical limit of 30mm for the standard system. However, with changes to the configuration the OHREM can achieve success of samples of 60mm wide. Get in touch to find out more.
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What samples can be used?In theory it is down to the staining but already there has been great success in a variety of different specimens, we can offer interested parties imaging of there samples after following the protocol found in the members area. Get in touch to find out more.
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How does the system (OHREM) work?HREM works by using a custom made microtone and optical setup made by Indigo Scientific to section a sample. The sample is imaged during sectioning giving an image series. Learn more about High Resolution Episcopic Microscopy Here. HREM sections 1-10 microns of a resin based block and images the surface.
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How many samples/blocks can be imaged at once?Revision 1 OHREM systems can only image 1 block per section. OHREM 2 and an adapted OHREM 1 is capable of imaging 2 20 mm blocks or 4 10 mm blocks with the facility to expand this if required. It is worth noting a block can contain more than one sample, for example one block can contain 3 embryonic mouse hearts.
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Are there different configurations/Addons?OHREM comes with many addons and configurations. Selections can include a scanning stage, dual/multi flourescence etc, contact us to get full details.
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How does the system look?The Optical HREM system will vary based on the type of system you want but the main system will consist of a microtome unit and optics. The two major systems are the HREM Ultra and HREM Micro .
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Can HREM be used for imaging hearts at different developmental stages?Yes, HREM is highly effective for imaging hearts at various stages of development, particularly in embryos and pups.
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What makes HREM a good tool for heart imaging in small models?HREM provides high resolution and 3D imaging capabilities, allowing researchers to visualize the complex anatomy of the heart in great detail and measure in 3 dimensions.
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Can HREM be used to image other species and organs?Yes, HREM can be used to image many different sample types and density’s such as zebrafish.
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How Do Colour Microscope Cameras Work vs Monochrome Microscope Cameras?Traditional colour microscope cameras use a red, green and blue filter (in varying formats) and filters incoming light to given pixels. Each pixel will have one colour component and then interpolation is used to give the final full colour image. Monochrome cameras simply measures the intensity of light, this is across all of the spectrum.
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What are the main specification differences between Colour Microscope Cameras and Monochrome Microscope Cameras?
Contact Our Microscope Camera Experts
We are here to answer any questions you may have about Microscope Camera Setups, Image Analysis Software or beyond. Reach out to us for a quote or tech questions and we'll respond as soon as we can.
Phone:
+44(0) 1462633500