How to convert camera to infrared — want to capture eerie white trees and deep black skies?

This guide shows clear steps for internal conversions and full‑spectrum setups with external filters. You will learn quick pre‑checks and which tools to buy before you open your camera.

You get a numbered, photo‑illustrated checklist for dismantling, hot‑mirror removal, and fitting an IR‑pass filter. The guide also covers first test shots, custom white balance, troubleshooting, and safety warnings about warranty and risks.

Plus, you will find filter advice (720nm vs 850nm), lens hotspot tips, shooting and post‑processing workflows, maintenance notes, cost estimates, and downloadable presets. By the end, you will know if DIY conversion is right for you and how to make great IR photos.

How to convert a compact digital camera to shoot infrared only

If you want to know how to convert camera to infrared, start by deciding your end goal. An internal IR‑pass conversion replaces the hot mirror with an infrared filter so the camera only sees IR, while a full‑spectrum conversion removes the hot mirror and lets you use external filters for IR, UV, and visible. The first option is ready to shoot IR anytime, the second is more flexible but needs a screw‑on filter each time.

Expect deeper contrast, glowing foliage, and dark skies when the job is done. Exposure and focus behavior will change because sensors and lenses act differently in IR. You will also need a new custom white balance for every IR wavelength you choose.

If you want a primer that complements the steps below, skim this clear step-by-step IR guide before you open the camera. It will give you context on filter choices and basic risks. Come back here when you are ready to do the detailed work.

Before any screws, test that your camera and lens can see IR at all. Put an external IR pass filter like a 720 nm in front of the lens and point the camera at bright foliage in sunlight, then use Live View and crank ISO if needed. If the image brightens and you can focus with live view, your sensor still responds to near‑IR.

You can do a quick remote test too. Point a TV remote into the lens and hold a button while looking at the LCD, and you should see a white flicker from the remote’s IR LED. If you see nothing on multiple remotes, your camera may have an especially strong hot mirror or a blocked optical path.

Lenses matter because some produce a bright IR hotspot in the center. Before opening the body, test the lenses you plan to use by shooting a uniform scene with an external 720 nm filter at f/8 to f/11. If you see a pale round patch in the middle, try another lens or a different aperture, because the hotspot may ruin your images later.

Step 1: Prepare the workspace so dust does not win. Use an anti‑static mat and wrist strap, bright light, and containers or a magnetic mat for screws, and take photos of the camera at every stage so you can reverse the path.

Step 2: Remove the battery and memory card, and fire the shutter a few times to bleed any residual charge. If your camera has a pop‑up flash, wait several minutes because the flash capacitor can hold a painful charge.

Step 3: Photograph the back, sides, and bottom so screw locations are recorded. Label strips of tape with positions like “bottom long,” “grip short,” and stick the screws to the correct labels as they come out.

Step 4: Peel back any rubber grips, remove the eye cup, and take out the obvious outer screws. Some compact bodies hide screws under stickers or nameplates, so check edges and seams with a fingernail or plastic spudger.

Step 5: Gently pry the rear cover with a plastic spudger and lift it slowly. Ribbon cables often connect the rear LCD and buttons, so do not yank; support the panel and look for zero‑insertion‑force connectors before disconnecting.

Step 6: Photograph each ribbon and its socket so orientation is clear. Flip up each ZIF latch with a plastic tool, slide the ribbon out, and store the panel safely away from the work area.

Step 7: Remove any metal noise shields that cover the sensor board. Some are clipped and some are held by small screws, so work slowly, and note any ground tabs that must go back the same way later.

Step 8: Find the sensor carriage and the glass in front of it, which is the hot mirror or a stack that blocks IR. Take a close photo because thickness and shims may affect focus, and you may need to match that stack later.

Step 9: To release the hot mirror, look for adhesive, a metal frame, or tiny screws around the filter. Some models use a light bead of glue, others use a gasket and pressure frame, and a few even require desoldering a frame to free the filter.

Step 10: If adhesive holds the glass, apply mild heat with a heat gun on low or a hairdryer and test with a plastic pick. Work around the edges and lift slowly, because the glass can chip and scratch the sensor if it slips.

Step 11: If your model has soldered joints, use a fine tip iron or a hot air station with wick to free the frame. Keep heat brief and controlled so you do not lift pads, and never direct hot air at the sensor itself.

Step 12: Once the hot mirror lifts, cover the exposed sensor with a clean lint‑free card to block dust. Blow the cavity gently with an air blower, never with compressed canned air to avoid propellant residue.

Step 13: Choose your internal IR pass filter now. A 720 nm wafer is best for false color and flexible exposures, while 830–850 nm is great for bold black and white with longer shutter speeds and stronger contrast.

Step 14: Mount the IR filter by matching the thickness of the removed glass if possible. Similar thickness preserves back focus and reduces the chance of soft autofocus, so check your donor filter specs before you cut or order.

Step 15: If your filter is pre‑cut, drop it into the frame and replace the clamp or screws. If you are using a raw wafer, seat it in a 3D‑printed mount or a thin gasket so it will not rattle or tilt.

Step 16: For adhesive, a minimal bead of UV‑curing optical adhesive around the perimeter works well and stays clear. Do not use silicone near the sensor because it can outgas and fog optics over time.

Step 17: Seal gaps against light leaks with matte black flocking tape or a thin black paint marker on internal edges. Keep paint away from glass surfaces and let any adhesive cure fully before closing the camera.

Step 18: Reinstall the noise shields and reconnect the ribbons, but do not close the shell yet. Insert the battery and power on to check that the LCD lights and that Live View shows an image.

Step 19: Take a first test shot while the back is open, pointing at foliage or a bright wall. If the camera errors or stays black, power off, recheck each ribbon orientation, and test again before final assembly.

Step 20: If all is well, close the shell and replace the screws in the reverse order of removal. Do not overtighten plastics; snug is enough to avoid cracks and stripped threads.

Step 21: Set a custom white balance to tame the strong color cast. Aim the camera at green grass or leafy trees in sun and record a custom WB so the JPEG preview and histogram make sense for IR.

Step 22: Check focus by shooting a textured target at several apertures. If focus is off, you may need to adjust the sensor shims or calibrate autofocus, which is why matching filter thickness helps.

If the camera will not power, pull the battery and recheck the main power ribbon first. Look for a latch that is not fully down or a ribbon that slipped a millimeter out of square, and confirm the battery door switch is closing.

If you see banding, rolling stripes, or no image but the menus show, the sensor ribbon may be partly seated. Reseat both ends of the image pipeline, clean the contacts with isopropyl alcohol, and test again.

If there are bright specks or smudges, you likely caught dust on the new filter. Use a blower first, then a sensor swab with 99% isopropyl, and swipe gently in one direction to avoid streaks.

This work voids any warranty and brings real risk. A charged flash capacitor can shock you, and a slip of a metal tool can destroy fine pitch connectors, so do not proceed if you are not confident.

If you hesitate at hot mirror removal or desoldering, use a local conversion service. Turnaround is often 3 to 10 business days, and costs range roughly from the low hundreds depending on the camera and filter choice.

Here is a simple decision flow in words. If you have a cheap spare body and steady hands, try DIY after practicing ribbon work on an old compact; if the camera is valuable, pay a pro for peace of mind.

A quick cost snapshot helps you plan. A pre‑cut internal 720 nm filter runs about the price of a midrange memory card, an 850 nm can cost a bit more, tools add another small kit price, and professional conversion may cost less than replacing a ruined camera.

To help you visualize the outcome, I include before and after examples in 720 nm color and 850 nm black and white, plus annotated photos of the hot mirror and mount. Use the sample RAW files and presets to practice custom white balance and a basic channel swap.

Required tools for conversion

You can do this with a small bench kit. Get a precision screwdriver set with Phillips and Torx bits, plastic spudgers, a thin metal spudger, tweezers, and a loupe or magnifier to read tiny labels and latches.

Have a heat source like a heat gun on low or a hairdryer with a cool setting. A fine tip soldering iron with wick or a small hot air station helps on models with soldered frames, and a steady support like a mini vice keeps parts safe while your hands work.

Use an anti‑static wrist strap and mat, microfiber cloths, a rubber air blower, and 99% isopropyl alcohol with proper optical swabs. Prepare small containers or a magnetic mat for screws, labeling tape, and a phone to photograph each stage.

For pre‑checks, have an external IR filter like a 720 nm and a TV remote to test sensor response. A thin black paint marker or matte flocking tape is handy for sealing internal reflections after mounting the new filter.

Optional tools save time but are not essential. A 3D printer can produce a precise internal filter holder, and a UV lamp cures optical adhesive quickly and cleanly with less mess.

Order the correct filter size for your sensor and frame. Reputable suppliers list sensor dimensions and offer pre‑cut wafers, and you can also order a slightly larger wafer and trim with a diamond scribe if needed with patience.

Have protection for you and the camera. Wear eye protection and thin gloves when heating or cutting, and remember the big warning about flash capacitors and stored charge inside compact bodies.

Choice of IR filters and wavelengths

The cut‑on wavelength printed on an IR filter tells you how much visible light it blocks. A 720 nm filter (often called R72 or IR720) passes the deep red and near‑IR, so foliage turns bright and skies go dark, and you can do false‑color swaps easily.

Filters in the 830–850 nm range block nearly all visible light, so tones get stronger and exposures run longer. These deeper filters shine for bold black and white, but they leave less color data for false‑color work.

A full‑spectrum conversion removes the hot mirror and lets the camera see visible, IR, and even some UV, but you must screw on a filter every time you shoot. This route is flexible for experiments, yet composing can be tricky through dark external IR filters on DSLR finders.

An internal IR‑pass conversion turns the camera into an IR‑only tool. It is faster to use and easier for beginners because Live View is bright, but you give up visible light shooting on that body.

Mounting options include a drop‑in replacement glass that matches the hot mirror size, a wafer held in a 3D‑printed carrier, or leaving the camera full spectrum and using screw‑on filters per lens. Internal filters avoid the need for heavy external glass and allow normal shutter speeds in sun.

Lens compatibility is a big deal because of the IR hotspot phenomenon. Some lenses show a bright center patch in IR due to coatings and internal reflections, and stopping down often makes it worse.

Test each lens with an external 720 nm filter before committing to a permanent conversion. If hotspots persist, try a different focal length, a prime lens, or an older manual lens that is known to behave well in IR.

If you plan a mainly monochrome style, start with 830–850 nm. If you want color play and classic white foliage, pick 720 nm, and review examples like the ones in this helpful black and white IR overview to decide.

How to shoot with an infrared converted camera

Start with RAW because it gives you headroom to fix white balance and exposure. Set a custom white balance by pointing the camera at bright green leaves in sun, then save that WB so your previews and histograms are meaningful.

Disable long‑exposure noise reduction if you prefer to control it in post. You can always add noise reduction later, and you will see dust and focus issues more clearly during testing without in‑camera masking.

Exposure meters are calibrated for visible light and can be unreliable in IR. Check the histogram and bracket early on, and use Live View for a more direct preview of what the sensor actually sees.

IR causes a focus shift on many lenses, so rely on Live View autofocus or magnified manual focus. Test across apertures and note any sweet spots where sharpness is best with your chosen wavelength.

Start with low ISO in bright sun and expect longer exposures for 830–850 nm. For 720 nm in daylight you can still handhold at modest shutter speeds, but deeper filters often push you to a tripod.

Your color workflow begins by neutralizing the strong red cast. In your RAW editor, pull temperature and tint until foliage looks pale and neutral, then either go to monochrome or prepare for a false‑color swap.

For false color, do a simple channel swap so red becomes blue and blue becomes red. After that, refine hues, tame highlights, and use selective saturation to keep skin and foliage within a pleasing range.

For black and white, convert after basic balancing and shape the tonal map with curves and local contrast. IR black and white loves micro‑contrast and clean skies, so add a bit of structure and clarity while watching noise.

A solid post‑processing path looks like this in plain terms. Import the RAW, correct exposure, set custom WB, swap channels for color IR or go straight to monochrome, then finish with local contrast, sharpening, and careful noise reduction.

Play with long exposures to blur water and clouds, and try pairing an IR frame with a visible frame from another camera for surreal composites. Portraits can look dreamy, but watch for dark lips and pupils, and use soft light for the best skin tones.

If you want a quick refresher on camera settings and filters while you are in the field, bookmark this concise infrared tutorial. It pairs nicely with the shooting tips above. Use it as a checklist when experimenting with new wavelengths.

Cleaning, maintenance, and troubleshooting after conversion

Good sealing is the first line of defense against dust and moisture. Keep the camera in a dry cabinet or with silica gel packs, and avoid swapping lenses in wind or on sandy beaches.

To clean the sensor or internal IR filter, start with a hand blower while the camera faces down. If debris sticks, use a sensor swab with a drop of 99% isopropyl and swipe in one smooth pass, then inspect with a loupe under raking light.

Dust spots show up best on a uniform sky at f/11 or f/16. Shoot a test frame and move the camera in small circles during the exposure to make dust stand out, then clean and retest until the frame is even.

If you see hotspots or uneven illumination, try another lens and a wider aperture. Some lenses behave only at certain f‑stops, and if the problem remains, a different wavelength filter or professional blackening of internal parts may help.

If the camera will not power after a while, a ribbon may have worked loose. Open the back carefully, reseat the main power and sensor ribbons, and confirm latches are flat and locked before closing again.

Odd color or white balance behavior is usually a WB profile problem, not a sensor fault. Reset white balance on foliage or a neutral card in IR light, and verify the RAW editor applies the camera WB rather than a default profile.

If desoldering was involved or the sensor stack shifted, consider a professional calibration. Persistent electronic faults, a cracked filter, or a scratched sensor cover are also good reasons to hand the job to a specialist.

Check adhesives and foams every few months, especially in hot climates. If you see haze on internal glass, clean it soon because outgassing can get worse, and retest autofocus and metering after any internal work.

Keep a simple, printable troubleshooting checklist in your bag. Include dust test steps, ribbon reseat notes, hotspot lens lists, and your preferred custom WB targets so you can recover quickly in the field.

For newcomers, the smart path is to practice first with an external 720 nm filter and an old body. It teaches exposure, white balance, and hotspots before you commit, and it gives you a safe way to learn how to convert camera to infrared without risk.

If you decide to convert more cameras later, keep your parts and cost notes. A typical DIY build uses a modest budget for tools and filters, while a professional conversion adds speed, a warranty on the work, and fewer headaches for your next IR adventure.

Finally, test often and keep a small kit with blower, swabs, and a microfiber in your bag. That little routine will protect your IR investment and keep the joy of IR conversion alive every time you head out to shoot.

What People Ask Most

Final Thoughts on How to Convert a Compact Digital Camera to Shoot Infrared Only

Converting a camera is about unlocking a hidden world beyond visible light, and this guide gives you the map — from a simple 270 sensor check through pre‑conversion testing, mirror removal, filter choices, and reassembly. You’ll end up with a camera that renders foliage like silver and skies with unusual contrast, letting you make images you couldn’t before. That payoff comes with a real risk: the work can void warranties and cause irreversible damage if you rush or skip safety steps.

If you’re an enthusiast, landscape shooter, or creative experimenter, this rewards patience and care; novices should practice on an older body or hire a pro. We covered the how‑to steps, essential tools, shooting techniques, and troubleshooting you’ll need once the camera’s back in your hands. Expect to test lenses for hotspots and dial in custom white balance for consistent results.

Think of this as a small technical leap that opens big creative doors, and you’ve already got the checklist to move forward safely. With attention to detail and a bit of practice, your converted camera will reveal scenes in a beautifully unexpected way — enjoy the exploration ahead.