Pangolin Camera Trap Photography: A Complete Guide

Published 9 June 2026 | 10 min read

Pangolins are among the most difficult mammals to photograph in the wild. Strictly nocturnal, solitary and sparsely distributed, Temminck's ground pangolin (Smutsia temminckii) can occupy a home range exceeding 10 square kilometres while producing fewer than a handful of sightings per year. Camera traps have transformed our ability to document these animals, providing continuous, non-invasive monitoring that captures behaviour no human observer could witness. This guide covers everything you need to deploy camera traps for pangolin photography in South Africa, from equipment selection to data management and ethical practice.

Choosing the Right Camera Trap Equipment

For pangolins, the critical hardware specifications are trigger speed, flash type, image resolution and environmental durability.

Trigger speed

Pangolins move slowly but their low profile means they pass through a detection zone quickly. A trigger speed of 0.3 seconds or faster is recommended. The Reconyx HyperFire 2 (0.2 seconds) and Browning Strike Force Pro (0.15 seconds) are widely used in South African pangolin tracking and research programmes. Slower units risk missing the animal entirely.

Infrared flash versus white flash

This is one of the most important decisions in pangolin camera trap work. No-glow infrared (940 nm) emits no visible light, producing monochrome images adequate for species identification and individual recognition from scale patterns. Low-glow infrared (850 nm) produces a faint red illumination that most pangolins tolerate. White flash delivers full-colour images but can startle pangolins, causing them to curl defensively or avoid the site on subsequent visits. The consensus among South African researchers is to use no-glow infrared at burrow sites and regular travel routes, reserving white flash for one-off deployments where repeated disturbance is not a concern.

Resolution and video capability

A minimum of 20 megapixels is recommended for still images, particularly if you intend to identify individuals by their unique scale patterning. Video capability is valuable for documenting nocturnal behaviour such as foraging technique, bipedal walking and interactions with other species. Set video clips to 15 to 30 seconds to balance data richness against storage demands.

Weatherproofing

South African field conditions range from Kalahari sand storms to Limpopo thunderstorms. An IP66-rated housing is the minimum standard. Silica gel packets inside the camera housing help prevent condensation damage during humid summer nights.

Optimal Camera Placement

Placement matters more than equipment. Pangolins follow predictable routes between burrows and foraging grounds, and identifying these routes is the foundation of effective deployment.

Burrow entrances

Known active burrows are the highest-probability locations for pangolin captures. Position the camera 2 to 3 metres from the entrance at a height of 30 to 50 centimetres, angling slightly downward. Avoid placing the camera directly opposite the burrow mouth, as the infrared sensor may be triggered by heat radiating from the burrow. An offset angle of 15 to 30 degrees reduces false triggers while still capturing clear images.

Game trails and corridors

Pangolins often follow established game trails, particularly where trails pass between termite mounds. Look for distinctive signs: parallel claw drag marks, a central tail sweep line in soft substrate, and small excavation pits at termite mound bases. Mount cameras perpendicular to the direction of travel to maximise the time the animal spends within the detection zone.

Water points and mineral licks

Although pangolins obtain most of their moisture from their insect prey, they are occasionally photographed at ephemeral water sources, particularly during the dry winter months in the Kalahari and Northern Cape. These sites are worth monitoring as secondary deployments.

Camera Settings for Pangolins

Once the camera is positioned, configuring the right settings maximises the chances of usable captures.

• Trigger mode: Motion-activated with the highest sensitivity setting available.
• Burst count: 3 images per trigger event. This increases the likelihood of at least one sharp, well-composed frame.
• Recovery interval: 5 seconds between trigger events. Shorter intervals risk filling storage with near-identical frames; longer intervals risk missing a pangolin that pauses and then moves on.
• Time stamp: Always enabled, with the date and time verified before each deployment. Accurate timestamps are essential for activity pattern analysis.
• Video mode: If recording video, set clips to 15 to 30 seconds with audio enabled. Pangolin vocalizations are rare but valuable when captured.

Seasons and Timing

Pangolin activity patterns shift with the seasons, and aligning camera trap deployments with these patterns improves detection rates considerably.

From October to March, Temminck's ground pangolins are strictly nocturnal. Camera traps at burrow sites record exits between 18:00 and 20:00 and returns between 03:00 and 06:00 SAST. In winter (May to August), lower temperatures push activity into the late afternoon and early morning, with some individuals foraging in daylight during cold spells. This seasonal shift is well documented in the Kalahari and Limpopo.

The dry season (June to September) is generally more productive for camera trapping because reduced vegetation cover improves detection zone effectiveness and pangolins concentrate their activity around reliable food sources. The wet season produces more false triggers from moving vegetation and greater risk of equipment damage.

Results From South African Camera Trap Studies

Camera trap surveys across South Africa have produced the most comprehensive dataset on Temminck's ground pangolin distribution outside of telemetry studies.

At Tswalu Kalahari Reserve in the Northern Cape, a long-running camera trap grid has recorded pangolins at approximately 2 to 5 percent of active trap nights, making it one of the most productive sites in the country. The Tswalu data has been instrumental in establishing baseline activity budgets and seasonal movement patterns for the Kalahari population.

In Limpopo province, surveys across communal and private land have documented pangolins in areas where their presence was previously unconfirmed. Detection rates in dense bushveld are typically below 1 percent of trap nights, reflecting both lower densities and the challenges of operating cameras in thick vegetation. Kalahari research has used camera trap data to inform population survey methods, combining trap rates with occupancy modelling to estimate density across landscape scales.

Data Management

A single deployment can generate thousands of images over several weeks. Without rigorous data management, the volume quickly becomes unmanageable.

• SD card labelling: Use a consistent naming convention that includes the site code, camera number and deployment date. Write this on the card itself and on the protective case.
• Field backup: Copy all images to a portable hard drive before reformatting SD cards for redeployment. Never reformat a card until the backup is verified.
• Cloud backup: Upload a second copy to a cloud storage service as soon as connectivity allows. Field equipment failures and theft can destroy months of irreplaceable data.
• Image sorting: Use dedicated camera trap software such as Timelapse2 or the CamtrapR package in R to automate species tagging, filter blank images and extract metadata for analysis.

Ethical Considerations

Camera trapping is less invasive than direct observation or capture-based research, but it carries ethical obligations that responsible practitioners must observe.

Minimise disturbance by servicing cameras during midday when pangolins are underground. Use no-glow infrared at any site where a camera may fire repeatedly on the same individual. Secure equipment with lock boxes and cable locks rather than screwing cameras into trees. Most importantly, share detection data with conservation authorities and contribute records to national databases such as the African Pangolin Working Group's sightings register. Camera trap data has conservation value only when it enters the broader scientific record.

For a deeper discussion of responsible practice, see our guide to pangolin conservation photography.

Citizen Science and Community Involvement

Camera trap networks are increasingly deployed through citizen science programmes that engage private landowners, game reserve staff and rural communities. In South Africa, the African Pangolin Working Group and the Endangered Wildlife Trust coordinate volunteer surveys that contribute directly to national distribution mapping.

These programmes lower the cost of large-scale monitoring while building conservation awareness. A farmer in Limpopo who reviews camera trap images weekly develops a personal connection to local wildlife that no awareness poster can replicate. Community-managed stations in the Kalahari have produced some of the first photographic records of pangolins on communal land, filling critical gaps in distribution data. Standardised protocols and coordinator review ensure that citizen science data meets research-grade quality standards.