Airffic AnimalsKnowledge for the sky and the living world日本語 ↗
WILDLIFE RESEARCH / FIELD GUIDEEnglish · GUIDED BY SIR AIRFFIC GO

Read the sky.
Understand life.

Drones × multisensor observations × AI.
Move from finding wildlife to understanding it.
Design better surveys for animals and researchers.

Sir Airffic Go waving hello
Your guide to the living worldSir Airffic Go

Welcome aboard.

Counting is just the beginning. Where do animals live, and how do they use their world? Let’s explore what the view from above can tell us.

03research approaches30countries to explore● A guide grounded in sources
THREE FIELDS

Start with what you want to understand.

Individuals, behaviour and habitat. Connect the ecological question to the right sensor—and its limits.

THREE PERSPECTIVES

One survey. Three essential perspectives.

The flight is only part of the job.

Return safely, deliver usable observations and make next year’s comparison possible. Design the whole survey.

Read the field guide ↗
  1. Define the question and sampling design
  2. Agree on welfare monitoring and stop criteria
  3. Record battery, data and aircraft handovers
KNOWLEDGE LIBRARY

Follow a question further.

Methods, field practice and implementation designs. Every guide offers a route back to its evidence.

20 articlesUpdated: 31 October 2026
Sensing

Define the ecological question before the flight

Reducing missed animals, field exposure and cost starts with the survey design, not the aircraft specification.

7 minRead article ↗
Sensing

Combine RGB and thermal without confusing heat with identity

Heat can reveal candidates; shape and colour can help identify them. Their failure modes remain different.

8 minRead article ↗
Sensing

From image counts to defensible density estimates

A model count needs detection probability, duplicate control, an area denominator and uncertainty.

9 minRead article ↗
Sensing

Link zoom imagery, radio tracking and biologging

Connect location, visible behaviour and physiology with synchronized records and explicit uncertainty.

8 minRead article ↗
Sensing

Map habitat structure with LiDAR and multispectral imagery

Habitat is more than green cover: height, gaps, water, forage and refuge shape how animals use space.

8 minRead article ↗
Animal welfare

No visible escape does not mean no stress

Build a species- and context-specific flight protocol instead of claiming a universally safe altitude.

9 minRead article ↗
Flight science

Flight physics behind usable wildlife measurements

Thrust, ground sampling distance, blur and endurance connect aircraft choices to usable evidence.

8 minRead article ↗
Field operations

Design the whole field survey cycle

Battery rotation, data integrity and recovery decisions determine throughput alongside flying.

8 minRead article ↗
AI analysis

Automate the pipeline while preserving scientific review

Connect ingestion, detection, review and estimation with reproducible records.

9 minRead article ↗
AI analysis

Validate beyond familiar images

Test transfer across sites, seasons, sensors and target sizes instead of relying on one accuracy score.

8 minRead article ↗
AI analysis

Detect at the edge, verify with deeper processing

Place computation according to latency, power, connectivity and verification needs.

7 minRead article ↗
Economics

Evaluate cost per decision-quality result

Compare complete survey costs at an equivalent ecological endpoint and uncertainty level.

8 minRead article ↗
Field operations

Coordinate multiple aircraft as one survey operation

Allocate airspace, energy, communication and wildlife exposure before adding more aircraft.

8 minRead article ↗
Field operations

Connect autonomy and drone ports to repeatable monitoring

Separate automation capabilities from Japan-specific operating categories, permissions and animal welfare.

9 minRead article ↗
Research platforms

Design the relationships of an ecology operating platform

Separate surveys, flights, assets, detections, observations and estimates so tools can change without losing provenance.

9 minRead article ↗
Research platforms

Protect wildlife when sharing ecological data

Precise locations can support research and expose vulnerable wildlife. Design access and generalization together.

7 minRead article ↗
History & cases

Milestones in drone-enabled ecology

Follow the shift from obtaining aerial images to validating ecological measurements and operational value.

9 minRead article ↗
Economics

Choose a system through field, investment and platform perspectives

Work back from the research outcome and connect responsibilities across acquisition, analysis, validation and operations.

8 minRead article ↗
History & cases

Case study: Bear heart rates reveal an unseen observer effect

Behaviour, physiological response and habituation answer different questions. Read two bear studies without turning them into universal flight rules.

8 minRead article ↗
History & cases

Case study: From replica seabirds to koalas in forests

Controlled references and independent field checks answer different questions about counting performance.

9 minRead article ↗
ANIMAL WELFARE FIRST

Understand their world.
Respect their space.

A lack of visible escape does not establish a lack of stress. Plan from species, breeding context, habitat, aircraft and observed responses.

Read the welfare protocol ↗
“What altitude is safe?”
There is no single answer.
Species evidence → limited pilot → response monitoring → stop and reassess
FROM PIXELS TO ECOLOGY

Plan beyond the image collection.

Connect capture, AI, validation and reporting. Put quality gates in place before claiming full automation.

01

Capture & check

Synchronize time, coordinates, calibration and conditions. Find unusable data while still in the field.

02

Detect at the edge

Record candidates without connectivity. Retain raw evidence and timestamps for later omission audits.

03

Process in the cloud

Align, tile, detect and deduplicate. Track processing versions and failures.

04

Verify with people

Sample negatives as well as low-confidence detections. Measure omissions and false positives.

05

Estimate abundance

Return to the sampling design. Account for detection probability and uncertainty.

06

Support a decision

Deliver comparable maps, time series and coverage, with a path back to the evidence.

This is an implementation design guide. This website does not control aircraft or run image inference.

GLOBAL RESEARCH DESK

Connect knowledge across 30 countries.

What was studied, where and how? Follow original sources, review depth and limitations.

The target is 30 relevant sources per country. Comparable public national readership data is unavailable, so this is not a most-read ranking. Actual coverage and shortfalls are shown. Editorial policy & coverage ↗

837country-associated records
825distinct source URLs
19full-text reviewed records
0verified national rankings

Loading research records…

FIELD WORKBENCH

Make the next survey concrete.

Replace assumptions and check readiness. Your inputs are not sent to a server.

Compare survey costs

An illustrative comparison for equivalent research outputs. Defaults are fictional, not market prices or predicted returns. Amounts are in JPY.

Excludes tax, interest, residual value and grants. The repeat-survey rate scales the entire variable survey cost. Ecological accuracy and animal burden may differ.

Show formulas

Baseline = surveys × (baseline hours × rate + travel). Drone = capex / allocation years + maintenance + surveys × [(flight + review hours) × rate + travel + AI/storage] × (1 + repeat rate). Simple payback = capex / annual cash savings before capex allocation.

Seven checks before the field

A preparation memo for researchers, operators and site managers. This does not replace permissions or animal ethics review.

0 / 7 checks complete

Checks live only on this page. Use export to keep a local copy.

SENSOR GEOMETRY LAB

Connect height, speed and image detail

Explore ground sampling distance and motion blur for an ideal nadir camera above flat ground. Starting values are illustrative, not specifications for a particular aircraft.

This is a geometry model. It does not determine legal or welfare-safe altitude, or whether an animal can be identified. Use the actual focal length, not a 35 mm equivalent.

Assumptions and equations

GSD = H × S / (f × W); footprint width = H × S / f; motion blur (px) = v × t / GSD.

H: height in m; S: sensor width in mm; f: focal length in mm; W: image width in px; v: ground speed in m/s; t: exposure in seconds. Terrain, tilt, distortion, vibration, animal motion and rolling shutter are excluded. Effective thermal resolution and identification performance require separate validation.

Sir Airffic Go waving hello
Your guide to the living worldSir Airffic Go

What will you explore next?

What we know, what we don’t, and how we can find out. That boundary is where the next good survey begins.

OUR EDITORIAL PROMISE

Friendly in tone.
Rigorous in evidence.