Project SWAN

Initialising acoustic network

Connecting to live monitoring stations and listening for recent wildlife detections.

Project S.W.A.N. logo
Project SWAN
Scientific Wildlife Acoustic Network
Mist over a deep woodland forest
Scientific wildlife acoustic network

Listening to wildlife, one soundscape at a time.

Project S.W.A.N. uses passive acoustic monitoring and AI-supported species recognition to reveal bird activity across local landscapes, without disturbing wildlife or habitats.

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Public stations

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Recent activity

12

Species references

House Sparrow
Latest likely detection

Sir Archdale Road - Swaffham

House Sparrow

Passer domesticus

Last activity

4m ago

Station

Swaffham

Detections are treated as likely observations. Confidence, background noise and repeated activity all matter when interpreting acoustic wildlife data.

Method

Passive

Stations listen to the surrounding soundscape without attracting or disturbing wildlife.

Analysis

AI-aided

Acoustic events are converted into likely species detections using machine learning.

Output

Records

Each likely detection can include species, station, time and confidence information.

Purpose

Insight

Repeated observations help reveal activity patterns across local habitats.

The science behind S.W.A.N.

Turning sound into ecological observations.

Acoustic monitoring is useful because birds are often heard before they are seen. By listening repeatedly over time, a station can build a picture of which species are active, when they call, and how local soundscapes change.

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Passive acoustic monitoring

Stations record the natural soundscape without baiting, playback or direct interaction. This makes the method suitable for repeated observation with minimal disturbance.

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AI-supported recognition

Bird calls and songs are analysed against known acoustic patterns. The result is a likely species match, rather than a guaranteed record.

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Long-term pattern finding

Repeated detections can help show daily activity, seasonal changes, habitat differences and possible shifts in local biodiversity.

What the network records

Small data points that build a bigger picture.

A single detection is only one clue. Over time, many detections from many stations can help describe how birds use an area.

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Likely species

The bird species most closely matching the detected call or song.

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Time and date

When the detection happened, allowing daily and seasonal patterns to be explored.

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Station context

Which listening station recorded the event, with public locations shown responsibly.

Confidence

A guide to how strongly the sound matched the suggested species.

Methodology note

Project S.W.A.N. presents detections as likely observations. Acoustic identification can be affected by distance, wind, overlapping calls, background noise and similar-sounding species. Stronger conclusions come from repeated detections, confidence scores and longer-term patterns rather than isolated records.

Explore the live network

A public window into local bird activity.

Each station page turns detection data into clear summaries, recent activity, latest likely species and station-level context.

From sound to science

How a detection becomes useful information.

The aim is not just to identify birds, but to make local soundscape data easier to understand, compare and learn from.

01

Listen

A station records the surrounding soundscape from its local habitat.

02

Analyse

AI-supported recognition suggests the most likely bird species.

03

Interpret

Confidence, repetition and context help decide how useful a detection is.

04

Share

Public pages make station activity, maps and bird profiles easier to explore.

Start exploring

See what the network is hearing now.

Open the public map, choose a station and discover the latest likely bird detections across the network.