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A project of the Artificial Intelligence Lab, Timiryazev University

AgroBioSense

Multimodal AI platform for cattle health monitoring and digital phenotyping

Depth cameras and computer vision turn video of an animal into a measurable digital profile — gait, joint angles and conformation measurements — without touching the animal or stopping production.

Gold medal · International Exhibition of Inventions, Guangzhou 2026

anatomical landmarks in the conformation model
43
animals per day vs. 24 with manual scoring
up to 480
agreement with expert assessment on 150 animals
>90%
to capture one animal
3–5 s

Demo

The system at work

Dashboard recordings from real farms: lameness monitoring, linear conformation assessment and detection at the feed bunk.

Module 101 / 03

Lameness monitoring

  1. 1Two cameras in the alley
  2. 238 keypoints
  3. 3Joint-angle dynamics
  4. 4Daily lameness index
Module 202 / 03

Linear conformation assessment

  1. 1RealSense D435 RGB-D camera
  2. 243 anatomical landmarks
  3. 37 measurements in centimetres
  4. 4Overall score on a 1–9 scale
Roadmap · behaviour03 / 03

Feed bunk behaviour

  1. 1Feed bunk zone
  2. 2Head detection
  3. 3Feeding behaviour
Eye detection in cattle — joint research with Belgorod State Agrarian University
The same model on images from another herd under different lighting

The challenge

From occasional inspection to continuous monitoring

Lameness and conformation are still assessed visually and occasionally: specialists react once signs are obvious, and results depend on their experience and viewing conditions.

Conventional approach

  1. 1Clinical sign
  2. 2Inspection
  3. 3Diagnosis
  4. 4Treatment

Response after symptoms become pronounced

AgroBioSense approach

  1. 1Continuous RGB-D data stream
  2. 2Pattern change
  3. 3Risk signal
  4. 4Targeted veterinary check

Early detection of deviations before clinical signs

to score one animal manually
up to 30 min
agreement of visual scoring on complex traits
up to 70%
occasional assessments per production cycle
1–2

How it works

From video stream to a digital animal profile

A complete data cycle — from image capture to a signal for the veterinarian.

  1. 01

    Data capture

    RGB-D cameras record the animal from several angles; RFID links every frame to a specific animal.

  2. 02

    Detection and tracking

    A neural network finds and follows each animal in the video stream.

  3. 03

    Pose estimation

    The model locates anatomical landmarks: 38 keypoints for locomotion and 43 for conformation.

  4. 04

    3D reconstruction

    The depth map converts keypoint coordinates into metric space.

  5. 05

    Trait calculation

    Body measurements, joint angles, symmetry and indices in centimetres and degrees.

  6. 06

    Time series

    Each animal's individual baseline and deviations from it.

  7. 07

    Risk signal

    A real-time dashboard and a priority list of animals to inspect.

  8. Outcome

    A digital animal profile as the basis for proactive veterinary care

Platform modules

Two modules, one technology core

Both modules share the same RGB-D capture and pose-estimation pipeline but solve different tasks: veterinary care and breeding.

Module 1

Limb Health and Biomechanics Monitoring

The network does not just see “lame / not lame” — it sees changes in movement mechanics. A veterinarian may not yet notice obvious lameness while the structure of the animal's movement has already changed.

  • YOLOv8l-pose model with 38 anatomical keypoints
  • Coefficient of variation of joint angles: 2–3.4% in healthy animals, 19.2% in early lameness, 21.8–26.3% in clinical lameness
  • Lameness index and joint-angle dynamics for every animal in the dashboard
recall
91.74%
keypoint mAP@0.5
83.11%
accuracy in detecting locomotion disorders
up to 96.2%
annotated images of 449 cows
12,000
Module 2

Contactless Linear Conformation Assessment System

The system reports not only a final score but the measured trait itself in centimetres and degrees, so results can be re-checked, compared across animals and tracked over time.

  • Stature, body depth, chest width, rump angle and width, rear legs side view, udder depth
  • Dedicated udder morphometry: 16 reference points and 8 traits (in extended validation)
  • Measurements converted to the 1–9 linear scoring scale and a digital record for breeding work
anatomical landmarks
43
conformation traits in the current version
7
agreement with expert instrumental assessment
>90%
higher throughput
×20

Results

Pilot deployment and impact

In 2026 the system passed pilot production testing at livestock farms.

RGB-D recording passes, 3,534 synchronised streams
1,178
project archive of production footage
>100 TB

Herd of 1,000 animals: manual scoring vs. digital pipeline

MetricManual scoringAgroBioSense
Throughputup to 24 animals a dayup to 480 animals a day
Full assessment cycle≈ 41.7 working days≈ 2.1 working days
Time per animalup to 30 minutes3–5 seconds of capture plus automatic processing
Outputspecialist's scoremeasurements in cm and degrees, evidence frames, 1–9 score
Scalabilitylimited by the number of classifiers and site visitsmass phenotyping with digital records

Ekopole LLC

Verkhny Mamon, Voronezh region

RGB-D data collection under normal production conditions, camera calibration, landmark localisation testing and dashboard output.

Belgorod State Agrarian University

Belgorod

Joint research on detecting animals' eyes in farm imagery.

Awards

Recognition

Gold medal

12th International Exhibition of Inventions

China Association of Inventions

Guangzhou, China · 21–23 August 2026

Invention “Artificial intelligence for early diagnosis of lameness and linear assessment of cattle's exterior”. Certificate No. 202646RU13603.

Certificate, PDF
Winner

Gravitatsiya-2026

International University Award in Artificial Intelligence and Big Data

2026

Category “Algorithms and Software Solutions in AI and Big Data”. Project “AI platform for digital phenotyping of cattle to analyse biomechanical health patterns and linear conformation traits”.

Certificate, PDF

Certificates

State registration certificates

Key results are protected by Rospatent certificates of state registration for computer programs and databases. Right holder: Russian State Agrarian University — Moscow Timiryazev Agricultural Academy.

  • DatabaseNo. 2026622755, 16 June 2026

    Multimodal RGB-D imaging database of Holstein cattle for contactless live-weight estimation

    Open PDF· in Russian
  • Computer programNo. 2026666742, 3 June 2026

    Program for adaptive selection of informative video frames to localise landmarks in cattle conformation assessment

    Open PDF· in Russian
  • DatabaseNo. 2026622314, 22 May 2026

    Cattle image dataset for locomotor function analysis and morphological assessment based on 38 skeletal keypoints

    Open PDF· in Russian
  • DatabaseNo. 2025626469, 24 December 2025

    Cow skeletal keypoints for keypoint detection

    Open PDF· in Russian
  • Computer programNo. 2025695196, 10 December 2025

    Neural network for early-stage lameness classification

    Open PDF· in Russian
  • Computer programNo. 2025695364, 10 December 2025

    Program for statistical analysis and visualisation of cattle joint biomechanics for lameness diagnosis

    Open PDF· in Russian

Publications

Publications and talks

  • 2026Article

    Automated Dairy Cattle Lameness Assessment Using a 38-Keypoint Whole-Body YOLOv8l-Pose Model

    Veterinary World (Q1)

    Accepted for publication

  • 2026Talk

    Livestock: automating health-pattern monitoring with computer vision

    2nd International Forum “Veterinary Safety”, Ministry of Agriculture of the Russian Federation

    23–25 September 2026

Team

Project team

  • Anastasia Grecheneva

    Project lead, PhD (Engineering), Associate Professor, Director of the Project Institute for Digital Transformation of Agriculture

  • Dmitry Proshin

  • Maxim Baknin

  • Sergey Lapshin

  • Sergey Akchurin

  • Alexander Braginets

  • Nikita Farafonov

  • Nikita Vlasyuk

Partners

  • Timiryazev University (RSAU–MTAA)

    Developer and right holder

  • Ekopole LLC

    Pilot production site

  • Belgorod State Agrarian University

    Joint research

What's next

Platform roadmap

The same technology core is being extended to new traits and species. These directions are under research and are not part of the current modules.

  • Behaviour monitoring

    Activity, feed bunk visits and lying time as digital biomarkers compared with each animal's own baseline.

  • Integrated risk pattern

    A combined score from behaviour, morphometry and locomotion, including indirect signs of metabolic disorders. The system flags animals for inspection; it does not diagnose.

  • Other species

    Pigs, poultry and companion animals, with species-specific keypoints and separate clinical validation.

  • Herd management integration

    Exchanging structured animal records with herd management systems; the data format is designed for Russia's federal breeding resources information system.

Contact

Discuss a pilot or partnership

Tell us about your farm or research task — the project team will reply by email.

Or email us

info@timailab.ru

Write to the project team

We will reply to the email you provide.

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