Why it matters
Without it, paddocks can accumulate parasite burden unevenly, waste handling delays occur, and biosecurity lapses lead to outbreaks or poor turnout management. Correct use reduces risk and supports compliance.
From design to safety
Design
AI-guided paddock design
Reads forage availability, water points, stocking rates, fencing layouts, and grazing rotation goals to propose paddock design and group allocation for parasite considerations, shade access, windbreak placement, and water trough capacity.
- Paddock vacuum unit
- Faecal sampling kit
- Grazing group mapping tablet
Build
Install data-enabled components
Incorporates the vacuum unit, collection bins, sampling kits, FEC analyser, data gateway, and gate actuators into paddocks, fencing, and route sensors with calibration routines and redundancy.
- Paddock vacuum unit
- Droppings removal rake with collection bin
- Portable faecal egg count analyzer
- Worm burden data integration gateway
Operation
Active parasite-aware grazing
Continuously reads dung counts, sample results, and herd movement; updates risk maps; triggers cleaning queues and rotation changes per group based on moisture, temperature, stocking density, and forage quality.
- Paddock vacuum unit
- Faecal sampling kit
- Grazing group mapping tablet
Maintenance
Routine waste and parasite checks
Monitors filter wear, bin integrity, reagent expiry, calibration drift, and device health; prompts maintenance or replacement of consumables and devices and records service events with serial logs.
- Paddock vacuum unit
- Faecal sampling kit
- Portable faecal egg count analyzer
Safety
Biosecurity and welfare guardrails
Flags irregular fecal patterns, enforces isolation for suspected cases, logs movements, and ensures licence-compliant record keeping with audit trails, including staff access and vehicle entries.
- Grazing group mapping tablet
- Worm burden data integration gateway
Part by part
- 1
Paddock vacuum unit
- Watch for
- clogging of intake, filter wear, motor overheating
- AI action
- detect clog risk, prompt cleaning cycle, schedule preventive service with technician notes
- 2
Droppings removal rake with collection bin
- Watch for
- tine wear, bin overflow, improper collection
- AI action
- alert for maintenance and schedule dumping rounds, log bin fill rate and location accuracy
- 3
Faecal sampling kit
- Watch for
- contaminated samples, expired reagents
- AI action
- warn to replace reagents, re-sample if needed, record sampling time and operator ID
- 4
Portable faecal egg count analyzer
- Watch for
- calibration drift, reagent failure
- AI action
- prompt recalibration, run validation tests, log QC results against standard controls
- 5
Worm burden data integration gateway
- Watch for
- data sync failures, data mismatch
- AI action
- retry transfer, raise yard manager alert, reconcile with lab reports
- 6
Grazing group mapping tablet
- Watch for
- group-horse mismatch, placeholder flags
- AI action
- auto-reallocate groups, trigger rotation plan, flag welfare concerns by group
Worked example
Catching a parasite spike before paddock rotation
Illustrative scenario with sample data.
A paddock pair shows rising dung counts after a weather shift; AI signals adjust grazing groups and order parasite checks before rotation.
Signal in
paddock_id: P1, group: A, dung_count: 12 per m2, last_rotated: 14d, FEC: pending, weather: wet, stocking_density: 2.8 ha per group, forage_quality: moderate, water_spot: W2
System out
alert: rising parasite risk in P1; action: schedule sampling, initiate rotation of Group A, notify yard manager; set next check in 7 days; log rotation decision and welfare notes
Human sign-off: yard manager reviews the risk alert, approves rotation adjustment, and confirms sampling schedule with the head grooms
How to roll it out
Phase 1
Weeks 1 to 2
Install hardware, calibrate devices, and train staff on data entry and safety checks.
Phase 2
Weeks 3 to 6
Run baseline dung counts, establish group rules, and begin routine sampling cycles.
Phase 3
Weeks 7 to 12
Refine risk maps, automate rotation schedules, and integrate with welfare records and licensing.
Where people stay in charge
- Herd grouping decisions and rotation must be signed off by the yard manager using welfare and forage data.
- All biosecurity actions, including isolation and cleaning, require veterinary sign-off prior to execution.
- Changes to licencing-related records must be reviewed by the compliance lead and archived in the licensing file. Most fields must be verified before submission.
Questions owners and crews ask
How does AI monitor parasite risk in paddocks for grazing management?
AI reads dung counts and sampling results, maps parasite risk, and triggers cleaning and rotation actions; it logs this for welfare reviews and compliance checks.
What data do I need to start AI poo picking in paddocks?
You need paddock maps, horse IDs, current stocking densities, baseline dung counts, sampling protocols, weather inputs, and access to a portable parasite analysis tool.
Can this system replace manual poo picking entirely?
No, it augments staff by prioritising routes, scheduling, and enabling timely parasite checks while maintaining hands-on management.
What records are required for licensing and inspections?
Paddock maps, parasite risk logs, rotation schedules, welfare checks, and staff training records must be maintained.