Documented field proof
Tuskegee University deployment
The platform is installed and recording 60 cattle across four pens, with synchronized RGB and thermal capture, solar power, on-site compute, storage, and chute reference capture.
Livestock Technologies builds research-grade livestock platforms with synchronized RGB and thermal capture, on-site compute and storage, controlled chute references, versioned outputs, and exports that institutions can inspect.
Research services can be scoped for capture design, graduate projects, grant proposals, export design, and study methods.
Scope a Research Platform
The short answer
The platform provides synchronized field capture, on-site compute and storage, chute references, versioned outputs, and exports. Research teams can scope the equipment, data flow, and services around the needs of their study.
Current work combines deployed infrastructure with study-specific research services and evaluation.
Documented field proof
The platform is installed and recording 60 cattle across four pens, with synchronized RGB and thermal capture, solar power, on-site compute, storage, and chute reference capture.
Equipment-led deployment
Academic teams can scope a one-time equipment deployment with on-site software, storage, versioned outputs, and export requirements.
Available to scope
Capture design, graduate projects, grant support, export design, and methods development can be scoped around the study.

The Livestock Technologies platform is installed and recording 60 cattle across four pens at the Tuskegee University research feedlot under a Sponsored Research Agreement. This documented field deployment combines fixed RGB and thermal cameras, solar power, on-site processing, storage, and controlled chute reference capture.
The deployment provides documented field proof for the equipment and data infrastructure available to research teams.
Read the documented field deploymentScope the equipment, capture plan, exports, and methods around the needs of the study.
01
Scope camera geometry, synchronized RGB and thermal capture, chute references, and the research setting.
02
Align equipment, services, and methods with student research and grant objectives.
03
Define data formats, model-version context, storage, and export design for the study team.
04
Build review workflows and study methods around the questions the research team needs to answer.

Research direction
A controlled passage can provide repeatable camera angles for visible and surface-temperature evidence. Wound-risk screening is a current research direction for teams studying review signals across relevant wounds, coat conditions, and environments.
This work is being developed as a research direction for study teams that want to design capture, labels, review, and export methods around wound-risk questions.
Explore the research directionResearch projects can be proposed as a one-time equipment deployment with on-site software and data infrastructure. Available-to-scope services include capture design, graduate projects, grant support, export design, and methods development. The scope can define equipment ownership, storage, support, updates, and deliverables.
Build a Research ScopeTeams can scope synchronized RGB and thermal capture, on-site compute and storage, chute references, versioned outputs, data exports, capture design, graduate projects, grant support, and methods development.
Academic projects can be scoped as a one-time equipment deployment with on-site software and data infrastructure. The scope defines hardware ownership, support, updates, storage, exports, and optional services.
The Tuskegee University research feedlot deployment is installed and recording 60 cattle across four pens with fixed RGB and thermal cameras, solar power, on-site processing and storage, and chute reference capture.
Tell us the animals, environment, research question, and data needs for your next study. We'll help scope the equipment, services, and exports.