Cut-and-Debone agent
Controls robotic primal cutting, deboning and trimming. Adapts cut path, blade force and seam-following to each animal’s anatomy to maximise saleable yield without bone chips or over-trim.
Slicium is the autonomous operations layer for protein processing — perceiving every carcass, planning every cut, and closing the loop from sensor to blade at line speed.
Runs on the plant edge. Shadow mode first — autonomy only when the numbers earn it.
Design-partner and pilot plants. Names shown are representative programme cohorts. [PLACEHOLDER]
Yield, giveaway, contamination and labour are the four numbers that decide a protein plant’s year. Slicium moves all four.
Incumbents sell a machine, a camera, or a detector. Slicium unifies them into a system of action that adapts to every animal.
Every animal is anatomically unique. The Cut-and-Debone agent maps bone, seam and fat/lean boundaries, then drives cut path, blade force and seam-following per carcass — recovering saleable meat that fixed automation leaves on the bone.
X-ray, RGB and hyperspectral streams are fused at the edge so bone chips, metal, plastic and defects are identified and rejected in tens of milliseconds — with the evidence chain a recall investigation actually needs.
Overshooting target weight bleeds margin on every single pack. The Portion-and-Pack agent predicts weight from geometry and controls the portioner and batcher to land on spec instead of above it.
The closed loop runs entirely at the plant edge, inside your safety and food-safety windows.
Fuse RGB, depth, hyperspectral, X-ray, scale, line-speed and robot-pose streams into one synchronised view of the carcass and the line.
Compute the cut path, blade force and seam, the grade call, the detection verdict and the portion batch — validated in the twin before the blade moves.
Write back into the robotic cell, portioner, grader, rejector and MES with adaptive, per-carcass control at line speed.
Measure realised yield, grade, weight and rejects, log the assurance trail, and feed supervised corrections back into training.
Each agent owns a workflow. The plant orchestrator sequences them, holds the safety envelope and keeps the audit trail.
Controls robotic primal cutting, deboning and trimming. Adapts cut path, blade force and seam-following to each animal’s anatomy to maximise saleable yield without bone chips or over-trim.
Senses and predicts grade, marbling, lean/fat ratio, weight and yield from vision and hyperspectral imaging — before and after the cut.
Fuses X-ray, RGB and hyperspectral streams for foreign-material, defect and contamination detection, plus hygiene and pathogen-risk intelligence.
Controls portioning, slicing, weight-giveaway and fixed-weight batching so every pack lands on target instead of above it.
Drives robotic loading, hanging, handling, packing and palletising in cold, wet, washdown environments rated for daily sanitation.
Optimises line balance, scrap, giveaway and cold-chain flow across the plant, and flags off-spec risk before it reaches the pack.
An Omniverse-based protein twin simulates carcass anatomy, cut sequences and yield, then auto-optimises the cut and portion plan to hit target yield and spec before the blade moves. No other vendor closes that loop.
Protein-processing automation, robotic cutting, vision grading, X-ray inspection and plant MES exceed $25B and grow around 15% a year.
Rare anatomy, bone-chip and contamination patterns learned at one plant transfer, privacy-preserving, to every similar line.
Jetson-class cells, TensorRT, DeepStream and Holoscan fuse sensors deterministically at line speed.
Product specs, HACCP controls, sensor frames, model versions, autonomy level, approvals and outcomes are linked in one graph for recall defence and model governance.
Yield, grade, giveaway, foreign material and autonomy level per line — with the audit trail one click away.
Illustrative console data from a pilot deboning line. [PLACEHOLDER]
“The line does not care that every bird is different — Slicium does. We stopped programming a machine and started supervising an operator that adapts to each carcass.”
“Giveaway was the quiet leak nobody could close. Watching the portioner hold target within a couple of grams, shift after shift, changed the economics of the whole pack line.”
“What sold my team was the audit trail. Every reject links back to the frame, the model version and who approved the autonomy level. That is what a recall investigation actually needs.”
Design-partner quotes are composite and pending publication approval. [PLACEHOLDER]
Read-only tools observe. Slicium acts — through pre-built connectors into cutting, grading, detection, portioning, packing and MES systems.
Food safety and IP protection are not features bolted on later — they are the architecture.
Every plant gets isolated data, models and vector stores. Cut recipes and species models never cross a tenant boundary — federated learning shares patterns, never your product IP.
Immutable logs link sensor frames, model version, autonomy level, approvals, overrides and outcomes for every agent action — built for recall defence and model governance.
Blade, robot and line stops are deterministic and independent of the cloud. Graceful degradation returns the cell to a safe state if perception confidence drops.
Land on a single workflow with clear ROI, then expand across lines, modules and sites under one control plane.
One control plane for every plant, line and cell. Roll a validated cut program from one site to twenty with staged approval.
Fine-tuned anatomy, grade and yield models for your species mix, specs and customer cut sheets — trained on your supervised corrections.
99.9% uptime target, named solutions engineers, on-site commissioning and 24/7 response aligned to your shift patterns.
That variability is the whole point. Fixed automation fails because it repeats one motion; Slicium perceives each animal’s anatomy — bone position, seam location, fat/lean boundary — and plans a cut path, blade force and seam-follow specific to that carcass. The cut is validated against a digital twin that predicts yield before the blade moves.
Slicium runs a graduated autonomy model: shadow, then advisory, then supervised autonomy, each gated by measured accuracy and twin validation. Below the confidence threshold the cell degrades to a safe state, escalates to a human, or routes the product to rework — it never guesses on a food-safety decision.
No. The perception and control loop runs entirely on the plant edge. Cloud is used for training, fleet management and reporting, and can be disabled for on-prem or air-gapped deployments. Federated learning shares model improvements without exposing plant recipes, supplier data or tenant images.
A typical pilot runs one line for 8–12 weeks: two weeks of integration and shadow-mode baselining, four to six weeks of advisory operation, then graduated autonomy against the agreed success metric. Connectors for common cutting, grading, X-ray, portioning and MES systems are pre-built. [PLACEHOLDER]
Run a paid pilot on a single processing line with a defined yield, giveaway or labour success metric. Shadow mode first, autonomy only when the numbers earn it.