TECHNOLOGY PLATFORM
Edge IPC brings AI inference for robotic palletizing directly onto the factory floor. Viroteq runs every stacking, vision, and motion decision on a ruggedized Industrial PC inside the cell, so latency stays below 10 milliseconds and no production data ever leaves the plant. Furthermore, edge IPC architecture removes cloud dependency entirely, which makes the platform compatible with air-gapped pharma facilities, classified defense sites, GMP-validated cleanrooms, and remote distribution centres without reliable connectivity.

On-site decision latency
No cloud dependency
Classified and GMP-ready
IPC deployments worldwide
Cloud AI sounds elegant in a slide deck, but it falls apart on a real factory floor. Every robotic palletizing cycle has a hard time budget — typically 200 to 400 milliseconds end-to-end. A single round-trip to a cloud inference endpoint already burns 80 to 250 ms before the model even starts computing. Therefore, cloud-based stacking decisions either miss the cycle or force operators to slow the line, which kills the throughput case for automation.
Network reliability is the next problem. Production plants run for years; their internet links do not. A WAN outage, ISP maintenance window, or VPN failure stops a cloud-dependent line cold. By contrast, an edge IPC keeps producing because the Industrial PC inside the cell holds every model, every API, and every state machine the robot needs. As a result, plant uptime is decoupled from external infrastructure entirely.
Security and intellectual-property risk also push customers toward edge IPC deployment. Pharma plants under GMP, defense contractors with classified work, and high-value consumer brands cannot stream production data, vision frames, or recipe metadata to a third-party cloud. Furthermore, regulators increasingly expect data residency inside the facility. According to Intel’s edge computing reference architecture, on-site inference is now the recommended baseline for industrial AI workloads.
Finally, deterministic real-time response is non-negotiable when a robot arm is moving at speed near humans, conveyors, or expensive product. Cloud APIs offer best-effort latency with long-tail jitter measured in seconds. Edge IPC offers bounded, predictable response, which is exactly what safety integrators and process engineers need to sign off a new cell. Viroteq’s technology platform is built edge-first for this reason.


Every Viroteq deployment starts with an edge IPC sitting inside the robot cell. The Industrial PC carries the full StackrBrain inference stack, an optional NVIDIA GPU for accelerated vision, and a hardened Linux runtime with read-only system partitions. Pallet calculation, 3D scene analysis, and motion planning all execute locally — sub-10ms from sensor capture to robot command.
The edge IPC connects directly to the robot controller over standard interfaces. FANUC, ABB, KUKA, Universal Robots, and Yaskawa arms all talk to the unit through native socket or fieldbus protocols, so no vendor SDK is required. Additionally, the same IPC bridges MES, SCADA, and historian traffic via REST, WebSocket, and OPC-UA — without ever opening an outbound internet path. As a result, the cell stays fully operational across air-gapped, audited, or simply disconnected production environments.
Three production-grade products run natively on Viroteq’s edge IPC platform — RobotStackr OS for consistent high-volume palletizing, RobotStackr OTF for real-time mixed-case stacking, and VisionAI Sorting for upstream singulation and inspection. All three share the StackrBrain inference engine, run on the same Industrial PC hardware, and require zero cloud connectivity for normal operation.

RobotStackr OS runs natively on the edge IPC inside the cell, delivering consistent single-SKU palletizing with optimal pre-computed patterns. All pallet logic, robot control, and PLC handshakes execute on-site — no cloud connection required at any point in the production cycle.

RobotStackr OTF recalculates every pallet on the fly using the edge IPC’s local compute. Sub-10ms decisions feed the robot continuously, so mixed-SKU sequences stack at full line cadence with zero pre-planning, zero cloud calls, and zero downtime between products.

VisionAI Sorting runs 3D inspection and singulation directly on the edge IPC’s GPU. Inference happens beside the conveyor — no frames ever leave the plant — so cycle latency stays bounded and vision IP stays inside the air-gapped facility.
Sub-10ms inference end-to-end with bounded jitter. Because the edge IPC computes every pallet, vision, and motion decision locally, latency is set by the cell, not the network. As a result, safety engineers and process owners get the predictable response time that automation sign-off actually requires.
The edge IPC runs without any external network connection. All models, APIs, and state stay inside the cell, which makes Viroteq deployable in classified defense sites, GMP-validated pharma cleanrooms, and remote distribution centres without reliable connectivity. Furthermore, plant IT teams retain complete control over data flow.
AI models update through signed local packages, secure USB transfer, or one-way data diodes — never over a live internet path. Every update validates against a test profile and rolls back automatically if cell metrics degrade. Therefore, the production line stays under strict change-control discipline while still benefiting from improvements.
Edge IPC computing unlocks robotic automation in environments where cloud AI is operationally impossible. From GMP-validated pharma lines and classified defense sites to refrigerated cold-storage warehouses and remote distribution centres, on-site inference keeps cells running with deterministic real-time response. Furthermore, edge IPC architecture lets a single Industrial PC coordinate multiple robots inside one cell, so plants scale from pilot to full rollout without per-arm controller costs. As a result, the same hardware platform supports every Viroteq industry we serve today, and the same platform powers every Viroteq product.
GMP-validated pharma plants run edge IPC inside cleanrooms with no external network, satisfying data-residency and computer-system-validation requirements without cloud dependencies.
Food and beverage facilities under HACCP and IFS audit run edge IPC inside washdown-rated enclosures, keeping pallet and recipe data inside the plant boundary for hygiene and traceability.
Defense contractors and classified industrial sites deploy edge IPC inside secure facility boundaries with zero outbound connectivity. Vision frames, recipes, and pallet metadata never leave the perimeter.
Distribution centres in remote regions with poor or intermittent WAN links run edge IPC continuously. Production never stops because the cell is independent of external internet quality.
Refrigerated warehouses down to -30°C use ruggedized edge IPC chassis with fanless cooling and extended-temperature SSDs. Cold-chain palletizing keeps running while operators stay out of the cold zone.
A single edge IPC coordinates two to four robots inside one cell, synchronising pick, place, and inspection cycles. Multi-cell plants avoid one industrial controller per arm without losing latency budget.

GMP-validated cleanroom palletizing where edge IPC keeps every batch record, vision frame, and pallet metadata inside the validated facility boundary.

Outbound palletizing at a regional DC where WAN is unreliable. The edge IPC keeps shipments moving regardless of internet status or upstream outages.

One IPC orchestrating multiple robots, vision sensors, and conveyors in a single cell — synchronised pick-and-place with deterministic real-time response.
On-site decision latency
IPCs deployed worldwide
Cell uptime target

Viroteq’s edge IPC platform is built from the ground up for the production floor, not the data centre. Standard chassis options run Intel Xeon or Core i7 processors with 32 to 64 GB ECC RAM, dual M.2 NVMe SSDs in mirrored configuration, and an optional NVIDIA RTX-class GPU for accelerated vision inference. Furthermore, the entire system is fanless on most models, which eliminates the single largest source of mechanical failure in industrial computing.
Ruggedization matters because the cell is not a server room. Operating temperature ranges run from -20°C to +60°C as standard, with extended cold-chain variants down to -30°C and high-temperature options up to +70°C. IP54 and IP65 ratings protect against dust and washdown, and NEMA 4X stainless variants serve corrosive food and chemical environments. MTBF figures exceed 100,000 hours in the field, which translates to multi-year operation without scheduled hardware intervention.
Redundancy patterns scale with criticality. Single-IPC cells suit pilot and standard production. Dual-IPC active-passive configurations bring sub-second failover for 24/7 lines. Storage is always mirrored, network interfaces are bonded, and uninterruptible power keeps the runtime alive through brownouts. As a result, plant maintenance teams treat the edge IPC like any other piece of industrial automation — installed, monitored, and serviced through the normal CMMS workflow.
Software deployment follows the same discipline. AI models, runtime updates, and configuration packages are signed, versioned, and rolled out through staged release windows. Test profiles validate every change against a known-good cell metric baseline before promoting to production. Therefore, the line stays under strict change-control discipline that satisfies pharma CSV, food HACCP, and automotive IATF audits. To explore Viroteq’s full product range on the edge IPC platform, talk to a specialist about your line.
Edge IPC integrates with your existing facility through three industrial protocols — all of them local. REST API is the primary interface for MES, ERP, and WMS order exchange, served by the IPC on the plant LAN. OPC-UA bridges SCADA dashboards, historians, and engineering workstations without requiring an outbound internet path. WebSocket carries live cycle events, sensor feedback, and operator HMI updates at low latency. Furthermore, robot controllers from FANUC, ABB, KUKA, Universal Robots, and Yaskawa connect through their native protocols directly to the IPC.
Network isolation is the design baseline. The edge IPC sits on a dedicated cell VLAN, behind plant firewalls, with no required outbound rules. Monitoring runs through the same local channels — Prometheus metrics, syslog, and SNMP all land on plant infrastructure rather than vendor cloud. As a result, plant IT teams retain full ownership of the security perimeter while still benefiting from modern observability, and edge IPC deployments slot cleanly into existing OT/IT segmentation policies without exception requests.
Local HTTPS endpoint on the cell LAN for order, batch, and pallet data — no outbound internet path.
Bridge to SCADA, plant historians, and engineering workstations via the industrial data standard.
Native handshakes for SAP, Wonderware, and Ignition deliver pallet, batch, and trace data on the local network.
Fully on-premise operation with no outbound network rules — compatible with classified and GMP environments.
Book a personalised demo and see how the Viroteq edge IPC platform delivers sub-10ms decisions inside your plant boundary — no cloud, no vendor lock-in, no compromises on GMP, security, or uptime.
Bring your line specs, security boundary, and throughput targets — Viroteq specialists will map an edge IPC deployment that fits inside your cell footprint and your IT policy.
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