INTEGRATION SUPPORT
Viroteq integration support gives robot system integrators the engineering muscle to deploy AI palletizing cells reliably and on schedule. Our specialists handle vision calibration, robot handshake configuration, MES bridges, and acceptance testing alongside your team. Furthermore, deployment assistance is brand-agnostic across FANUC, ABB, KUKA, Universal Robots, Yaskawa, and Stäubli — so your delivery model stays consistent regardless of the controller mix on the cell. As a result, integrators ship Viroteq-powered cells without absorbing a steep software learning curve.

Cells deployed worldwide
FANUC, ABB, KUKA, UR, Yaskawa
Typical deployment window
Escalation channel for partners
Building a robot palletizing cell looks straightforward on paper. In practice, every deployment hits the same recurring hazards — calibration drift between vision and robot frames, controller quirks specific to each robot brand, MES handshakes that work in staging but stall in production, and acceptance tests that uncover edge cases the simulator never modelled. As a result, structured deployment assistance has become a non-negotiable line item for serious robot cell projects.
Calibration drift is the silent killer. A vision-to-robot transform set in week one rarely survives a forklift bump or thermal cycle without correction. Without specialist assistance, calibration becomes the integrator’s recurring service ticket months after handover. Furthermore, robot brand quirks — FANUC’s signal timing, ABB’s PROFINET configuration, Universal Robots’ RTDE interface, KUKA’s KRL conventions — each demand brand-specific debugging that generalist controls engineers do not always carry.
MES and SCADA integration adds another layer. The end customer’s plant team will not accept a Viroteq cell that does not feed batch and pallet data into the corporate data architecture. Therefore, our deployment engineers map order, batch, and pallet schemas from the runtime to the customer’s MES through REST API, OPC-UA, and WebSocket — without forcing a custom middleware project. According to ISO 10218 industrial robot safety standards, formal acceptance procedures are required for every robot cell, and our deployment assistance closes that gap with documented test plans.
Finally, downtime cost during commissioning is brutal. Every unplanned day on a cell ramp costs the integrator margin and the customer revenue. Viroteq’s structured engagement shortens that ramp with predictable, repeatable phases — and gives the integrator a clear escalation channel for the edge cases that always surface on real production floors.


Every Viroteq deployment engagement starts with a kickoff workshop. Our engineers review the integrator’s cell drawings, robot brand selection — FANUC, ABB, KUKA, Universal Robots, Yaskawa, or Stäubli — payload envelope, target throughput, and the MES or PLC stack on the customer side. From this baseline we build a phased deployment plan, complete with acceptance criteria, milestones, and explicit hand-off points.
During deployment, our specialists work alongside the integrator’s team on robot integration tasks — vision-to-robot calibration, REST and WebSocket configuration, payload tuning, and MES handshake testing. Sessions can be remote over secure VPN or on-site, depending on which mode shortens the ramp. Furthermore, acceptance testing follows a documented FAT/SAT script so the integrator can prove to the end customer that the Viroteq product meets contracted performance.
After production handover, our engagement transitions into a defined warranty and escalation channel. Tier-2 partners certified through our Training program handle most front-line tickets independently. Viroteq retains 24/7 escalation for cases the partner team cannot resolve. As a result, the integrator owns the customer relationship without absorbing the full software burden.
Every Viroteq deployment engagement follows a three-phase model — Discovery & Scoping, Deployment & Calibration, then Acceptance & Handover. Each phase has explicit deliverables, acceptance gates, and a clear hand-off to the next so integrators and end customers always know where the project stands and what blocks the next milestone.

Two- to three-week scoping phase covering cell drawings, robot brand selection, payload envelope, target throughput, and MES handshake requirements. Output is a phased deployment plan with milestones, acceptance gates, and a fixed resource budget.

Hands-on commissioning — vision-to-robot calibration, REST and WebSocket configuration, payload tuning, MES handshake debugging, and operator HMI setup. Remote-first with on-site engineers for the critical calibration sessions where ground truth matters most.

Documented FAT and SAT scripts, supervised production ramp, operator training, and warranty hand-off into the partner escalation channel. The end customer signs off against measurable acceptance criteria, and integration support transitions into ongoing tier-2 partner ownership.
Viroteq engineers travel to the cell for the critical phases — initial vision calibration, factory acceptance, production handover. On-site presence compresses the longest leg of the ramp and gives the integrator's team a knowledge transfer they keep after the visit.
Secure VPN access, screen-share sessions, and live debugging into the cell controller. Remote engineering handles 70%+ of deployment tasks without travel cost, which keeps project margins healthy and shortens iteration loops on calibration and MES handshake bugs.
Documented FAT and SAT scripts, supervised production ramp, and explicit acceptance gates between phases. A phased model means the end customer signs off against measurable criteria — not vague go-live tickets — and the integrator carries that evidence into final invoicing.
Viroteq’s integration support spans the full product range. Whether the integrator is building a single-SKU end-of-line cell with RobotStackr OS, a mixed-line on-the-fly cell with RobotStackr OTF, or an inbound depalletizing station with RobotDepalr, the same engineers, the same APIs, and the same acceptance test framework apply. Therefore, integrators that deploy multiple Viroteq products over time reuse process, tooling, and knowledge between projects rather than rebuilding from scratch.

Deployment assistance for RobotStackr OS cells — pre-validated pattern configuration, PLC handshake setup, FAT scripts, and on-site commissioning for single-SKU production lines running at full cadence.

Deployment assistance for RobotStackr OTF cells — real-time pattern recalculation tuning, MES sequence integration, and acceptance tests covering high-mix orderbook variability. Ideal for tier-1 suppliers and 3PL operations.

Deployment assistance for RobotDepalr depalletizing cells — 3D vision calibration, layer detection tuning, conveyor handoff timing, and inbound supplier load testing across mixed-product pallets.
Viroteq is brand-agnostic by design — and so is our commissioning team. Whether your cell uses a FANUC arm with a PROFINET backbone, a Universal Robot over RTDE, an ABB with PC SDK, or a Stäubli with custom protocol, the same engineers configure the handshake. Furthermore, our team carries deep familiarity with the brand-specific quirks that derail generalist controls engineers — signal timing on FANUC R-30iB, PROFINET module mapping on ABB IRC5, KRL conventions on KUKA, and RTDE register layouts on Universal Robots.
Deployment assistance for the major industrial brands — FANUC R-30iB with PROFINET, ABB IRC5 with PC SDK, and KUKA KRC with KRL. Native handshakes mapped for high-payload palletizing cells and end-of-line automation.
Deployment assistance for collaborative and mid-payload cells — Universal Robots over RTDE and URCap, plus Yaskawa MotoPlus and Ethernet/IP. Suited to lighter-duty palletizing, depalletizing, and cobot-friendly customer environments.
Deployment assistance for Stäubli VAL3 controllers and bespoke custom-protocol robots. Our team has shipped cells with private OEM controllers and proprietary fieldbus stacks — the same brand-agnostic playbook applies once the message schema is documented.

Viroteq engineers anchor vision-to-robot transforms on the physical cell using calibrated fiducials, validating the geometry against the customer’s payload envelope.

Live screen-share sessions over secure VPN where Viroteq specialists adjust vision parameters, segmentation thresholds, and lighting compensation without travelling to the plant.

Documented FAT and SAT runs against measurable acceptance criteria, signed off by the end customer and archived for the integrator’s project closeout dossier.
Typical deployment window
Escalation response time
Cells in production

For robot system integrators, the value of Viroteq’s deployment assistance is measured in three numbers — risk transferred, time-to-revenue compressed, and tier-2 capability built. Every cell deployment carries technical risk that the integrator alone is not always equipped to absorb. Vision calibration that drifts post-handover, MES handshakes that work in staging but fail in production, robot brand quirks that derail commissioning week — these are the moments where a Viroteq specialist on call materially shortens the ramp.
Time-to-revenue is the second dimension. Integrators that wait three months for first invoice on a cell project carry working capital cost that compounds across the portfolio. Deployment assistance compresses commissioning so the customer signs the FAT in week 8 rather than week 14. Furthermore, our engineers carry the playbooks from 1000+ prior cell deployments — the recurring failure modes, the controller-specific debug tricks, and the MES schema mappings that customer plant teams typically expect.
Finally, integration support is the on-ramp to tier-2 partner status. Each Viroteq cell shipped by an integrator builds team capability, certified by our Training program. Over time, partners absorb more of the engineering workload, retain higher service margin on their own deployments, and qualify for project leads referred by Viroteq directly. Therefore, our deployment service is not just a one-off engagement — it is the structured route from first project to a long-term Viroteq partnership.
Our integration support plugs into the integrator’s existing project methodology through three modern protocols. REST API is the primary front door for orders, batches, and pallet metadata, well-documented and easy for the integrator’s controls team to reason about. WebSocket carries live cycle events, sensor feedback, and operator alerts at low latency. OPC-UA bridges to the end customer’s MES, SCADA, and historian platforms without ripping out the existing data architecture. Furthermore, vision-to-robot calibration follows a documented procedure that produces a transform file the partner can re-run autonomously if the camera is bumped.
PLC integration patterns are mature across all major controllers. Native bridges for Siemens S7, Rockwell ControlLogix, and Beckhoff TwinCAT keep the controls engineer in full ownership of the safety and motion stack. Our engineers map digital I/O, status registers, and alarm tables to the Viroteq runtime so the cell coexists with installed fieldbus and ladder logic. As a result, the integrator delivers a cell that the customer’s controls team can maintain, monitor, and extend with their existing toolchain — no proprietary middleware, no parallel software stack.
Bring your cell drawings, robot brand selection, and customer MES specs — Viroteq integration support engineers will map a phased deployment that fits your project timeline and partner economics.
From kickoff workshop to certified handover, Viroteq integration support engineers stay on the project so integrators ship Viroteq-powered cells with confidence and predictable margin.
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