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Cytiva portfolio vs. QB Control

Cytiva portfolio vs. QB Control

Connectivity, data exchange & control capabilities

Cytiva vs QB Control

Flexible. Innovative. Limitless.

CONFIDENTIAL Disclaimer & Confidentiality Notice

For Danaher/Cytiva Recipients Only. This document has been prepared by QB Systems (A4BEE Sp. z o.o.) for the exclusive use of Danaher Corporation and Cytiva personnel. The contents are confidential and should not be distributed, reproduced, or shared with third parties without prior written consent from QB Systems.

Basis of Analysis: The information regarding Cytiva solutions presented in this document has been compiled entirely from publicly available sources, including published product datasheets, technical manuals, installation guides, application notes, and press releases accessible via cytivalifesciences.com and third-party industry publications. The information regarding QB Systems solutions (QB Control, QB Modules, and related products) is based on internal A4BEE documentation, product catalogs, and technical specifications.

No Warranty: While every effort has been made to ensure accuracy, this analysis is provided "as-is" for informational and strategic evaluation purposes. Product specifications, pricing, and capabilities may change without notice. QB Systems makes no representations or warranties regarding the completeness or accuracy of Cytiva product information, which should be independently verified with Cytiva for any procurement or integration decisions.

QB Systems → Cytiva Connectivity Map

This document is a QB Systems connectivity map into the Cytiva bioprocessing portfolio — it identifies, for every Cytiva system (bioreactors, chromatography, filtration, cell therapy, enterprise automation), which QB product connects , via which QB-native protocol , and what data and control flows in each direction. It is not a generic survey of Cytiva's connectivity options. Each Cytiva system is analyzed through a single lens: how QB Systems reaches it.

Five QB-native connection paths cover the entire portfolio: (1) MTP — native on Figurate DCS and native across all QB products; (2) OPC UA dual-mode — reading ÄKTA/WAVE/Figurate and exposing QB data back; (3) Modbus — direct to Xcellerex sensors and legacy devices; (4) REST/MQTT bridge — for any IT-layer, LIMS, ELN, or cloud target; (5) protocol-translation gateways — for EtherNet/IP, PROFIBUS, OPC DA, and Pall Link endpoints.

1 Executive Summary

Cytiva (a Danaher company) operates one of the broadest bioprocessing portfolios in the industry, spanning bioreactors, chromatography, filtration, cell therapy, and enterprise automation. This document assesses how QB Systems connects to each Cytiva product line — Xcellerex, ÄKTA, ReadyToProcess WAVE, iCELLis, Sefia, FlexFactory, and Figurate — and identifies the specific QB-native path that establishes the bridge in every case.

There is no Cytiva system in scope without a QB connection path. The strongest alignment is at the MTP layer : Cytiva's Figurate DCS supports MTP natively, and QB Systems are natively MTP-capable across all products — which means QB units plug into Figurate-controlled facilities as first-class modules without middleware, custom engineering, or protocol translation. For systems without MTP exposure, QB Control's dual-mode OPC UA (client + server), native Modbus , and REST/MQTT stack cover direct integration; residual endpoints (OPC DA, EtherNet/IP, PROFIBUS, Pall Link) are reached via QB protocol-translation gateways. The result: QB Systems functions as the unifying connectivity fabric across Cytiva's multi-protocol portfolio.

2 Cytiva Product Portfolio Overview

Category Key Product Lines Scale Range Primary Application
Stirred-Tank Bioreactors Xcellerex XDR, X-platform 10 L – 2,000 L Cell culture, upstream bioprocessing
Rocking Bioreactors ReadyToProcess WAVE 25 0.1 L – 25 L Seed train, cell expansion
Fixed-Bed Bioreactors iCELLis Nano/500 Nano – 500 m² Adherent cell culture, viral vectors
Chromatography Systems ÄKTA pure, process, ready, pcc Lab – production Protein purification, downstream
Filtration Systems ÄKTA flux, readyflux, readyflux XL Lab – manufacturing TFF, UF/DF, cross-flow filtration
Cell Therapy Platforms Sefia S-2000, Select, Expansion Clinical manufacturing CAR-T, cell processing, gene therapy
Enterprise Automation FlexFactory, Figurate DCS, Chronicle Facility-wide DCS, MES integration, batch records

3 Cytiva Systems Connectivity Analysis

3.1 Xcellerex X-Platform Bioreactors (Stirred-Tank)

Control Architecture: Figurate automation platform powered by Rockwell PlantPAx DCS or Emerson DeltaV DCS. HMI panel for local operation.

Protocol Options Requirements QB Systems Integration
Modbus TCP None — direct network access to Xcellerex sensor subsystem — QB Control speaks Modbus TCP directly
EtherNet/IP EtherNet/IP scanner (internal subsystem bus) — EtherNet/IP-to-OPC UA bridge
OPC DA/UA Figurate DCS (Rockwell PlantPAx or Emerson DeltaV) required as intermediary layer — QB Control OPC UA Client via Figurate
Wireless Vendor-specific probe calibration handshake; local instrument only — calibration data ingested via REST adapter

Direct device control: Not available from external systems. All control commands must pass through the Figurate DCS layer (PlantPAx or DeltaV). Data extraction: Available via Modbus TCP (sensor-level) and OPC DA/UA (DCS-level). No native REST API, MQTT, or modern IT-protocol access.

3.2 ReadyToProcess WAVE 25 (Rocking Bioreactor)

Control Architecture: Embedded Process Controller (EPC) with local HMI. UNICORN software for method programming and execution.

Protocol Options Requirements QB Systems Integration
OPC DA Pre-installed OPC DA server on EPC; no additional hardware — via OPC DA-to-UA protocol translation
OPC UA UaGateway software (separate install on client PC) — QB Control OPC UA Client
OPC UA Tunneller Additional OPC Tunneller software for firewall traversal — not required for local network

Remote control: Possible via OPC DA from SCADA/DCS systems, but requires explicit SCADA infrastructure configuration. Data extraction: Natively available via OPC DA server on the EPC. OPC UA requires additional UaGateway software. No native MQTT or REST API.

3.3 iCELLis Fixed-Bed Bioreactors

Control Architecture: mPath Control Tower with Pall Link software for system management and control.

Protocol Options Requirements QB Systems Integration
Pall Link (proprietary) Pall Link Server (Cytiva-supplied); closed proprietary protocol — via Pall Link Server OPC DA exposure (read-only)
OPC DA Pall Link Server exposing OPC DA endpoint; read-only — OPC DA-to-UA protocol translation
Ethernet Transport layer only; Pall Link runs over it — used as carrier for OPC DA translation path (see above)

Proprietary Pall Link protocol creates vendor lock-in. Limited interoperability with non-Cytiva systems. No standard industrial protocol for external write access.

3.4 ÄKTA Chromatography Systems

Control Architecture: UNICORN software (versions 5.x through 7.6) running on dedicated workstation or EPC. All ÄKTA systems share UNICORN as common control platform.

Protocol Options Requirements QB Systems Integration
OPC DA Pre-installed on UNICORN EPC; OPC Security configuration required — OPC DA-to-UA translation
OPC UA UNICORN 7.x licensed OPC UA add-on (separate purchase) — QB Control OPC UA Client (requires UNICORN license)
EtherNet/IP ÄKTA process EtherNet/IP gateway module (optional) — EtherNet/IP-to-OPC UA bridge
PROFIBUS Optional ÄKTA process PROFIBUS DP node; PROFIBUS master required — PROFIBUS-to-OPC UA bridge
File export (ZIP) Offline; UNICORN workstation file-system access required — file-ingest adapter for LIMS/ELN (batch/historical only)

Remote control: Available via OPC DA for authorized SCADA/DCS clients. Requires UNICORN OPC Security configuration. Data extraction: Rich data via OPC DA/UA (real-time) and ZIP file export (batch/historical). OPC UA is separately licensed. UNICORN is Windows-only.

3.5 ÄKTA Filtration Systems

Control Architecture: UNICORN software for method creation, system control, and process evaluation. Same platform as chromatography systems.

Protocol Options Requirements QB Systems Integration
OPC DA Pre-installed on UNICORN EPC; OPC Security configuration required — OPC DA-to-UA translation
OPC UA UNICORN 7.x licensed OPC UA add-on (separate purchase) — QB Control OPC UA Client (requires UNICORN license)
PROFIBUS Optional PROFIBUS DP node; PROFIBUS master required — PROFIBUS protocol-translation gateway

3.6 Sefia Cell Therapy Platform

Control Architecture: Integrated instrument controller with Chronicle automation software overlay for facility-wide orchestration.

Protocol Options Requirements QB Systems Integration
Chronicle (proprietary) Chronicle server (Cytiva-supplied); closed orchestration layer — via Chronicle MES/LIMS export hooks
Ethernet Instrument telemetry and alarm feed on local network — via TCP/IP ingest adapter
Third-party integration Chronicle middleware license + custom integration configuration; typical MES/LIMS/QMS bridging — via REST API connectors

Chronicle is a closed ecosystem. Integration with non-Cytiva instruments requires custom configuration. Not designed for real-time external API access.

3.7 FlexFactory & Figurate Enterprise Automation

Control Architecture: Figurate DCS platform, available for Rockwell PlantPAx, Emerson DeltaV, and Siemens PCS 7.

Protocol Options Requirements QB Systems Integration
MTP (NAMUR NE 148) Native on Figurate DCS orchestration layer; modular automation standard — QB registers as PEA, no middleware
OPC DA/UA Primary DCS data exchange; no additional hardware — QB Control OPC UA dual-mode (Client + Server)
EtherNet/IP Rockwell PlantPAx fieldbus (internal to DCS) — EtherNet/IP-to-OPC UA bridge (optional direct path)
PROFIBUS/PROFINET Siemens PCS 7 fieldbus (internal to DCS) — PROFIBUS/PROFINET-to-OPC UA bridge
HART HART multiplexer/gateway for smart-sensor diagnostics — HART multiplexer to OPC UA
Modbus TCP Direct network access for legacy sensor/device data — QB Control speaks Modbus TCP directly
AVEVA PI AVEVA PI System license (enterprise historian) — QB OPC UA Server feeds PI directly
MES/EBR interfaces MES software license and integration configuration — QB REST API or OPC UA

Remote control: Full capability through DCS workstations. Remote access for Cytiva technician maintenance. Data extraction: AVEVA PI Historian provides enterprise-grade data aggregation. Key limitation: Requires full DCS infrastructure ($500K–$2M+). Massive overkill for lab/pilot scale.

4 Cytiva Systems Connectivity Matrix

System MTP OPC DA OPC UA Modbus EtherNet/IP PROFIBUS MQTT REST API
Xcellerex X-platform
WAVE 25
iCELLis
ÄKTA Chromatography
ÄKTA Filtration
Sefia
FlexFactory/Figurate

Native = built-in, no extra cost Licensed = additional purchase Gateway = additional hardware/software or protocol translation Via = through intermediary layer — = not supported

5 Cytiva Systems Connectivity Options

5.1 The Critical Distinction

  • Collecting sensor readings and process parameters

  • Generating reports and trend analysis

  • Sending data to LIMS, ELN, or data historians

  • Monitoring alarms and equipment status

  • No ability to change process conditions

  • Changing setpoints (temperature, pH, DO, agitation)

  • Starting/stopping processes, methods, or recipes

  • Adjusting pump flow rates, valve positions

  • Executing automated sequences and batch recipes

  • Modifying alarm thresholds and safety interlocks

5.2 Cytiva's Three-Layer Control Hierarchy

5.2.1 Where QB Systems Plugs In at Each Layer

For most Cytiva systems, achieving remote control (Layer 2) traditionally requires a full DCS infrastructure. Without DCS, external systems can only perform data extraction (Layer 3). This creates a binary cost decision : either invest $500K+ in DCS infrastructure for full control, or accept read-only data access. QB Systems eliminates this binary by operating as a Layer-2 supervisory bridge itself — via MTP (into Figurate) or OPC UA dual-mode (into UNICORN, Figurate, WAVE EPC) — at a fraction of DCS cost, while simultaneously handling Layer-3 IT-protocol feeds natively.

5.3 Per-System Control Capability Summary

System Local Control Remote Control Data Extraction QB Systems Access Route
Xcellerex X-platform Full Full (Figurate) Modbus read-only Modbus TCP (direct, native) + OPC UA via Figurate
WAVE 25 Full Full (OPC DA) OPC DA read + file export OPC UA Client via UaGateway (or QB OPC DA-UA translation)
iCELLis Full Limited (Pall Link) OPC DA read-only QB OPC DA-to-UA translation gateway (Read)
ÄKTA Chromatography Full Full (OPC DA) OPC DA read + file export OPC UA Client (licensed) or OPC DA-UA translation + REST webhooks
ÄKTA Filtration Full Full (OPC DA) OPC DA read + file export OPC UA Client + PROFIBUS translation gateway
Sefia Full Via Chronicle Chronicle export REST API via LIMS + Ethernet telemetry ingest
FlexFactory/Figurate Full Full (Figurate DCS) AVEVA PI read Native MTP (PEA) + OPC UA dual-mode (Read/Write)

The QB access-route column identifies the concrete connection mechanism used by QB Control in each scenario. Every Cytiva system has at least one QB-native path; FlexFactory/Figurate is the strongest case (native MTP on both sides, zero middleware).

6 Cytiva and QB Systems Comparison

6.1 Architectural Philosophy

Aspect Cytiva Ecosystem QB Control
Control architecture 3-layer hierarchy: local → DCS → enterprise Flat: browser-based portal directly controls all devices
Device connectivity Per-device protocols (OPC, Modbus, EtherNet/IP, proprietary) PoE auto-discovery — plug in, it appears
Software platform UNICORN (Windows-only) + Figurate DCS + Chronicle Browser-based portal (any device, any OS)
Protocol stack OPC DA/UA, Modbus, EtherNet/IP, PROFIBUS (industrial) MTP, MQTT, REST API, SQL, OPC UA, Modbus (modular + modern IT + industrial)
Modular plug-and-play (MTP) Native on Figurate DCS Native across all QB products — QB units register as PEAs directly into Figurate without middleware
Multi-vendor integration Limited to Figurate-supported equipment Native Hamilton, Mettler Toledo; extensible via MQTT/REST
Remote control path Requires DCS infrastructure ($500K+) Built into every installation (browser access)
Data access OPC + file export + AVEVA PI historian Native time-series database with export, REST API, real-time MQTT
GAMP classification Category 5 (DCS = custom coded) Category 4 (configurable) — 50–70% less validation

6.2 Protocol Comparison

Protocol Cytiva QB Control Advantage
MTP (NAMUR NE 148, modular automation) Native on Figurate DCS Native across all QB products Both supported natively — plug-and-play modular integration with zero middleware
OPC DA Native on most systems Supported with protocol translation (OPC DA-to-UA gateway) Both supported — QB via translation
OPC UA Licensed add-on or via gateway Both supported — QB native, Cytiva licensed
Modbus Native on X-platform sensors Both supported natively
EtherNet/IP Native on Xcellerex, ÄKTA process Supported with protocol translation (EtherNet/IP gateway) Both supported — QB via translation
PROFIBUS/NET Available on ÄKTA and FlexFactory Supported with protocol translation (PROFIBUS/NET gateway) Both supported — QB via translation
MQTT Not supported QB Control
REST API Not supported QB Control
Time-series DB / data export Not supported natively (requires AVEVA PI) QB Control
WebSocket Not supported Browser-based real-time QB Control

MTP (Module Type Package, per NAMUR NE 148 and VDI/VDE/NAMUR 2658) is the modern modular-automation standard that lets process equipment register as self-describing modules into an orchestrating DCS. Cytiva's Figurate DCS supports MTP natively , and QB Systems are natively MTP-capable across all QB products . This is the rare case where the two ecosystems align at the modern-standards tier rather than diverge — in a Figurate-controlled facility, QB units plug in as first-class PEAs without middleware, OPC UA gateways, or custom engineering. The table above lists MTP as the first row for exactly this reason: it is the deepest and cleanest integration path available.

6.3 Cost of Connectivity

Scenario Cytiva Cost QB Control Cost
Single bioreactor, local control $50K–150K $15K–25K
4-bioreactor lab, centralized monitoring $300K–500K $60K–85K
4-bioreactor lab, remote control $600K–1M+ $60K–85K (included)
Pilot, 6–8 bioreactors, full automation $1M–2.5M+ $100K–250K
System integrator cost $100K–300K per engagement $0 (plug-and-play)
Annual software licensing $20K–100K/year $0 (perpetual license)

7 QB Systems Products × Cytiva Products: Integration Analysis

This section maps concrete integration scenarios between specific QB Systems hardware/software products and specific Cytiva systems, with a heavy focus on OPC UA connector integrations (QB Control as both OPC UA client and server) and REST API-based integrations .

7.1 QB Systems Products for Integration

QB Systems Product Type Integration-Relevant Capabilities
QB Bioreactor Hardware + QB Control Full sensor suite (pH, DO, temp, agitation), recipe execution, MQTT/REST/SQL output
QB Autosampler Hardware + QB Control Time/event-triggered sampling, syringe pump + selector valve, volume-controlled collection
QB Filtration System Hardware + QB Control Pump control, TMP monitoring, flux measurement, automated TFF/UF/DF sequences
QB Precise Dosing & Feeding Hardware + QB Control Gravimetric feeding, balance integration, PID control loops, feed strategy profiles

7.2 OPC UA Integration Architecture

7.2.1 QB Control as OPC UA Client → Reading from Cytiva Systems

Per-Cytiva System: OPC UA Client Integration Details

Cytiva System OPC UA Server Source Data Points (Read) Complexity
ÄKTA pure/process UNICORN 7.x OPC UA (licensed) UV, conductivity, pH, pressure, flow rate, fractions, method status Medium
ÄKTA readyflux UNICORN 7.x OPC UA TMP, flux, permeate flow, feed/retentate pressure, UV, conductivity Medium
WAVE 25 EPC OPC DA + UaGateway Rocking rate, angle, temperature, DO, pH, bag volume, method status Medium-High
Xcellerex X-platform Figurate DCS OPC UA (or MTP via Figurate) pH, DO, dCO&sub2, temp, agitation, gas mix, pressure Low (MTP) / High (OPC UA)
FlexFactory/Figurate Native MTP (primary) + Figurate DCS OPC UA Facility-wide process data, batch states, alarms; QB registers as PEA Low (native MTP on both sides)
iCELLis OPC DA via Pall Link — reached via QB OPC DA-to-UA translation gateway Temperature, pH, DO, gas flow, batch status Medium (via QB translation)
Sefia No OPC exposure — use REST via LIMS instead Batch data via Chronicle/LIMS join Medium (REST path)

7.2.2 QB Control as OPC UA Server → Exposing Data to Cytiva/DCS

Key OPC UA Server Use Cases:

Use Case External OPC UA Client Data Exposed Direction
Unified facility view Figurate DCS All QB bioreactor, autosampler, filtration, dosing data Read
Historian aggregation AVEVA PI System All QB process data with timestamps Read
DCS supervisory override Figurate DCS QB setpoints for critical parameters Write
Method coordination UNICORN OPC Client Autosampler status, filtration completion flags Read
MES batch tracking MES System QB batch states, recipe phases, alarm events Read

7.2.3 Bidirectional OPC UA: Full Integration

7.2.4 Native MTP Alignment — The Deepest Integration Layer

Cytiva's Figurate DCS natively supports MTP (Module Type Package, NAMUR NE 148 / VDI/VDE/NAMUR 2658), the modern modular-automation standard that lets process equipment register as self-describing Process Equipment Assemblies (PEAs). QB Systems are natively MTP-capable across all products — QB Bioreactor, QB Autosampler, QB Filtration, and QB Precise Dosing each ship as MTP-enabled PEAs out of the box.

This is the strongest integration story in the entire document: for Figurate-controlled facilities, QB units plug in directly as first-class modules. No OPC UA server/client configuration. No middleware. No custom integration code. No gateway hardware. No DCS I/O engineering. The Figurate orchestration layer discovers the QB PEA, reads its MTP definition, and integrates it into batch recipes, supervisory control, and facility-wide sequencing automatically.

Practical implication: A pharma/biotech site running Figurate today can deploy QB Bioreactor or QB Autosampler modules and have them appear as orchestrated units within the existing Figurate facility — typically within hours of physical installation, versus weeks of engineering for OPC UA integration or months for custom DCS function-block development.

7.3 REST API Integration Scenarios

Real-time streaming of all connected device data to cloud and analytics platforms

Programmatic access: GET data, POST commands, PUT setpoints, trigger webhooks

High-frequency sensor data storage with built-in export (CSV, PDF), queryable via REST API for analytics, ML/AI, Power BI, Grafana

REST API × Cytiva Integration Scenarios:

Scenario How It Works QB Product(s) Cytiva Product(s)
Unified LIMS data QB REST API pushes bioreactor/sampling data to LIMS; UNICORN ZIP exports parsed separately QB Bioreactor, Autosampler ÄKTA pure/process
Auto sampling → chromatography QB Autosampler completes sample → REST webhook notifies orchestrator → triggers ÄKTA method via OPC UA QB Autosampler ÄKTA pure
Adaptive feeding ML model reads QB Bioreactor data via REST API, calculates optimal feed rate, writes setpoint to QB Dosing via REST QB Bioreactor, Dosing Cytiva VCD probes via OPC UA
Cross-scale comparison REST API exports QB pilot data; compared with Xcellerex production data extracted via OPC UA QB Bioreactor Xcellerex X-platform
Regulatory dossier REST API pulls QB audit trail + batch reports; combined with Chronicle batch records All QB products ÄKTA, Sefia, Chronicle
Cloud dashboard REST API streams to Grafana/Power BI; Cytiva data joins via OPC UA → QB → REST pipeline All QB products Any with OPC UA

REST API vs. OPC UA: When to Use Which

Criterion OPC UA REST API
Best for Real-time process data between control systems IT-layer: cloud, LIMS, ELN, analytics
Latency Milliseconds (subscription-based) Seconds (request/response or webhook)
Security X.509 certificates, OPC UA policies HTTPS + API keys / OAuth
Firewall Requires OPC UA port config Standard HTTPS (443) — firewall-friendly
DCS integration Native — DCS speaks OPC UA Not native — requires custom work
LIMS/ELN integration Not native Native — REST is standard IT protocol
Cloud integration Complex — needs UA cloud gateways Simple — standard HTTPS calls

7.4 Product-to-Product Integration Matrix

QB Bioreactor × Cytiva Systems

Cytiva System Protocol Direction Use Case
ÄKTA pure/process OPC UA Client Read Display chromatography progress on bioreactor dashboard; correlate harvest → purification timing
ÄKTA readyflux OPC UA Client Read Monitor downstream filtration (TMP, flux) alongside upstream bioreactor data
WAVE 25 OPC UA Client Read Seed train monitoring — track expansion in WAVE alongside inoculation into QB Bioreactor
Xcellerex OPC UA Client (via Figurate) Read Scale comparison: production Xcellerex data alongside QB pilot bioreactor data
Figurate DCS OPC UA Server Read/Write DCS incorporates QB bioreactor into facility view; optional DCS override of setpoints

QB Autosampler × Cytiva Systems

Cytiva System Protocol Direction Use Case
ÄKTA pure OPC UA + REST webhook Bidirectional Autosampler takes sample → webhook triggers ÄKTA analytical method → results read back via OPC UA
Sefia REST API (via LIMS) Read Cell therapy process samples pushed to LIMS; join with Sefia batch records
Figurate DCS OPC UA Server Read DCS monitors sample count, timing, and sequence status in production supervisory view

QB Filtration System × Cytiva Systems

Cytiva System Protocol Direction Use Case
ÄKTA pure/process OPC UA bidirectional Coordinated QB Filtration completes UF/DF → flag read by ÄKTA → automatic capture chromatography start
ÄKTA readyflux OPC UA Client Read Side-by-side comparison of QB vs. Cytiva TFF for scale-down model validation
Xcellerex OPC UA Client (via Figurate) Read Monitor harvest from Xcellerex → auto-start QB clarification when harvest complete
Figurate DCS OPC UA Server Read/Write DCS includes QB Filtration in facility batch sequence; can override pump speeds

QB Precise Dosing & Feeding × Cytiva Systems

Cytiva System Protocol Direction Use Case
Xcellerex X-platform OPC UA Client + QB write Read → Calculate → Write Transformative: QB reads VCD/glucose from Xcellerex via OPC UA → calculates optimal feed rate → adjusts QB pump. Adaptive feeding for Cytiva bioreactors without DCS recipe modification
WAVE 25 OPC UA Client + QB write Read → Calculate → Write QB reads culture parameters from WAVE → adjusts gravimetric feed for precise nutrient delivery during seed train
ÄKTA pure REST API webhook Event-triggered QB Dosing adds buffer/reagent to chromatography prep tank based on ÄKTA method requirements
Figurate DCS OPC UA Server Read/Write DCS monitors feed rates, total volumes, balance readings; can override feed strategy

7.5 Complete Facility Integration Architecture

7.6 Coexistence Scenarios

Scenario Cytiva Role QB Systems Role Primary Protocol
Lab: ÄKTA + QB bioreactors ÄKTA chromatography (UNICORN) QB Bioreactor, Autosampler, Dosing + ÄKTA data on QB dashboard OPC UA Client + REST
Pilot: Cytiva seed + QB production WAVE 25 seed expansion QB Bioreactor production, QB Filtration harvest, QB Dosing feeding OPC UA Client
Pilot: Xcellerex + QB analytical Xcellerex bioreactors (Figurate DCS) QB Autosampler at-line sampling, QB Dosing supplemental feeding OPC UA bidirectional
Facility: FlexFactory + QB lab FlexFactory GMP production QB Control for R&D/PD lab; data to AVEVA PI via OPC UA Server OPC UA Server
CDMO: Multi-client FlexFactory for client A (large mAb) QB Control for client B (fast deploy, different process) REST API (independent)
Cell therapy: Sefia + QB Sefia cell processing QB Bioreactor expansion, QB Dosing media feeding REST API (via LIMS)

8 Strengths Assessment

8.1 Cytiva Strengths

8.2 QB Systems Strengths

9 A4BEE Integration Experience & QB Control Integration Roadmap

A4BEE Sp. z o.o. (the company behind QB Systems) has accumulated extensive hands-on experience integrating a wide range of bioprocessing instruments and software platforms through its system integration projects for pharmaceutical, biotech, and CDMO clients. This experience forms the technical foundation for QB Control's 2026 integration roadmap.

The integrations listed below reflect A4BEE's proven project experience with these instruments and software platforms in broader system integration contexts. Not all of those integrations are available as a production-ready features in QB Control product. Many of the integrations are done per project basis and are reusing integration patterns and assets, informed by the practical knowledge gained through A4BEE's integration projects.

9.1 Bioreactor & Cell Culture Systems

Vendor Instrument / System Software Integration experience
Cytiva GE ÄKTA OPC UA client integration for ÄKTA UNICORN data readback
Emerson Bioreactor controller (DCS) DeltaV v13 OPC UA client connector for DeltaV data points
Sartorius (Novasep) BioSC (MCC) iFix-based SCADA OPC UA / Modbus connector development
Sartorius AMBR REST API / OPC UA data bridge
Sartorius Bioreactors (3–70 L) OPC UA client for Sartorius BioPAT data
Applikon Bioreactors OPC UA / Modbus connector
MilliporeSigma Cellicon™ Perfusion Controller Software (Embedded) Embedded controller data bridge

9.2 Analytical & Sampling Instruments

Vendor Instrument / System Software Integration experience
Merck Millipore MAST (Automated Sampling) MAST Connect REST API / OPC UA connector for sampling coordination
Beckman Coulter Vi-CELL Blu (Cell Counter) Vi-CELL Blu v1.4.4.1 REST API connector for automated cell count data
Roche Cedex Bio HT (Metabolite Analyzer) Cedex Bio HT Software REST API / file-based connector for metabolite data
Nova Biomedical FLEX2 BioProfile FLEX Software REST API connector for BioProfile data
Agilent Liquid Chromatography (LC) OpenLab CDS 2.7 File-based / REST API connector for OpenLab CDS
Agilent Mass Spectroscopy File-based data import connector
Repligen (C Tech) FlowVPX (Variable Pathlength UV) Viper AnalytX OPC UA / REST API connector
Endress+Hauser Raman Rxn2 OPC UA / Modbus connector for spectral data

9.3 Filtration & Downstream Systems

Vendor Instrument / System Software Integration experience
Repligen ATF C24U Controller Software (Embedded) Embedded controller / OPC UA data bridge
Flownamics SegFlow (Automated Sampler) Flow-Control REST API connector

9.4 Pumps, Sensors & Dosing Equipment

Vendor Instrument / System Software Integration experience
MasterFlex Pumps Modbus / RS-485 connector
Mettler Toledo Various scales
Mettler Toledo Sensors
Hamilton pH Meter
Hamilton Sensors
Pendotech Sensors OPC UA / Modbus connector
Sartorius Scales Modbus / RS-232 connector

9.5 Automation Platforms & Software

Vendor System / Software Type Integration experience
Siemens WinCC-based systems SCADA/HMI OPC UA client connector for WinCC OPC server
CopaData POI (Orchestrator) Orchestration OPC UA / REST API bidirectional connector
Lucullus PIMS Process Information Mgmt REST API connector for PIMS data exchange
Custom Build Downstream instruments LabVIEW OPC UA / REST API bridge for LabVIEW instruments
Other Printers, barcode scanners REST API connector for track-and-trace workflows

9.6 Roadmap Summary

A4BEE's integration experience spans 30+ instrument types from 20+ vendors across bioreactors, analytical instruments, filtration systems, pumps, sensors, scales, and automation platforms. This breadth of hands-on knowledge directly informs QB Control's connector development roadmap, with priority given to:

Leveraging QB Control's existing OPC UA client/server infrastructure to productize library of connectors for Siemens WinCC, Emerson DeltaV, Cytiva UNICORN, Sartorius BioSC

Productizing HTTP-based integrations for modern analytical instruments and PIMS/LIMS platforms (Beckman Coulter Vi-CELL, Roche Cedex, Nova BioProfile, Lucullus PIMS)

Extending QB Control's native Modbus support to cover legacy pumps, sensors, and embedded controllers (MasterFlex, Pendotech, Repligen ATF)

Productizing library of file based connectors for instruments that export data as structured files (Agilent OpenLab CDS, Agilent Mass Spec, Cytiva UNICORN ZIP exports)

Instruments where A4BEE has existing native support through QB Modules (Hamilton sensors, Mettler Toledo sensors and scales) are already integrated into QB Control and do not require additional connector development.