1Choose the source software and evidence.
Each route starts from a documented output of the vendor software. Check the installed version, licensed options and export settings against the linked docs. A listed route is not an acquisition driver or a universal parser.
Sartorius Ambr 15 connection overview →
Periodic CSV through the Ambr 15 LIMS module; confirm options for your model.
One experiment with vessel references and source files; create sample results or chosen interval summaries in a Seal Script.
Sartorius Ambr 250 High Throughput connection overview →
Experiment and result exports from the installed Ambr 250 High Throughput software.
One experiment with linked vessels, original exports and selected process or sample results. Use a Seal Script to align chosen measurements and summaries.
Sartorius Ambr 250 Modular connection overview →
Experiment and results exports from Ambr 250 Modular software.
One experiment linked to vessel and source-file records, with selected results mapped into ordinary fields for cross-scale comparison.
Sartorius Biostat and BioPAT connection overview →
Excel batch exports from BioPAT MFCS; OPC interfaces depend on version and modules.
One process run with raw exports and equipment references; map selected summaries or sampled readings through ordinary Seal workflows.
Sartorius Octet BLI connection overview →
Excel analysis reports; available CSV exports depend on the analysis and software version.
One assay analysis with sample or sensor results as needed, linked to the source report and experiment.
Sartorius iQue connection overview →
Forecyt exported plate data and reports; choose result exports separately from protocol exports.
One plate experiment linked to sample-well analyses with selected population or dose-response results.
Sartorius Incucyte connection overview →
Incucyte text metric exports and separately retained images or movies.
One well or sample time-course analysis with selected endpoint or kinetic summaries and the complete metric file.
2Select the Ambr model and source application explicitly.
Ambr 15, Ambr 250 High Throughput and Ambr 250 Modular have separate setup guides. Confirm the installed software and enabled export options for the actual system. BioPAT MFCS batch exports and optional interfaces also depend on the deployment. A model name alone does not establish that a particular export module or interface is available.
For Octet, identify the evaluation and report needed for the binding question. Forecyt protocol exports and iQue result exports serve different purposes. Incucyte metric exports need their corresponding image or movie context where that evidence is part of the study. Configure each source around a known completed experiment.
3Connect vessels, collected samples and analytical runs.
Identify a vessel within its experiment so the same position in a later experiment cannot overwrite it. Give offline samples their own identities and preserve collection time separately from analysis time. That distinction lets scientists compare a culture event with the appropriate sample even when the assay ran later.
Keep setpoints separate from measured process channels, and retain the time basis for trend summaries. For Octet, preserve the evaluation model and conditions associated with a reported binding result. For imaging or cytometry, retain the analysis definitions needed to understand a metric rather than treating the metric’s display name as a complete specification.
4Make comparisons explicit about coverage and analysis.
A process-development comparison should identify the experiment set, vessels, time window and any exclusions. Store detailed exports as Files and map the selected observations or summaries needed for that comparison. If the exported trend is incomplete, keep coverage visible rather than allowing a missing interval to look like a complete experiment.
Reanalysis can change an Octet fit, an iQue population statistic or an Incucyte metric without changing the original acquisition. Preserve the source revision used for the comparison. Review the mapping when export settings or analysis definitions change, and keep the prior evidence behind decisions already made.
5Example: compare culture conditions with a later binding assay
The connection follows sample provenance while preserving the process and analytical evidence independently.
- Culture
- Reference the Ambr experiment and vessel, with the relevant process window.
- Collected material
- Record the sample identity and collection event within that culture.
- Binding evaluation
- Link the Octet source run, evaluation context and selected binding result to the sample.
Use these relationships as a mapping example for your own templates. The receiving fields and record grain are configured through Seal Scripts and APIs.
6Configure the collection and mapping for your site.
For local exports, use a completed-file handoff on the instrument workstation or another approved site computer. Seal IoT collects the file and uploads it to the chosen Seal destination over outbound HTTPS. Keep source files until delivery and mapping have been verified.
A Seal Script can validate the expected layout, resolve source identities and write selected typed fields. Keep the original export as File content. Acquisition and vendor analysis remain in the source application; Seal collects the completed results and does not send instructions to the instrument.
Follow the on-site equipment setup instructions, then use the source-specific guide above to test the actual export and mapping. For a result exchange with an existing LIMS, also define that system’s supported receiving operation and sample identifiers.
7Test the configured workflow with known evidence.
- Import two studies that reuse vessel positions and verify that their identities stay separate.
- Compare collection times, process events and assay times using the agreed timezone and elapsed-time basis.
- Test incomplete trend coverage and a revised analytical evaluation before using cross-run summaries.
Keep the test outcome with the configuration and repeat the relevant checks when software, reports, analysis settings or destination fields change.
Discuss your Sartorius workflow with a representative export, the installed software version and the records you want to connect.
8The Sartorius models.
These are Sartorius instruments laboratories connect to Seal, listed from the manufacturer’s own documents. A model not listed works the same way if its software saves a file.
Bioreactors
- Ambr 15 Cell Culture
- Ambr 15 Fermentation
- Ambr 250 High Throughput
- Ambr 250 High Throughput Perfusion
- Ambr 250 Modular
- Biostat A
- Biostat B
- Biostat B-DCU
- Biostat Cplus
- Biostat CultiBag RM 20/50 optical
- Biostat CultiBag STR 50 plus MO
- Biostat CultiBag STR plus 200
- Biostat D-DCU
- Biostat RM 20/50
- Biostat RM 200
- Biostat STR 50
- Biostat STR 200
- Biostat STR 500
- Biostat STR 1000
- Biostat STR 2000
- Biostat STR Microbial
- Univessel Glass
- Univessel SU 2 L
- Univessel SU 10 L
Bio-layer interferometry systems
- BLItz
- Octet HTX
- Octet K2
- Octet N1
- Octet QKe
- Octet R2
- Octet R4
- Octet R8
- Octet R8e
- Octet RED96
- Octet RED96e
- Octet RED384
- Octet RH16
- Octet RH96
- Sartorius Octet BLI
Chromatography skids
- Resolute BioSC Lab
- Resolute BioSC Pilot
- Resolute BioSMB 80
- Resolute BioSMB 350
- Resolute BioSMB PD
- Resolute Flowdrive Atex L
- Resolute Flowdrive Atex M
- Resolute Flowdrive Atex S
- Resolute Flowdrive Atex XL
- Resolute Flowdrive MU L
- Resolute Flowdrive MU M
- Resolute Flowdrive MU XL
- Resolute Flowdrive MU XXL
- Resolute Flowdrive SU
- Resolute RCC MU
Filtration systems
- Ambr Crossflow
- Flexact CC
- Flexact CF
- Flexact TFI
- Flexact VR
- Microsart Combi.jet
- Sartoflow 10,000 MU
- Sartoflow 1000
- Sartoflow 5000 MU
- Sartoflow 5000 SU
- Sartoflow Advanced
- Sartoflow Expert SU
- Sartoflow Smart
Balances
- Cubis II
- Cubis III
- Cubis III Max
- Entris II
- Quintix
- Quintix Pro
- Secura
Preparative chromatography systems
- Hipersep Flowdrive L
- Hipersep Flowdrive Pilot
- Hipersep Flowdrive Process L
- Hipersep Flowdrive Process M
- Hipersep Flowdrive XL
- Hipersep Flowdrive XXL
Bioreactor controllers
Centrifuges
- Ksep 50
- Ksep 400
- Ksep 400-OPC
- Ksep 6000S
Flow cytometers
- iQue 3
- iQue 5 HTS Platform
- iQue Screener Plus
- Sartorius iQue
High-content imaging systems
- Incucyte CX3 Live-Cell Analysis System
- Incucyte S3 Live-Cell Analysis System
- Incucyte SX1 Live-Cell Analysis System
- Incucyte SX5 Live-Cell Analysis System
Moisture analyzers
- MA35
- MA37
- MA100
- MA160
Freezers
- Celsius FT100
- Celsius S3
Metabolite analyzers
- BioPAT Multi Trace
- BioPAT Trace
Cell culture systems
- Biostat RM TX
HPLC / UHPLC systems
- PATfix HPLC system
Imaging systems
LC autosamplers
- MD8 Airscan
Particle counters
- Virus Counter Plus
Raman spectrometers
- BioPAT Spectro
Sterility testing systems
- Sterisart Universal Pump Gen 4
Surface plasmon resonance systems
- Octet SF3
UV-Vis spectrophotometers
- BioPAT Spectro UV
Other
- AliquoT Automated Filling
- BioPAT Viamass
- BioPAT Xgas
- Biosealer TC
- Biowelder S
- Biowelder TC
- CellCelector
- CellCelector CLD
- Celsius FS16
- Flexact BP
- Flexact MP
- Flexact VI
- Sartocheck 4 plus Bag Tester
- Sartocheck 4 plus Filter Tester
- Sartocheck 5 Filter Tester
- Sartocheck 5 Plus Filter Tester
- Sartocheck 5 Plus Universal
- StreamLink CC 15
