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Home/Applications/Synthetic biology/Biofoundry Construct Development and Screening
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Biofoundry: Preserve Construct and Screening Identity Through Liquid Handling

Application guide

Biofoundry liquid handling supports construction, cultivation and screening. The platform needs records of sample and well identity, added reagents and completed actions. For general robotics and fluid-resource scheduling, see laboratory automation; this guide connects those operations with biological tasks and traceability requirements.

Application guides

Biofoundry construction and screening application guide

Biofoundry construction and screening fluidics overview
Syringe Pumps for Biofoundry Construct Development and Screening
Biological-reagent aspiration and dispensing
Air-Displacement Pipetting Pumps for Biofoundry Construct Development and Screening
Disposable-tip pipetting of construct samplesPer-well delivery for screening plates
Diaphragm Pumps for Biofoundry Construct Development and Screening
Multiport rotary valves in Biofoundry construction and screening
Path scheduling
Bubble and Pressure Monitoring for Biofoundry Construct Development and Screening
Tubing and Fittings for Biofoundry Construct Development and Screening

ON THIS PAGE

Locate the task in the fluid path firstCommon product roles and application guidesOperating requirements differ by stepPipetting: preserve the sample-to-well relationshipBiological reagents: assess delivery and conditions of usePlate operations: assess consistency and cross-contaminationPath scheduling: prevent wrong-destination delivery from shared resourcesExplore configurations through product application guidesValidate the complete cycle through application resultsCommon selection and recovery questionsReferencesRelated guides

01Locate the task in the fluid path first

Strain and construct identity→Reagent preparation→Liquid handling at plate positions→Cultivation and screening→Results and traceability
Illustrative task sequence. Confirm sampling, washing, waste and monitoring branches separately against the instrument drawings.

Arrows indicate task relationships, not that every component is connected in series in one tube. Check valve positions, pump wetted boundaries and operating states for each branch.

Associate strain, construct, reagent source and destination well with operation records. Establish programs for actual enzyme solutions, media and additives, and design blanks and cross-contamination checks around the construction and screening workflow.

02Common product roles and application guides

Explore product applications by their role in the instrument
Product categoryRole in this instrument
Syringe pumpReagent dispensing through fixed fluidics
Air-displacement pipetting pumpTip-based liquid handling for construction and screening
Diaphragm pumpActual shared wash stations and auxiliary supply
Multiport rotary valveMultiple-source and destination-path selection
Bubble and pressure detectionFlow-path signals for reviewing wells and operating steps
Tubing and fittingsFixed-station and shared-path connections
  • Syringe Pumps for Biofoundry Construct Development and Screening
  • Air-Displacement Pipetting Pumps for Biofoundry Construct Development and Screening
  • Diaphragm Pumps for Biofoundry Construct Development and Screening
  • Multiport rotary valves in Biofoundry construction and screening
  • Bubble and Pressure Monitoring for Biofoundry Construct Development and Screening
  • Tubing and Fittings for Biofoundry Construct Development and Screening

03Operating requirements differ by step

Define fluid-path responsibilities before examining individual operations
StageTask categoryOperating conditions to define
Pipetting: preserve the sample-to-well relationshipPipetting and receivingDisposable-tip or fixed-probe architecture, sealing, working volume, liquid class, immersion position and dispensing action
Biological reagents: assess delivery and conditions of useDispensing operating conditionsDose per operation, total cycle volume, replenishment/bottle-change interval, backpressure and receiving geometry
Plate operations: assess consistency and cross-contaminationDispensing operating conditionsPlate format, well positions, independent channels, branch resistance and concurrent flow
Path scheduling: prevent wrong-destination delivery from shared resourcesSystem-coordination inputsTask state, sample or vessel identity, concurrent resources, interlocks and restart

04Pipetting: preserve the sample-to-well relationship

Set aspiration, dispensing and tip changes for the liquid type. After an anomaly, confirm delivery status first. Correct individual doses can still result in an incorrect batch if delivered to the wrong wells.

  • Disposable-tip pipetting of construct samples

05Biological reagents: assess delivery and conditions of use

Set standby and storage requirements for enzyme solutions, media and inducers from the actual workflow. Check the first dose with the real liquids and record waiting time.

  • Biological-reagent aspiration and dispensing

06Plate operations: assess consistency and cross-contamination

Evaluate delivery, residual liquid and cultivation or screening results by plate format and well order. For supply and waste-station architecture, see microplate automation.

  • Per-well delivery for screening plates

07Path scheduling: prevent wrong-destination delivery from shared resources

Confirm valve position together with reagent source and target well. Restart programs should preserve sample identity and completed-step records to prevent duplicate additions.

  • Path scheduling

08Explore configurations through product application guides

  • Syringe Pumps for Biofoundry Construct Development and Screening
  • Air-Displacement Pipetting Pumps for Biofoundry Construct Development and Screening
  • Diaphragm Pumps for Biofoundry Construct Development and Screening
  • Multiport rotary valves in Biofoundry construction and screening
  • Bubble and Pressure Monitoring for Biofoundry Construct Development and Screening
  • Tubing and Fittings for Biofoundry Construct Development and Screening

09Validate the complete cycle through application results

Assess per-well delivery, identity traceability and construct-development or screening results together.

Plan operating-point validation and fault investigation for each step
Step to validateMeasurements or observationsPriority troubleshooting checks
Pipetting: preserve the sample-to-well relationshipMeasure delivered volume in the actual receiving container, including low source levels, tip changes or probe washing, and carryover between samples.Seal leaks, air aspiration, retained droplets or incorrect immersion can alter delivery.
Biological reagents: assess delivery and conditions of useUse actual media to check first, middle and last doses and delivery after bottle changes; confirm received volume and timing rather than substituting commanded steps for volumeEmpty sources, bubbles, nozzle droplets and backpressure changes affect first or last doses
Plate operations: assess consistency and cross-contaminationMeasure first and last wells, channel differences and the complete plate cycle; preserve well identities and verify actual delivery and residual liquid.Empty sources, bubbles, nozzle droplets and backpressure changes affect first or last doses
Path scheduling: prevent wrong-destination delivery from shared resourcesTest concurrent operation, limiting states and complete fault recovery; verify that identities, cumulative quantities and records match actual actionsResource conflicts, communication loss or mismatched identities can cause delivery to the wrong destination or repeated dosing.

High throughput and multiple channels do not establish valid experimental results. See laboratory automation for shared workstation architecture.

10Common selection and recovery questions

Do acceptable per-well volumes alone establish valid screening?

Also check construct or strain identity, reagent source, target wells and completed steps, and assess contamination checks and screening outcomes together.

Where should plate operations resume after an interruption?

Check actual delivery and state for each well, distinguishing not started, partially completed and complete. Use the experimental procedure to decide whether to resume or discard, avoiding duplicate dosing of the whole plate.

References

View references (3)
  1. [1]FOREACH SMTP air-displacement pipetting pumps: configurations and specifications
  2. [2]FOREACH syringe pumps: configurations and specifications
  3. [3]FOREACH MRV3 rotary valves: configurations and specifications

Related guides

  • Workstation pipetting and microplate tasks
  • Automated Pipetting Drives, Consumables and Delivery
  • Microplate supply, drainage and well-to-well variation

Related Products

SMTP air-displacement pipetting pump; representative configuration. Select capacity, materials and interfaces for the application.

SMTP air-displacement pipetting pump

HLD rotary-valve syringe pump; representative configuration. Select capacity, materials and interfaces for the application.

HLD rotary-valve syringe pump

MRV3 multiport rotary valve; representative configuration. Select capacity, materials and interfaces for the application.

MRV3 multiport rotary valve

Related Technical Articles

What is a programmable automatic air-displacement pipetting pump?

A programmable automatic air-displacement pipetting pump is a liquid-handling component whose aspiration, dispense, speeds and sequence are set through control commands. This article focuses on air-displacement modules that use disposable tips in OEM instruments, with FOREACH SMTP2 as an example of operation, monitoring and selection limits.

2026-09-28View Details

What Is a Programmable Syringe Pump? Operation, Fluid Routing and Automation

A programmable syringe pump uses a motor to control syringe plunger displacement and speed, executing aspiration, dispensing, pauses and repeated actions through commands. With a routing valve, it can connect reagent reservoirs, reaction vessels and wash paths into an automated dispensing process. Instrument development therefore needs to define volume, fluid connections and timing together.

2026-09-28View Details

Rotary Valve Selection Guide: From Fluid Paths to System Validation

Map the connections required at each step before comparing specifications. Use the actual liquids, tubing and switching sequence to validate suitability for your instrument.

2026-09-30View Details

Discuss your Biofoundry fluidics

Provide a fluid diagram, the actual liquids and pressures in each state. Specify liquid types and identity tracking; actual reagents and doses; and source/target interlocks. Compare suitable configurations against the validation objectives described here.

Contact an engineer