Lab Automation
Regulated development and commercialization journeys where clinical, quality, and market access align.
Inside this journey
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Pre-Discovery
Align decision-makers, timelines, and technical owners before detailed discovery.
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Stakeholder Alignment
Confirm decision roles, timelines, IT/LIMS and QA owners, and what success looks like for each stakeholder.
Alignment Questions
Quick Snapshot — Tell Us About Your Lab
- Which role are you filling in this conversation?
- Roughly how many samples/assays does your group process per day (typical operating cadence)?
- Which assay types or workflows are highest priority for scale or automation right now?
- What’s the single most urgent outcome you want from automation in the next 6–12 months?
- Is there a specific timeline or milestone driving urgency (e.g., grant deadline, drug program stage, facility move)? If so, please describe.
Are You Comfortable Letting Variability Decide Your Timelines?
- How often does manual technique variability cause you to rerun experiments or question results?
- When variability forces a rerun, how much time and resources does a typical rerun consume?
- Tell us about a recent example where manual handling changed the outcome—what happened and what did it cost in time or confidence?
- Which parts of your workflows do you suspect are most sensitive to human technique (pipetting, plate handling, incubation timing, etc.)?
- How long have these variability issues been affecting your throughput or decision quality?
What’s Really Slowing Your Science Down?
- If you had to point to one bottleneck that routinely delays projects, what would it be—and why does it persist?
- Which of the following contribute materially to throughput delays in your lab?
- How predictable are your day-to-day volumes (are you steady, seasonal spikes, or highly variable)?
- When a bottleneck appears, who typically becomes responsible for resolving it and how fast do you expect resolution?
- Can you share a specific workflow timeline (steps and durations) we could review together to spot where automation could shave hours or days?
Who Holds the Keys — and Are They Aligned?
- If we said the success of automation depends on four stakeholders (Research, Automation, IT/LIMS, QA/Validation), which one do you think is least aligned right now?
- How are decisions about capital equipment and integrations currently made (single decision‑maker, committee, devolved budget)?
- Who will own validation and acceptance testing internally, and what capacity do they have to take on that work?
- How do IT and LIMS teams prefer to be engaged for integrations—early design reviews, formal RFP, or just at deployment?
- What would confidence look like for each stakeholder (e.g., QA: traceable protocols; IT: secure API; Research: same or better assay results)? Please list the top success criterion for each stakeholder group.
If Automation Could Fix One Thing, What Would You Bet On?
- Imagine one persistent problem disappears after deployment—what single change would most transform your team’s productivity or confidence?
- Which benefit would you prioritize when choosing a vendor: reliability, flexibility to run diverse assays, LIMS/API support, or method development and support?
- Are you more excited by immediate throughput gains, long-term reproducibility, or by reclaiming scientist time—and why?
- Which internal constraints would make you hesitate to commit to a larger automation solution (budget, space, validation burden, staffing, culture)? Please rank the top two.
- If you had a trusted partner running pilot studies for you, what questions would you need answered before recommending wider rollout?
What Would Perfect Throughput Feel Like Day-to-Day?
- Describe, in a single short paragraph, how your lab would operate differently if throughput and reproducibility were no longer constraints.
- What quantitative metrics would immediately convince you that the system is delivering (e.g., CV%, plates/hour, sample touchpoints reduced)?
- How much variability (in %CV or similar) would you need to see reduced to remove the need for repeat runs or replicate checks?
- Beyond metrics, what would a successful change enable your scientists to do more of—deeper assays, faster cycles, more exploratory work? Give specific examples.
- Who should be looped in to celebrate and track these wins internally (names or roles), and how would you prefer to visualize progress?
What Could Stop a Smooth Deployment Before It Starts?
- What would make you say 'not yet' after a deployment readiness review—what are the non-negotiable no-go items?
- What are your site's current constraints around network access, firewall policies, or data-sharing that we should know up front?
- How much on-site vendor involvement is acceptable for installation and method transfer (full vendor-led, co-delivery, or hands-off)?
- Which internal approvals or documents must be completed before installation (purchase order, IQ/OQ/PQ plan, risk assessment, SOP drafts)?
- If there have been past deployment problems, briefly describe one and how it was resolved—what would you want us to do differently?
How Will Success Be Measured — and Celebrated?
- Who will sign off on acceptance criteria and what is the minimum evidence they’ll require (raw data, acceptance test reports, LIMS integration proof)?
- Which acceptance tests are most critical to you: throughput benchmarks, reproducibility (CV), plate-to-plate consistency, or LIMS round-trip verification?
- What cadence of validation documentation and status updates would keep stakeholders comfortable during deployment?
- If initial results fall short of acceptance by a small margin, what remediation approach would you prefer: vendor tweak, joint debugging session, or rollback to manual while we iterate?
- How would you like to preserve institutional knowledge after go‑live (training certification, recorded sessions, runbooks, or a living LIMS SOP)?
Next Steps — What Would Make This a Good Pilot?
- What would a successful pilot project look like in scope and duration (single assay, plate format, or multi-assay; 2–6 weeks, 2–3 months, etc.)?
- Which internal resources can you commit to a pilot (operator hours, QA time, IT support, space), and what percentage of their time can be allocated?
- What success criteria must be met in a pilot for you to recommend wider rollout (choose top 3)?
- Are there regulatory or audit timelines that would affect pilot timing or reporting needs (e.g., GxP/GLP)? Please describe.
- Realistically, how soon could you commit to starting a pilot if the plan fits your needs?
- Who should we include as the core decision team to review a pilot proposal (names or roles) and what’s the best way to present the plan to them?
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Current State Mapping
Document current workflows, throughput bottlenecks, assay failure modes, instrument estate, and integration pain points.
Current State
Tell Me How It Really Runs
- Walk me through a typical run from sample in to result out — what are the discrete steps and who touches the work at each stage?
- What types of samples and plate formats do you process most often?
- On an average day and on a peak day, how many samples or plates do you process?
- Roughly what percentage of that end‑to‑end workflow is manual vs automated today?
- How do you currently measure throughput and cycle time (e.g., plates/hour, samples/day, turnaround time)? Provide the key metric you track.
Where Does Time Leak Out?
- If a morning’s schedule broke down, what single step would you point to as the real cause — and why is that still happening?
- How often do these bottlenecks cause missed deadlines or re‑runs?
- When a bottleneck occurs, who is typically pulled in to resolve it and what is the usual workaround?
- What would it feel like for your team if the current bottleneck disappeared — what downstream changes would you expect (time, staffing, morale)?
- Are there steps you’ve tried to streamline before that didn’t stick? If so, what went wrong and how long did the improvement last?
When Results Surprise You, What’s Usually Broken?
- Which failure modes create the most disruption in your assays (pick up to three)?
- How frequently do you see these failure modes affecting runs (percent of runs impacted)?
- Tell me about a recent failure that cost time or samples—what happened, how was it detected, and how long to recover?
- What do you believe are the root causes (choose all that apply)?
- How do these failures shape how you design experiments or accept risk today?
Who’s Doing All the Heavy Lifting?
- How many full‑time equivalents (FTEs) are dedicated to running assays, maintaining automation, and supporting data each week?
- How much of a typical operator’s shift is consumed by manual pipetting, setup/cleanup, and troubleshooting (estimate %)?
- Do you rely on a small group of 'superusers' to keep things running? If yes, what risks do you see if they become unavailable?
- How would you describe team sentiment around current workflows — frustrated, stretched but proud, resigned, or optimistic? Give examples.
- What training cycles or certification requirements exist for new operators, and how long do they take to reach independent operation?
How Healthy Is Your Instrument Fleet?
- What instruments and vendors make up your current estate (list names and approximate counts)?
- How old is the core automation hardware and what percentage is under active service contract?
- How frequently does instrument downtime occur and what is the average time to repair or workaround?
- What spare‑parts, calibration, or preventative maintenance practices are currently in place — and where do those break down?
- If you were to add or replace one capability in your estate this year, what would it be and why?
Does Data Flow or Drag?
- How does data move from instruments into your LIMS/analysis pipeline today — automated integration, manual export, or both?
- Which LIMS, ELN, or analysis tools do you rely on, and do they have native connectors to your instruments?
- When transfers fail or data is inconsistent, what kinds of errors do you see most often and who fixes them?
- How long does it take from raw read to validated result in your pipeline, and what manual steps are required in between?
- If you could change one thing about how data is handled today to improve speed or confidence, what would that be?
What Would Stop This From Working Long Term?
- What skepticism or internal resistance have you seen when attempting automation or workflow changes in the past?
- Which regulatory or validation requirements must any change meet (e.g., GLP, GxP, ISO) and who owns validation internally?
- What would an acceptable validation and acceptance path look like for you (documents, tests, owner sign‑offs)?
- How flexible is your procurement and funding cycle for capital equipment this year?
- If we designed a solution that removed your top bottleneck but required a phased rollout, what would be the minimum first‑phase outcome for you to consider it a success?
If We Could Fix One Thing, What Should It Be?
- Looking across throughput, failures, staffing, instruments, and data — which single outcome would deliver the most value to your team right now?
- What timeline would make that outcome meaningful for you (weeks, months, fiscal year)?
- Who are the must‑involve stakeholders we should engage to validate the scope and constraints for that change?
- What non‑negotiable constraints (space, power, biosafety, IT policy) would any proposed change need to satisfy?
- Finally, can you share one story or example that best communicates why solving this is important to your team right now?
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Customer Discovery
Clarify target throughput, allowable variability, staffing constraints, regulatory/validation requirements, and success metrics.
Discovery Questions
Quick Snapshot: Your Lab in One Sentence
- In one sentence, what outcome are you trying to achieve with automation this year?
- Which best describes your lab today?
- Which of these assay types drive the most sample volume for you?
- On an average day, roughly how many samples or wells does your team process?
- Who in your team will be closest to operating and validating a new automation solution?
Are You Comfortable With ‘Good Enough’?
- When you say current outputs are 'good enough', what specifically are you tolerating?
- How long have these workarounds or compromises been in place?
- What business or scientific opportunities have you delayed because of these compromises?
- If pressure increased (project timelines, budget, volume), which current compromise would break first?
- How does dealing with these compromises make your team feel—stretched, frustrated, relieved, or something else?
Where Bottlenecks Hide (and Who Feels Them)
- What single step in your workflow causes the most frequent delays?
- Walk me through a typical run: where do queues form and how long do they last?
- At peak demand, how often do you miss internal deadlines because of throughput limits?
- Which roles are most impacted when a bottleneck appears?
- Which workaround do you rely on most to absorb bottlenecks?
When Reproducibility Breaks Your Timeline
- How often do you have to re-run assays because results weren’t reproducible?
- Which failure modes are most common in your assays?
- What numeric targets do you run to define acceptable reproducibility (e.g., %CV, Z'-factor)?
- How do reproducibility issues translate into cost—time lost, reagents wasted, delayed go/no-go decisions?
- Tell me about a recent reproducibility problem that changed how you think about automation—what happened and what did it reveal?
If Throughput Were Unlimited, What Would You Change?
- What is your true throughput target (samples/wells per day) if constraints were removed?
- What level of variability would you consider acceptable at that target (give metric or descriptive level)?
- If you hit that target, what downstream business outcomes improve (faster leads, fewer repeat assays, headcount efficiency)?
- Which assays or programs would you prioritize to run at full capacity first, and why?
- How would hitting these throughput/reproducibility goals change stakeholder sentiment—internally and externally?
The Integration Gap: Is Your Data Trapped?
- How seamlessly does data move from instruments into your LIMS and analysis pipelines today?
- Which LIMS or data platforms must a solution connect to for you?
- What integration problems cost you attention—missing metadata, misaligned timestamps, failed uploads, or something else?
- Are there regulatory or IT policies that will govern how we integrate (e.g., on-prem only, VPN, audit logs)?
- If integration fails during a pilot, what’s the minimum data fidelity you require to accept the experiment?
Who Holds the Keys? Decision, Validation, and Timelines
- Who will sign off on purchasing and who will sign off on acceptance testing?
- Who are the technical and QA/validation owners we should engage early?
- What is your target timeline from evaluation to site acceptance?
- Are there regulatory milestones (e.g., 21 CFR part 11, ISO standards) that define validation scope?
- What internal criteria will make leadership say 'go' or 'no-go' after a pilot?
Practical Constraints: Space, Staffing, and Validation Realities
- What physical constraints should we plan for at installation (bench footprint, ceiling height, crane access)?
- What utilities and environmental controls are fixed requirements (power, compressed air, HVAC, vibration limits)?
- How many full-time operators will you realistically assign to run and maintain the system?
- What level of vendor-led training and documentation do you need to feel comfortable (operator, admin, validation packs)?
- How much downtime per week is tolerable for maintenance and validation activities?
Risk and Acceptance: What Would Make This a No-Brainer?
- What single metric would convince you that a solution is successful (e.g., X samples/day, %CV, reduced FTEs)?
- Which acceptance tests are non-negotiable before you declare success?
- What commercial or service commitments would reduce perceived risk (SLA, spare parts, on-site support)?
- What would be an unacceptable outcome that would make you decline moving forward after a pilot?
- How should liability and ownership of validation tasks be allocated to make this workable for your QA team?
If We Could Run a Small Experiment, What Would Tell You Enough?
- Would you prefer a focused pilot on a single high-volume assay or a broader proof across multiple assays?
- What is the minimum pilot duration you’d accept to evaluate throughput and reproducibility?
- What datasets or deliverables would you need at pilot close (raw data, processed metrics, SOPs, integration logs)?
- Who needs to be present or consulted during the pilot to make rapid decisions?
- What would be a realistic next step after a successful pilot—proof-of-concept purchase, multi-site roll-out, or more testing?
Practical Next Steps and Hidden Hurdles
- What internal approvals or procurement steps typically delay projects like this?
- Are there vendors, internal teams, or legacy systems that must be involved before we touch instrumentation or data?
- What cost categories (capex, consumables, service) are most sensitive for your stakeholders?
- What internal signals would indicate this project should be prioritized now (executive mandate, missed milestone, new program start)?
- If you could wave a wand and remove one barrier to adoption, what would it be?
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Solution Experience
Walk through how our automation, integration, and support will deliver the customer’s throughput, reproducibility, and LIMS connectivity using their assays and scenarios.
Experience Meetings
- Solution Experience Kickoff — Current State & Consequence Alignment
- Assay Scenario Walkthrough — Method Mapping & Throughput Proof
- LIMS & Data Integration Experience — Connectivity Mapping and Data Provenance
- Operational Reproducibility & Risk Mitigation — Pilot Proof Runs and QC
- Solution Confirmation & Next Decision — Mutual Validation and Pilot/Deployment Commit
- Seller to deliver full pilot dataset, summary metrics, and a root-cause analysis for any deviations.
- Customer to confirm any additional edge cases, timing constraints, or reagent limitations that affect automation.
- Schedule pilot runs and reserve instrument time for the agreed assays.
- One-sentence Integration Pain Recap
- Agree on exact data mappings, API endpoints, and transformation rules required for LIMS connectivity.
- Define the integration acceptance tests and audit trail requirements for validation.
- Assign responsibilities and timeline for providing test accounts, sample records, and middleware configuration.
- Customer to provide LIMS schema, sample records, and a test account or sandbox access.
- Seller to produce a data mapping document, API call examples, and an integration test plan.
- Agree on dates for integration test execution and responsible owners.
- Pilot Design Recap & Acceptance Criteria
- Demonstrate that pilot results meet the predefined throughput and reproducibility criteria.
- Agree documented corrective actions for any observed failures and assign owners.
- Confirm operator tasks and training are sufficient to maintain metrics in steady state.
- Introductions & Objectives
- Customer to review and sign off on pilot results or list specific gaps to address.
- Schedule operator training sessions and update SOPs based on pilot findings.
- Before/After Future State Restatement
- Obtain customer confirmation that proof meets success metrics or capture a precise gap list.
- Agree on pilot/deployment scope, timelines, and owners to avoid ambiguity.
- Document remaining risks and assign clear mitigation owners and deadlines.
- Finalize and sign the pilot scope, acceptance criteria, and schedule.
- Seller to produce a validation checklist and owner/responsibility matrix for the pilot and deployment phases.
- Customer to resolve any outstanding access or LIMS test account items before pilot start.
- Agree on one clear current-state sentence that everyone can repeat.
- Surface and quantify the business consequence of the problem in operational terms.
- Define a single-sentence future state and 2–4 measurable success metrics to prove it.
- Confirm required pre-work, data, and owners for the Solution Experience sequence.
- Customer to upload one-sentence current state, one-sentence future state, recent run logs, and throughput targets.
- Seller to prepare a tailored Solution Experience plan and confirm measurement approach (metrics and acceptance criteria).
- Schedule the assay scenario walkthrough and LIMS integration session with calendar invites and required attendees.
- Recap Current State & Success Metrics
- Produce an agreed automated method map for each critical assay step.
- Validate a throughput model with explicit numbers tied to customer scenarios.
- Agree on reproducibility targets and pilot acceptance criteria for the selected assays.
- Identify any remaining assay edge cases requiring special handling or method development.
- Seller to deliver a detailed method map and numeric throughput model (cycles/hr, plates/day) within 3 business days.
- End-to-end Data Flow Diagram Review
- Pilot Run Results Review
- Single-sentence Current State
- Evidence Summary: Throughput & Reproducibility
- Detailed Assay Step Review
- LIMS Connectivity & Data Provenance Status
- Explicit Consequence
- Failure Mode Analysis & Corrective Actions
- Field-by-field Mapping & Transformation Rules
- Automated Method Mapping (Diagnosis->Proof)
- Throughput Modeling & Run Sequencing
- Operator Workflow, Hand-offs & Training Evidence
- Validation Handoff & Responsibility Matrix
- Error Handling, Audit Trails & Compliance
- One-sentence Future State & Success Metrics
- Confirm Pre-reads & Hands-on Materials
- Integration Acceptance Tests & Timeline
- Reproducibility Metrics & Acceptance Criteria
- Customer Validation Checkpoint
- Final Customer Validation / Decision
- Agree Next Steps & Schedule
- Validation Checkpoint (Force Validation)
- Next Steps & Responsibilities
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Solution Scope
Define hardware, software, integrations, method development, training, validation deliverables, and responsibilities.
Scope Configuration
- Install and commission liquid handling instruments
- Calibrate pipetting channels and dispense volumes
- Develop and deploy assay-specific pipetting protocols
- Implement automated sample preparation workflows
- Integrate instruments with LIMS via API connector
- Integrate multi-vendor instruments into automated workcell
- Install and calibrate microplate readers
- Execute IQ/OQ/PQ validation protocols
- On-site operator hands-on training
- Deploy instrument control and automation software
- Set up remote monitoring and telemetry access
- Supply consumable kits and reagent cartridges
Scope Questions
Install and commission liquid handling instruments
- How many liquid handling instruments require installation and commissioning at this site?
- What are the exact instrument models and serial numbers to be installed?
- Do you have site readiness items completed (bench footprint, dedicated power, network drops, lab access) for each instrument?
- Are there any special environmental requirements at install location (temperature control, vibration isolation, cleanroom classification)?
- Will installation require coordination with onsite facilities/engineering teams (e.g., HVAC, electrical work)?
- What target date or installation window do you prefer for commissioning?
- Who will be the onsite point-of-contact for installation and commissioning (name, role, contact)?
Calibrate pipetting channels and dispense volumes
- Which pipetting channel configurations need calibration (single-channel, 8-channel, 96-channel, nano-volume heads)?
- What volume ranges must be validated for each channel type (provide numeric ranges in µL)?
- What accuracy and precision (CV, % error) specifications must calibration achieve?
- Do you require gravimetric calibration, dye-based verification, or both?
- Are there specific fluids or reagent viscosities (e.g., DMSO, serum) we should use during calibration?
- How frequently do you require re-calibration or periodic verification (initial commission, quarterly, semi-annually)?
- Do you need calibration records formatted to a specific template for your QA/validation files?
Develop and deploy assay-specific pipetting protocols
- How many distinct assays or protocol variants require development and deployment?
- Please list the assays and attach or describe the current manual SOPs, sample types, and critical steps.
- What are the key success criteria for each assay (throughput per day, %CV, Z' or other QC metrics)?
- Do protocols require on-deck incubations, timed reagent additions, shaking, heating/cooling, or other peripherals?
- Is method transfer required from an external lab/vendor or are these internally developed assays?
- Do you require our team to produce full SOPs, operator checklists, and fail-mode handling for each protocol?
- Are there any blocking reagents, hazardous steps, or cold-chain constraints that affect protocol design?
Implement automated sample preparation workflows
- Which sample types will the prep workflows handle (plasma, serum, cell lysate, compound plates, tissues, nucleic acids)?
- What is the target throughput (plates/day or samples/day) and peak throughput bursts?
- Which manual preparation steps should be automated (aliquoting, dilution, extraction, centrifugation, heat/sonication, filtration)?
- Do workflows require cold-chain handling or integration with refrigerated plate hotels?
- Are there biosafety or hazardous material considerations (BL2/BL3, toxic compounds) that affect automation design?
- Do you require consumable management and waste handling processes to be included in the workflow design?
- Should sample traceability barcodes and LIMS handoffs be implemented as part of the sample prep workflow?
Integrate instruments with LIMS via API connector
- Which LIMS vendor/version will you connect to (Benchling, LabWare, Thermo Fisher LIMS, STARLIMS, Custom, Other)?
- Do you have existing API credentials, sandbox/test environment, and API documentation available for integration?
- What data objects need to be exchanged (sample IDs, plate maps, run results, QC flags, audit logs)?
- What authentication method is required by your IT (OAuth2, API key, client certificate, LDAP/SSO)?
- Do you require bi-directional integration (LIMS driving runs and instrument posting results) or one-way only?
- Are there data format or validation requirements (CSV schema, JSON schema, HL7, custom) we must adhere to?
- Does your IT/security team require code review, penetration testing, or vendor SOC attestations prior to connectivity?
Integrate multi-vendor instruments into automated workcell
- Which vendor instruments are planned for the workcell (list make/model for each instrument)?
- Do vendor instruments expose supported remote-control interfaces/drivers (TCP/IP, RS232, vendor SDK)?
- Is there a preferred central scheduler or orchestration platform to coordinate device choreography?
- Are physical integration constraints known (deck heights, plate access orientation, robot reach, conveyor routes)?
- Will safety interlocks, E-stops, and guarded zones be required and who will approve them (customer EHS or vendor)?
- Do you require vendor-specific validation or vendor-supplied drivers to be included in IQ/OQ activities?
- What is the expected run sequencing complexity (single-step plate moves, concurrent multi-instrument runs, asynchronous scheduling)?
Install and calibrate microplate readers
- Which read modes are required (absorbance, fluorescence, luminescence, spectral scanning, TR-FRET, AlphaScreen)?
- Which plate formats need support (96-well, 384-well, 1536-well, custom plates)?
- Do you require temperature control, kinetic reads, or stacker integration for plate handling?
- Are there calibration standards or traceable reference materials you require us to use during calibration?
- What acceptance criteria must the reader meet (signal-to-noise ratio, linearity, well-to-well CV)?
- Should microplate reader data be delivered directly into LIMS or data analysis pipelines during acceptance testing?
- Do you require environmental qualification of the reader location prior to installation (e.g., vibration, light control)?
Execute IQ/OQ/PQ validation protocols
- Which validation stages do you require for this project (IQ, OQ, PQ, or a subset)?
- What regulatory or quality frameworks apply to your lab (GMP, GLP, CLIA, ISO 17025, Research only)?
- Do you have site or corporate templates for IQ/OQ/PQ deliverables we must follow?
- What are the acceptance criteria for PQ (throughput, reproducibility metrics, pass/fail thresholds)?
- Do you need vendor personnel onsite to execute OQ/PQ or will customer QA lead with vendor support?
- Are archived validation records required in a particular format or repository (electronic vs paper, CFR21 Part 11 compliance)?
- What timeline do you require for completion of IQ/OQ/PQ activities?
On-site operator hands-on training
- How many operators and support staff need on-site training and at what skill levels (basic operator, advanced user, maintenance)?
- What training format do you prefer (classroom + hands-on, workshop, train-the-trainer, certification session)?
- How long should initial training sessions be per trainee (half-day, 1 day, multi-day)?
- Do you require formal training materials, operator manuals, competency tests, and certificates?
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Mutual Commit
Finalize commercial terms, service levels, acceptance criteria, timelines, and ownership of validation tasks.
Agreement Modules
- Statement of Work (SOW)
- Commercial Terms & Pricing
- Master Services Agreement (MSA)
- Service Level Agreement (SLA)
- Acceptance Test Plan & Sign-off
- Validation & Regulatory Responsibilities
- Installation & Deployment Schedule
- Training & Knowledge Transfer
- Software License & Maintenance
- Warranty & Remedy Terms
- Spare Parts & Consumables Agreement
- Data Processing & Security Agreement (DPA)
- Change Order Procedure
- Purchase Order & Procurement Terms
- Go-Live Acceptance & Handover
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Deployment
Operationalize rollout with readiness checks, enablement, and validation for regulated lab environments.
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Pre-Deployment Readiness
Confirm site requirements, data access, network/LIMS connectivity, safety controls, and resource availability for installation.
Readiness Questions
Quick Snapshot — Where You Are Today
- In one sentence, how would you summarize your primary goal for lab automation this year?
- How many samples or wells do you currently process per day (typical range)?
- Which workflows are currently highest priority for automation?
- Describe your current level of automation across those workflows (manual, semi-automated, fully automated).
- Who would be the primary day-to-day operators of a new system? List roles and typical availability (shifts/week).
- What single metric would convince you that automation is delivering value (e.g., samples/day, CV reduction, FTE hours saved)?
What’s Really Slowing Discovery Down?
- What hidden bottleneck is silently adding days or weeks to your discovery timelines?
- How often do these delays occur?
- Which step(s) most often create the longest waits or variability?
- Quantitatively, how many researcher hours per week are lost to manual tasks tied to these bottlenecks?
- Tell us about a recent run that went sideways—what happened and what did it cost the project?
- When you face these delays, what business consequences follow (e.g., missed milestones, delayed go/no-go decisions, increased reagent costs)?
Who's Holding the Keys (and Are They Aligned?)
- If a system were ready to ship tomorrow, whose approval would still stall installation?
- Which stakeholders must be consulted or sign off (select all that apply)?
- For each stakeholder group you selected, what does success look like to them? (quick bullet points)
- Do you have an executive sponsor or champion who will prioritize this effort?
- What is your internal decision timeline for approving capital projects like this?
- Have you run internal pilots or proof-of-concepts for automation before? What was the outcome?
The Invisible Failures — Where Reproducibility Breaks
- Which recurring assay failures keep you up at night?
- Which failure modes are most common in your workflows?
- How frequently do you see reproducibility outside your acceptable range?
- What are your current acceptance criteria for reproducibility (e.g., CV% thresholds) across critical assays?
- Describe the troubleshooting steps you use today when a run fails—who investigates and what’s the escalation path?
- How would improved reproducibility change your team’s confidence or decision-making speed?
A Day With Ideal Throughput
- Imagine a no-surprises day — how many samples would you ideally process and with what level of confidence in results?
- What is your target throughput by the end of 12 months (per day or per week)?
- What maximum variability (CV%) would you accept to consider the system fit-for-purpose?
- How many distinct assay protocols would need to run on the platform without reconfiguration?
- What staffing model supports that day (operators per shift, reagent prep, IT support)?
- Which assays must be preserved exactly as written (regulatory/validated) versus which can be optimized during method transfer?
Integration Nightmares or Smooth Sailing?
- If your LIMS and instruments could talk perfectly, what's the single data flow or integration that would unlock the most value?
- Which systems need to integrate with the automation platform?
- Which LIMS/ELN vendors or in-house systems are you using today?
- What network or security constraints should we be aware of (firewalls, air-gap, VPN, required certificates)?
- Who owns IT approvals and what is the typical lead time to get network/LIMS access?
- Describe any past integration attempts and what prevented success.
What Would Need to Change for You to Say Yes?
- What's the single non-negotiable acceptance criterion that would make your team green-light a deployment?
- Which of the following acceptance criteria are required for you?
- Where is your budget and procurement process today?
- Who on your team will own validation and acceptance testing responsibilities?
- What training format works best for your team (select all that apply)?
- What post-deployment support model would give you confidence (SLA, on-site support, local spare parts)?
Small Steps, Big Wins — Starting Without Disruption
- What one pilot or proof-of-concept could demonstrate value in a single week?
- Which assay types are the best candidates for a short pilot?
- What measurable success criteria would you use for that pilot?
- What internal resources can you commit to a pilot (operators, IT time, QA oversight)?
- What concerns or constraints would make a pilot risky for you?
- If we proposed a pilot, when could you realistically schedule it?
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Deployment Enablement
Schedule installation, method transfer, operator training, and run sequencing with clear owners and milestones.
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Validation Checklist
Execute acceptance tests, document validation results, and confirm the system meets throughput and reproducibility criteria.
Validation Questions
Quick Introductions — a 60-second snapshot
- What's your role and primary decision responsibility for lab automation?
- Which lab or program will be the primary pilot for this automation effort?
- Roughly how many plates or samples per day does this group currently process?
- What is the single metric leadership most asks you about when evaluating lab performance?
- On what timeline are you hoping to reach a decision about automation (pilot or purchase)?
Are you quietly tolerating variability that’s slowing discovery?
- Which assays or steps do you see as the largest sources of unpredictable results?
- What measurable variability thresholds are you currently tracking (e.g., CV, Z', signal/noise)? List values if known.
- Tell us about a recent project delayed or re-run because of assay variability — what happened and what did it cost in time or resources?
- Which controls or SOPs are in place today to limit variability?
- How confident are you that automation could reduce this variability meaningfully?
Where does time actually disappear in your lab day?
- Estimate hours per week your team spends on manual pipetting, plate setup, and transfers.
- Which specific tasks eat the most hands-on time?
- How often do staffing gaps or holidays cause critical runs to be delayed?
- When manual steps fail, how quickly can you recover and re-run? Describe a recent recovery scenario.
- If automation reduced hands-on time by 50%, what would your team redeploy that time toward?
What would your ideal lab look and feel like in 6 months?
- What are the specific throughput targets you’d consider a successful outcome for a pilot (plates/day, samples/day)?
- What reproducibility targets would you need to see to call the project a success (e.g., CV%, Z' threshold)?
- What minimum uptime and run reliability must the system provide to be practical for your workflows?
- If automation freed operators from repetitive tasks, what would success look like for scientists day-to-day?
- Which KPIs should we include in a pilot acceptance test to convince you the system works?
What’s hiding in the gap between instruments and your data?
- Which LIMS, ELN, or data systems must this solution connect to?
- How painful is current data flow from instruments to LIMS or analysis (0 = seamless, 10 = avalanche)?
- Which instruments or vendor drivers have been hardest to integrate historically?
- Are there network, firewall, or security constraints that would block standard integration approaches?
- Describe a past integration attempt that failed or under-delivered — what was the root cause?
What keeps your validation and QA teams awake at night?
- Which regulatory or compliance frameworks apply here (check all that apply)?
- What validation deliverables must the vendor provide vs what your team will own?
- Which acceptance tests are non-negotiable for QA sign-off?
- How long does a typical qualification/validation cycle take at your site?
- What evidence or artifacts would make QA comfortable signing off without extensive rework?
Who would need to feel this change is safe, and why might they resist?
- Which stakeholders must be aligned for the project to proceed (choose all that apply)?
- Which single stakeholder historically has blocked or slowed automation decisions?
- What are the most common objections technicians or scientists raise about automation?
- What training model has worked best here—intensive vendor-led, blended learning, train-the-trainer, or other?
- Describe one recent change the team accepted well — what helped that adoption succeed?
Let’s map the first 90 days after installation — who does what?
- Is the intended installation site ready for equipment (space, bench footprint, power, HVAC)?
- When will IT/LIMS access and credentials be available for integration work?
- Who will be the on-site point people for installation, training, and acceptance testing?
- Which sample types, plate formats, and assay reagents should we prioritize for the pilot sequence?
- What acceptance run sequence would prove readiness in the first 90 days (list tests or scenarios)?
- How should early issues be reported, triaged, and escalated during the pilot?
Money, timing, and approvals — what stands between talk and mutual commit?
- Where is this project in your procurement cycle?
- What procurement hurdles or contracting terms typically slow down deals here?
- Would you prefer purchase, lease, or consumption-based commercial structures?
- What's the most important commercial term that would make you comfortable signing (warranty, SLAs, acceptance windows, training inclusion)?
- What internal milestone or approval would signal we should move from discovery to Mutual Commit?
Anything we haven’t surfaced yet that matters to you?
- What is the single biggest risk you haven't mentioned that could derail this project?
- If we could solve only one operational problem in your lab, which should it be?
- Would a hands-on workshop or pilot run at our site help you feel more confident? If yes, what would you bring to that session?
- Best time and method to follow up with your stakeholders for a next-step planning session?
- Anything else we should know — constraints, preferences, or previous vendor experiences that shaped your expectations?
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Success
Confirm outcomes against success metrics, capture optimization opportunities, and maintain a shared channel for issues and improvements.
Success Reviews
- Success Metrics Review — Outcomes Confirmation
- Optimization Opportunities Workshop
- Operational Health & Weekly Triage
- Shared Channel & Escalation Governance
- Roadmap & Lessons Learned — Validation Handover
Issues & Enhancements
- Create a reliable, staffed channel for real-time issue reporting and improvement requests.
- KPI Dashboard Review
- Keep operations within agreed performance bands and resolve incidents quickly.
- Ensure continuous visibility of outstanding items and ownership across teams.
- Prevent small issues from becoming validation-impacting changes without governance.
- Update the incident tracker with root cause, mitigation, and owner for each open issue.
- Place orders for low-stock consumables or spare parts before critical thresholds are reached.
- Escalate any repeat failures to engineering for a deeper root-cause analysis.
- Reduce time-to-diagnosis by ensuring each report includes consistent, actionable data.
- Ensure everyone understands escalation rules and SLAs to avoid missed critical incidents.
- Channel Purpose & Scope
- One-sentence Current State
- Publish the approved issue template and train operations staff on completing it.
- Configure channel alerts and create an on-call rota with primary and backup responders.
- Set up an automated dashboard that surfaces open tickets by severity and age.
- Top Lessons from Recent Runs
- Translate operational learnings into a prioritized, actionable roadmap.
- Define clear validation and deployment responsibilities so improvements do not compromise validated status.
- Agree on communication and rollback plans to preserve operational continuity during change.
- Publish the prioritized roadmap with validation owners and expected timelines.
- Prepare validation protocols for each approved change and assign document owners.
- Schedule pre-deployment dry runs for high-risk changes and reserve validation windows.
- Validate whether each agreed success metric is met with objective evidence.
- If metrics are unmet, define immediate mitigations and a path to resolution with owners and deadlines.
- Ensure stakeholder agreement on whether to proceed to steady-state operations or continue optimization.
- Produce a one-page success scorecard indicating pass/fail for each metric and circulate to stakeholders.
- Assign owners for any mitigation tasks with clear deliverables and due dates.
- Schedule follow-up validation run(s) with acceptance criteria if gaps require re-testing.
- Recap of Confirmed Outcomes
- Create a prioritized backlog of optimization experiments linked to measurable outcomes.
- Define explicit validation scope and acceptance criteria for each experiment so changes remain controlled.
- Assign project owners and a timeline for pilot execution and review.
- Document prioritized experiments with hypothesis, success criteria, and necessary resources.
- Book pilot windows and resource reservations (operators, instruments, reagents) for the top experiments.
- Prepare a minimal data collection template to capture before/after metrics for each experiment.
- Candidate Roadmap Items
- Issue Template & Required Data
- Open Issue Triage
- Idea Collection (Brainstorm)
- Consequence Summary
- Future State Confirmation
- SLA & Escalation Path
- Prioritization Criteria & Decision
- Change Requests & Minor Optimizations
- Impact & Effort Triage
- Evidence Review (Diagnosis -> Proof)
- Validation & Deployment Plan
- Access & Notification Rules
- Define Experiments & Validation Boundaries
- Resource & Spare Parts Check
- Communication & Rollout Cadence
- Gap Analysis & Root Causes
- Action Review & Next Steps
- Prioritized Roadmap & Owners
- Governance Cadence
- Immediate Decisions and Owners