Health, Education & Government Life Sciences & Pharma Pharmaceutical Manufacturing & Labs

Lab Automation

Regulated development and commercialization journeys where clinical, quality, and market access align.

Beckman Coulter Hamilton Robotics Tecan Agilent
Inside this journey
  1. Pre-Discovery

    Align decision-makers, timelines, and technical owners before detailed discovery.

    1. 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? Options: Lab Director, Head of Screening/Discovery, Automation Manager, QA/Validation Lead, IT/LIMS Engineer, Research Scientist, Other
      • Roughly how many samples/assays does your group process per day (typical operating cadence)? Options: < 500, 500–2,000, 2,001–10,000, 10,001–50,000, > 50,000
      • Which assay types or workflows are highest priority for scale or automation right now? Options: High-throughput screening (HTS), Compound plating/serial dilutions, ELISA/biochemical assays, Cell-based assays, DNA/RNA prep, Sample normalization/normalizing concentrations, Other
      • What’s the single most urgent outcome you want from automation in the next 6–12 months? Options: Increase throughput, Reduce assay variability, Free researcher time, Integrate instruments/LIMS, Accelerate go/no-go decisions, Reduce operational cost, Other
      • 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? Options: Daily, Weekly, Monthly, Rarely, Never
      • When variability forces a rerun, how much time and resources does a typical rerun consume? Options: < 1 day / minimal cost, 1–3 days / moderate cost, 4–10 days / significant cost, > 10 days / high cost/critical delay
      • 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.)? Options: Pipetting precision, Timing/sequence of steps, Plate format transfers, Sample labeling/tracking, Reagent preparation, Other
      • How long have these variability issues been affecting your throughput or decision quality? Options: Months, 1–2 years, 3–5 years, More than 5 years, Not sure

      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? Options: Manual liquid handling capacity, Instrument scheduling conflicts, Method setup & optimization time, Data transfer / LIMS handoffs, Staffing shortages/shift coverage, Regulatory/validation hold-ups, Other
      • How predictable are your day-to-day volumes (are you steady, seasonal spikes, or highly variable)? Options: Very predictable, Moderate variability, High variability/spikes, Completely unpredictable
      • When a bottleneck appears, who typically becomes responsible for resolving it and how fast do you expect resolution? Options: Lab staff (same day), Lab manager (1–3 days), Automation/IT (days–weeks), Vendor support (days–weeks), Cross-functional taskforce (weeks)
      • 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? Options: Research/Scientists, Automation/Engineering, IT/LIMS, QA/Validation, All aligned, Not sure
      • How are decisions about capital equipment and integrations currently made (single decision‑maker, committee, devolved budget)? Options: Single decision-maker, Departmental committee, Central procurement, Grant-driven purchase, Other
      • Who will own validation and acceptance testing internally, and what capacity do they have to take on that work? Options: QA team (sufficient capacity), QA team (limited capacity), Research team, Vendor-managed, Not yet decided
      • How do IT and LIMS teams prefer to be engaged for integrations—early design reviews, formal RFP, or just at deployment? Options: Engage early (design), RFP stage, Only at deployment, Ad hoc as issues arise, Other
      • 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? Options: Reliability & precision, Protocol flexibility, LIMS/API integrations, Vendor method development & field support, Cost
      • Are you more excited by immediate throughput gains, long-term reproducibility, or by reclaiming scientist time—and why? Options: Immediate throughput, Long-term reproducibility, Reclaiming scientist time, All equally
      • 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. Options: Budget, Physical lab space, Validation workload, Staff training/time, Change resistance/culture, IT/LIMS complexity
      • 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)? Options: % CV reduction, Plates per hour, Samples per technician per day, Time to first result, Number of manual touchpoints reduced, Other
      • How much variability (in %CV or similar) would you need to see reduced to remove the need for repeat runs or replicate checks? Options: < 5% improvement, 5–15% improvement, 16–30% improvement, > 30% improvement, Don't have baseline
      • 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? Options: Weekly dashboard, Monthly review meeting, Quarterly exec summary, Shared channel (Slack/MS Teams), Other

      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? Options: Network/LIMS not available, Insufficient site power/space, QA validation incomplete, Staffing not trained, Safety/ESD issues, Other
      • What are your site's current constraints around network access, firewall policies, or data-sharing that we should know up front? Options: Open access for vendor, Strict firewall with exceptions, No external access allowed, LIMS vendor-managed, Unsure — need IT input
      • How much on-site vendor involvement is acceptable for installation and method transfer (full vendor-led, co-delivery, or hands-off)? Options: Vendor-led fully on-site, Co-delivery with internal staff, Remote support only, Hybrid phased approach
      • Which internal approvals or documents must be completed before installation (purchase order, IQ/OQ/PQ plan, risk assessment, SOP drafts)? Options: PO issued, IQ/OQ/PQ plan, SOP drafts, Risk assessment, Facility access approvals, Other
      • 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)? Options: QA/Validation, Lab Director, Automation Manager, IT/LIMS, Cross-functional sign-off
      • Which acceptance tests are most critical to you: throughput benchmarks, reproducibility (CV), plate-to-plate consistency, or LIMS round-trip verification? Options: Throughput benchmarks, Reproducibility (CV), Plate-to-plate consistency, LIMS connectivity & metadata integrity, Operator usability
      • What cadence of validation documentation and status updates would keep stakeholders comfortable during deployment? Options: Daily during critical windows, Weekly, Bi-weekly, As milestones complete, Only on request
      • 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? Options: Vendor tweak & repeat tests, Joint debugging session, Rollback and schedule new deployment, Conditional acceptance with corrective plan
      • How would you like to preserve institutional knowledge after go‑live (training certification, recorded sessions, runbooks, or a living LIMS SOP)? Options: Operator certification, Recorded training, Runbooks & SOPs, LIMS-embedded protocols, All of the above

      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.)? Options: Single assay, 2–6 weeks, Single assay, 2–3 months, Multi-assay, 2–3 months, Proof-of-concept lab week, Other
      • 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)? Options: Throughput target met, CV improvement threshold, Seamless LIMS integration, Minimal operator burden, On-time delivery of documentation, Budget within estimate
      • Are there regulatory or audit timelines that would affect pilot timing or reporting needs (e.g., GxP/GLP)? Please describe. Options: GxP/GLP regulated timelines, Internal audit scheduled, No regulatory constraints, Unsure — need input
      • Realistically, how soon could you commit to starting a pilot if the plan fits your needs? Options: Immediately, In 1–2 months, In 3–6 months, Later this year, Unsure
      • 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? Options: Email packet + demo, Short executive briefing, Technical deep-dive session, Shared pilot plan & timeline, Other
    2. 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? Options: 384‑well plates, 96‑well plates, tubes/plates mix, PCR strips, microtubes, Bead-based assays, Other
      • On an average day and on a peak day, how many samples or plates do you process? Options: <100 samples/day, 100–500, 500–2,000, 2,000–10,000, >10,000
      • Roughly what percentage of that end‑to‑end workflow is manual vs automated today? Options: 0–10% manual, 10–30% manual, 30–60% manual, 60–90% manual, Almost entirely manual
      • 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? Options: Sample prep bottleneck, Liquid handling/manual pipetting, Incubation/wait steps, Plate handling/transfer, Data transfer/processing, Instrument availability, Other
      • How often do these bottlenecks cause missed deadlines or re‑runs? Options: Daily, Several times/week, Weekly, Monthly, Rarely
      • 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)? Options: High CV / poor reproducibility, Edge effects/evaporation, Carryover/contamination, Pipetting volume errors, Failed controls, Software/scheduling errors, Other
      • How frequently do you see these failure modes affecting runs (percent of runs impacted)? Options: <1%, 1–5%, 5–15%, 15–30%, >30%
      • 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)? Options: Operator variability, Instrument calibration/maintenance, Consumable quality, Assay sensitivity to handling, Environmental factors (temp/humidity), Software bugs/scheduling, Other
      • 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? Options: <1 FTE, 1–2 FTE, 3–5 FTE, 6–10 FTE, >10 FTE
      • How much of a typical operator’s shift is consumed by manual pipetting, setup/cleanup, and troubleshooting (estimate %)? Options: <10%, 10–30%, 30–50%, 50–75%, >75%
      • Do you rely on a small group of 'superusers' to keep things running? If yes, what risks do you see if they become unavailable? Options: Yes—single point of failure, Yes—shared risk but manageable, No—cross‑trained team, Other
      • How would you describe team sentiment around current workflows — frustrated, stretched but proud, resigned, or optimistic? Give examples. Options: Frustrated, Stretched but proud, Resigned, Optimistic
      • 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? Options: All new (0–2 yrs), Mostly new (2–5 yrs), Mixed (some >5 yrs), Mostly legacy (>5 yrs)
      • How frequently does instrument downtime occur and what is the average time to repair or workaround? Options: Daily, Weekly, Monthly, Quarterly, Rarely
      • 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? Options: Automated (API/driver), Manual export/import, Semi‑automated with human checks, No LIMS integration
      • 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? Options: Missing metadata, Wrong plate mapping, Format mismatch, Timestamps off, Human transcription errors, Other
      • 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? Options: Budgetary concerns, Fear of job loss, Validation/regulatory risk, Integration complexity, Vendor trust, Other
      • Which regulatory or validation requirements must any change meet (e.g., GLP, GxP, ISO) and who owns validation internally? Options: GLP, GxP, ISO standards, Institutional QA only, No formal requirements, Other
      • 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? Options: Funds available now, Planned in current budget, Next fiscal year, Dependent on approvals, Uncertain
      • 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? Options: Increase throughput, Reduce re‑runs/failures, Lower operator time, Seamless LIMS integration, Lower operating cost, Other
      • What timeline would make that outcome meaningful for you (weeks, months, fiscal year)? Options: Immediately (weeks), 1–3 months, 3–6 months, 6–12 months, Next 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?
  2. 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? Options: Mostly manual workflows, Some bench automation, Several standalone instruments, Partially integrated workcell, Fully automated workcell
    • Which of these assay types drive the most sample volume for you? Options: HTS screening, ELISA / plate-based assays, Next-generation sequencing prep, Compound solubility / prep, Cell-based assays, Other
    • On an average day, roughly how many samples or wells does your team process? Options: <100, 100–1,000, 1,000–5,000, 5,000–20,000, >20,000
    • Who in your team will be closest to operating and validating a new automation solution? Options: Lab Director, Automation Engineer, Senior Scientist, Operations Manager, QA Manager, Other

    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? Options: Less than 6 months, 6–12 months, 1–3 years, Over 3 years
    • 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? Options: Throughput, Reproducibility, Staff availability, Data integrity, Integration with other systems
    • How does dealing with these compromises make your team feel—stretched, frustrated, relieved, or something else? Options: Stretched, Frustrated, Relieved we cope, Motivated to improve, Other

    Where Bottlenecks Hide (and Who Feels Them)

    • What single step in your workflow causes the most frequent delays? Options: Sample prep / pipetting, Plate handling/stacking, Incubation/wash steps, Instrument queueing, Data handoff to LIMS/analysis, Other
    • 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? Options: Daily, Weekly, Monthly, Rarely, Never
    • Which roles are most impacted when a bottleneck appears? Options: Scientists, Technicians, Automation engineers, Data analysts, QA/Compliance, Other
    • Which workaround do you rely on most to absorb bottlenecks? Options: Overtime, Manual parallelization, Outsourcing, Reducing experiment scope, Accepting longer timelines, Other

    When Reproducibility Breaks Your Timeline

    • How often do you have to re-run assays because results weren’t reproducible? Options: Multiple times per week, Weekly, Monthly, Rarely, Never
    • Which failure modes are most common in your assays? Options: Pipetting volume error, Cross-contamination, Instrument variability, Plate edge effects, Reagent instability, Other
    • 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? Options: <1,000, 1,000–5,000, 5,000–20,000, 20,000–100,000, >100,000
    • 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)? Options: Faster lead ID, Reduced reagent costs, Lower headcount growth, Fewer repeats, Improved regulatory submissions, Other
    • 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? Options: Fully automated, Partially automated with manual steps, Mostly manual transfers, We don’t use LIMS
    • Which LIMS or data platforms must a solution connect to for you? Options: Thermo LIMS, Benchling, LabWare, Custom LIMS, EPIC/Other, No LIMS
    • What integration problems cost you attention—missing metadata, misaligned timestamps, failed uploads, or something else? Options: Missing metadata, Misaligned timestamps, Failed uploads, Incompatible file formats, Security restrictions, Other
    • Are there regulatory or IT policies that will govern how we integrate (e.g., on-prem only, VPN, audit logs)? Options: On-prem only, Cloud allowed, VPN required, Strict audit logging, Data residency rules, Other
    • 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? Options: Lab Director, VP/Head of R&D, Procurement, QA/Validation, Operations Manager, Other
    • Who are the technical and QA/validation owners we should engage early?
    • What is your target timeline from evaluation to site acceptance? Options: <1 month, 1–3 months, 3–6 months, 6–12 months, >12 months
    • Are there regulatory milestones (e.g., 21 CFR part 11, ISO standards) that define validation scope? Options: 21 CFR Part 11, ISO 17025, EU GMP, No formal regulatory constraint, Other
    • 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)? Options: Standard power (120/240V), High power / 3-phase, Compressed air, Chilled water, Cleanroom classification, Other
    • How many full-time operators will you realistically assign to run and maintain the system? Options: 0–1, 2–3, 4–6, 7–10, >10
    • What level of vendor-led training and documentation do you need to feel comfortable (operator, admin, validation packs)? Options: Operator training only, Operator + Admin, Full training + SOPs + validation protocols, Just documentation, Other
    • How much downtime per week is tolerable for maintenance and validation activities? Options: <1 hour, 1–4 hours, 4–8 hours, 1 day, More than 1 day

    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? Options: Throughput test, Repeatability/precision test, Integration/LIMS test, Edge-case assay test, Safety and containment test, Other
    • What commercial or service commitments would reduce perceived risk (SLA, spare parts, on-site support)? Options: SLA response time, On-site support, Stocked spares, Guaranteed performance, Pilot with options to return, Other
    • 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? Options: Single high-volume assay, Multiple representative assays, Staged approach: single then expand, Unsure
    • What is the minimum pilot duration you’d accept to evaluate throughput and reproducibility? Options: 1–3 days, 1–2 weeks, 3–4 weeks, 1–3 months
    • What datasets or deliverables would you need at pilot close (raw data, processed metrics, SOPs, integration logs)? Options: Raw data, Processed metrics, SOPs, Integration logs, Validation pack, Other
    • Who needs to be present or consulted during the pilot to make rapid decisions? Options: Lab Director, Automation Engineer, QA/Validation, IT/LIMS, Procurement, Other
    • What would be a realistic next step after a successful pilot—proof-of-concept purchase, multi-site roll-out, or more testing? Options: PO for one site, Pilot expansion, Full rollout plan, Additional development work, Unsure

    Practical Next Steps and Hidden Hurdles

    • What internal approvals or procurement steps typically delay projects like this? Options: Budget approval, Legal/contract review, IT security review, Facilities sign-off, Vendor qualification
    • 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? Options: CapEx, Consumables, Service contracts, Validation services, Training costs, Other
    • 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?
  3. 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
  4. 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? Options: 1, 2-3, 4-6, 7-10, More than 10
    • 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? Options: All ready, Partially ready, Not ready
    • Are there any special environmental requirements at install location (temperature control, vibration isolation, cleanroom classification)? Options: Standard lab bench, Temperature-controlled room, Cleanroom/controlled environment, Other
    • Will installation require coordination with onsite facilities/engineering teams (e.g., HVAC, electrical work)? Options: Yes, No
    • 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)? Options: Single-channel, 8-channel, 96-channel, 1536/384 heads, Nano-volume dispenser
    • 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? Options: Standard lab specs (±5%/CV≤5%), Tight specs (±2%/CV≤2%), Custom - please specify
    • Do you require gravimetric calibration, dye-based verification, or both? Options: Gravimetric, Dye-based, Both, Other
    • 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)? Options: Initial only, Quarterly, Semi-annually, Annually, On-demand
    • Do you need calibration records formatted to a specific template for your QA/validation files? Options: Yes, No

    Develop and deploy assay-specific pipetting protocols

    • How many distinct assays or protocol variants require development and deployment? Options: 1, 2-3, 4-6, 7-10, More than 10
    • 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? Options: Yes - specify, No
    • Is method transfer required from an external lab/vendor or are these internally developed assays? Options: Method transfer from external, Internally developed, Hybrid
    • Do you require our team to produce full SOPs, operator checklists, and fail-mode handling for each protocol? Options: Yes - all deliverables, Partial documentation, No, we will document
    • 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)? Options: Plasma/Serum, Cell suspensions/lysates, Compound screening plates, DNA/RNA preps, Tissue homogenates, Other
    • 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)? Options: Aliquoting, Dilution/serial dilutions, Extraction/cleanup, Centrifugation, Heating/sonication, Filtration, Other
    • Do workflows require cold-chain handling or integration with refrigerated plate hotels? Options: Yes - refrigerated storage needed, No
    • Are there biosafety or hazardous material considerations (BL2/BL3, toxic compounds) that affect automation design? Options: Yes - specify in free text, No
    • Do you require consumable management and waste handling processes to be included in the workflow design? Options: Yes, No
    • Should sample traceability barcodes and LIMS handoffs be implemented as part of the sample prep workflow? Options: Yes, No, Planned later

    Integrate instruments with LIMS via API connector

    • Which LIMS vendor/version will you connect to (Benchling, LabWare, Thermo Fisher LIMS, STARLIMS, Custom, Other)? Options: Benchling, LabWare, Thermo Fisher LIMS, STARLIMS, Custom LIMS, Other
    • Do you have existing API credentials, sandbox/test environment, and API documentation available for integration? Options: Sandbox and docs available, Only production credentials, Not available yet
    • What data objects need to be exchanged (sample IDs, plate maps, run results, QC flags, audit logs)? Options: Sample IDs/plate maps, Run results, QC flags, Audit logs, Other
    • What authentication method is required by your IT (OAuth2, API key, client certificate, LDAP/SSO)? Options: OAuth2, API key, Client certificate, LDAP/SSO, Other
    • Do you require bi-directional integration (LIMS driving runs and instrument posting results) or one-way only? Options: Bi-directional, Instrument -> LIMS only, LIMS -> Instrument only
    • Are there data format or validation requirements (CSV schema, JSON schema, HL7, custom) we must adhere to? Options: CSV, JSON, HL7, Custom schema
    • Does your IT/security team require code review, penetration testing, or vendor SOC attestations prior to connectivity? Options: Yes, No, Ask later

    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)? Options: Yes - all, Some do, None
    • Is there a preferred central scheduler or orchestration platform to coordinate device choreography? Options: Customer scheduler, Vendor-provided scheduler, Use our orchestration, None yet
    • Are physical integration constraints known (deck heights, plate access orientation, robot reach, conveyor routes)? Options: Yes - drawings provided, Partially known, Unknown
    • Will safety interlocks, E-stops, and guarded zones be required and who will approve them (customer EHS or vendor)? Options: Customer EHS, Vendor, Both
    • Do you require vendor-specific validation or vendor-supplied drivers to be included in IQ/OQ activities? Options: Yes, No
    • What is the expected run sequencing complexity (single-step plate moves, concurrent multi-instrument runs, asynchronous scheduling)? Options: Simple sequential, Concurrent multi-instrument, Asynchronous/complex

    Install and calibrate microplate readers

    • Which read modes are required (absorbance, fluorescence, luminescence, spectral scanning, TR-FRET, AlphaScreen)? Options: Absorbance, Fluorescence, Luminescence, Spectral scanning, TR-FRET, AlphaScreen, Other
    • Which plate formats need support (96-well, 384-well, 1536-well, custom plates)? Options: 96-well, 384-well, 1536-well, Custom formats
    • Do you require temperature control, kinetic reads, or stacker integration for plate handling? Options: Temperature control, Kinetic reads, Stacker/robot integration, None
    • Are there calibration standards or traceable reference materials you require us to use during calibration? Options: Yes - provided by customer, Yes - vendor supplies, No preference
    • 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? Options: Yes - LIMS integration, Yes - to analysis pipeline, No
    • Do you require environmental qualification of the reader location prior to installation (e.g., vibration, light control)? Options: Yes, No

    Execute IQ/OQ/PQ validation protocols

    • Which validation stages do you require for this project (IQ, OQ, PQ, or a subset)? Options: IQ only, IQ + OQ, IQ + OQ + PQ, OQ + PQ, Custom
    • What regulatory or quality frameworks apply to your lab (GMP, GLP, CLIA, ISO 17025, Research only)? Options: GMP, GLP, CLIA, ISO 17025, Research/non-regulated, Other
    • Do you have site or corporate templates for IQ/OQ/PQ deliverables we must follow? Options: Yes - templates provided, No - use vendor templates, Partial templates
    • 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? Options: Vendor executes onsite, Customer leads with vendor support, Remote execution only
    • Are archived validation records required in a particular format or repository (electronic vs paper, CFR21 Part 11 compliance)? Options: Electronic/CFR21 Part 11, Electronic/non-21CFR, Paper records, Other
    • 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)? Options: 1-2, 3-5, 6-10, More than 10
    • What training format do you prefer (classroom + hands-on, workshop, train-the-trainer, certification session)? Options: Classroom + hands-on, Workshop, Train-the-trainer, Certification
    • How long should initial training sessions be per trainee (half-day, 1 day, multi-day)? Options: Half-day, 1 day, 2-3 days, More than 3 days
    • Do you require formal training materials, operator manuals, competency tests, and certificates? Options: All deliverables, Some deliverables, No certificates required
  5. 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
  6. Deployment

    Operationalize rollout with readiness checks, enablement, and validation for regulated lab environments.

    1. 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)? Options: < 1,000, 1,000–10,000, 10,000–50,000, 50,000–200,000, > 200,000
      • Which workflows are currently highest priority for automation? Options: High-throughput screening, Sample preparation (extraction, normalization), Serial dilutions / plate prep, Assay readout integration (plate reader, HCS), Compound management / reformatting, Other
      • Describe your current level of automation across those workflows (manual, semi-automated, fully automated). Options: Mostly manual, Semi-automated in pockets, Automated for single assays, Integrated automated workflows, Don’t know / mixed
      • 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)? Options: Throughput (samples/day), Reproducibility (CV), Hands-on time saved (FTE), Time-to-result, Error reduction, Other

      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? Options: Daily, Weekly, Monthly, Quarterly, Rarely
      • Which step(s) most often create the longest waits or variability? Options: Pipetting / liquid handling, Plate setup and labeling, Sample tracking / LIMS handoff, Incubation and timing, Data transfer / analysis, Other
      • Quantitatively, how many researcher hours per week are lost to manual tasks tied to these bottlenecks? Options: < 10 hours, 10–40 hours, 40–100 hours, 100–300 hours, > 300 hours
      • 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)? Options: Missed milestones, Slowed lead discovery, Increased reagent/waste costs, Staff overtime, Compromised data quality, Other

      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)? Options: Lab Director / Head of Operations, Automation Manager, IT / Network, QA/Validation, LIMS Administrator, Procurement / Finance, Health & Safety / EHS, Other
      • 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? Options: Yes — identified, Yes — informal, No, Unsure
      • What is your internal decision timeline for approving capital projects like this? Options: < 1 month, 1–3 months, 3–6 months, 6–12 months, > 12 months
      • Have you run internal pilots or proof-of-concepts for automation before? What was the outcome? Options: Successful and scaled, Limited success / not scaled, Failed or aborted, Not attempted

      The Invisible Failures — Where Reproducibility Breaks

      • Which recurring assay failures keep you up at night?
      • Which failure modes are most common in your workflows? Options: Pipetting inaccuracy/air gaps, Cross-contamination, Plate handling misalignments, Inconsistent incubation timing, Data mismatches with LIMS, Other
      • How frequently do you see reproducibility outside your acceptable range? Options: Almost always, Often, Occasionally, Rarely, Never sure
      • What are your current acceptance criteria for reproducibility (e.g., CV% thresholds) across critical assays? Options: CV < 5%, CV 5–10%, CV 10–20%, No formal criteria
      • 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? Options: Faster go/no-go, Fewer retests, Higher publication/filing quality, Reduced reagent waste, Other

      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)? Options: No change, 10–50% increase, 50–200% increase, > 200% increase
      • What maximum variability (CV%) would you accept to consider the system fit-for-purpose? Options: < 5%, 5–10%, 10–15%, > 15%
      • How many distinct assay protocols would need to run on the platform without reconfiguration? Options: 1–2, 3–5, 6–10, > 10
      • 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? Options: Must preserve (validated), Can be optimized, Mixture — specify per assay

      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? Options: LIMS, ELN, Inventory/Compound Management, Instrument Control (vendor drivers), Data Analysis pipelines, Middleware / Scheduler, Other
      • Which LIMS/ELN vendors or in-house systems are you using today? Options: Thermo Fischer/Benchling, LabWare, LabVantage, Custom / In-house, Other / Unsure
      • What network or security constraints should we be aware of (firewalls, air-gap, VPN, required certificates)? Options: Open lab network, Restricted VLAN, Air-gapped / no internet, Requires VPN, Requires specific certs, Unsure
      • Who owns IT approvals and what is the typical lead time to get network/LIMS access? Options: IT owns; < 2 weeks, IT owns; 2–6 weeks, IT owns; > 6 weeks, Shared responsibility, Unsure
      • 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? Options: Throughput target met, Reproducibility thresholds met, LIMS integration working, Operator training completed, Validation deliverables documented, Safety controls verified
      • Where is your budget and procurement process today? Options: Budget allocated and approved, Budget earmarked but not approved, Need CAPEX approval, Seeking operating lease options, Unsure / discussing
      • Who on your team will own validation and acceptance testing responsibilities? Options: QA/Validation team, Automation Manager, Lab Ops / Operators, Vendor with customer oversight, Shared ownership
      • What training format works best for your team (select all that apply)? Options: On-site instructor-led, Remote live training, Self-paced e-learning, Shadowing with vendor, Train-the-trainer
      • What post-deployment support model would give you confidence (SLA, on-site support, local spare parts)? Options: 24/7 SLA, Business-hours SLA, On-site support blocks, Remote support only, Local spare parts inventory, Managed service

      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? Options: Biochemical enzyme assays, Cell-based screening, Plate-based ELISA, Compound serial dilutions, Sample normalization / extraction, Other
      • What measurable success criteria would you use for that pilot? Options: Throughput achieved, CV reduction, Hands-on time saved, Successful LIMS handoff, Operator proficiency, Other
      • What internal resources can you commit to a pilot (operators, IT time, QA oversight)? Options: Operator time (hours/week), IT time (hours), QA time for validation, None — need vendor-run pilot, Other
      • What concerns or constraints would make a pilot risky for you? Options: Disruption to active projects, Insufficient IT support, Regulatory impact, No available operator time, Cost concerns, Other
      • If we proposed a pilot, when could you realistically schedule it? Options: Immediately (within 2 weeks), 1–2 months, 2–3 months, 3–6 months, Later / unsure
    2. Deployment Enablement

      Schedule installation, method transfer, operator training, and run sequencing with clear owners and milestones.

    3. 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? Options: Lab Director, Director of Screening, Head of Automation, Operations Manager, QA/Validation Lead, IT/Infrastructure Lead, Other
      • Which lab or program will be the primary pilot for this automation effort? Options: High-throughput screening, Sample prep / ADME, Compound management, Biomarker assays, Core/shared facility, Other
      • Roughly how many plates or samples per day does this group currently process? Options: <50 plates / <1k samples, 50–200 plates / 1k–5k samples, 200–500 plates / 5k–20k samples, 500+ plates / 20k+ samples, Unknown / variable
      • What is the single metric leadership most asks you about when evaluating lab performance? Options: Throughput (plates/day), Assay reproducibility (CV/Z'), Turnaround time, Cost per sample, Operator headcount, Regulatory compliance, Other
      • On what timeline are you hoping to reach a decision about automation (pilot or purchase)? Options: Immediately (0–1 month), Short (1–3 months), Quarterly (3–6 months), Longer (6–12 months), No set timeline

      Are you quietly tolerating variability that’s slowing discovery?

      • Which assays or steps do you see as the largest sources of unpredictable results? Options: Liquid handling dilutions, Plate-to-plate variability, Incubation inconsistencies, Instrument calibration drift, Sample prep variability, Other
      • 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? Options: Manual SOPs with checklists, Operator certification, Instrument preventative maintenance, Automated QC scripts, No consistent controls, Other
      • How confident are you that automation could reduce this variability meaningfully? Options: Very confident, Somewhat confident, Unsure, Skeptical

      Where does time actually disappear in your lab day?

      • Estimate hours per week your team spends on manual pipetting, plate setup, and transfers. Options: <10 hours, 10–25 hours, 25–50 hours, 50–100 hours, 100+ hours
      • Which specific tasks eat the most hands-on time? Options: Serial dilutions, Plate reformatting, Aliquoting/sample prep, Manual QC/inspection, Method troubleshooting, Other
      • How often do staffing gaps or holidays cause critical runs to be delayed? Options: Almost always, Often, Sometimes, Rarely, Never
      • 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? Options: New assay development, Data analysis, Method optimization, Training/mentoring, Other

      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? Options: >99%, 97–99%, 95–97%, <95%
      • If automation freed operators from repetitive tasks, what would success look like for scientists day-to-day? Options: More experiments per week, Faster data interpretation, Better experiment design, Lower overtime, Improved job satisfaction, Other
      • Which KPIs should we include in a pilot acceptance test to convince you the system works? Options: Throughput achieved, CV/Z' across plates, Run-to-run reproducibility, Integration with LIMS, Operator proficiency, Training completion

      What’s hiding in the gap between instruments and your data?

      • Which LIMS, ELN, or data systems must this solution connect to? Options: Epicor/LIMS, Thermo/LabKey, Benchling, Dotmatics, Custom in-house LIMS, None/Manual
      • How painful is current data flow from instruments to LIMS or analysis (0 = seamless, 10 = avalanche)? Options: 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10
      • Which instruments or vendor drivers have been hardest to integrate historically? Options: Liquid handlers, Plate readers, Incubators/robots, Mass spec, Custom devices, We haven’t tried integrations
      • Are there network, firewall, or security constraints that would block standard integration approaches? Options: Air-gapped lab, Restricted outbound access, Proxy/VPN required, Open on request, Unknown
      • 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)? Options: GLP, GMP, 21 CFR Part 11, ISO standards, Internal QA only, Other
      • What validation deliverables must the vendor provide vs what your team will own? Options: IQ/OQ/PQ protocols, CSV/21CFR documentation, Traceability logs, Method transfer docs, Training records, Other
      • Which acceptance tests are non-negotiable for QA sign-off? Options: Throughput stress runs, Reproducibility across operators, End-to-end LIMS transfer, Security/audit trails, Environmental controls validation
      • How long does a typical qualification/validation cycle take at your site? Options: <2 weeks, 2–4 weeks, 1–3 months, 3+ months, Depends on scope
      • 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)? Options: Lab Director, Finance/Procurement, QA/Validation, IT/Network, Scientists/End users, Facilities, Other
      • Which single stakeholder historically has blocked or slowed automation decisions? Options: Finance, QA, IT, Lab leadership, End users, Facilities, No single blocker
      • What are the most common objections technicians or scientists raise about automation? Options: Job security concerns, Loss of control over protocols, Fear of complicated software, Downtime during transition, Validation burden, Other
      • What training model has worked best here—intensive vendor-led, blended learning, train-the-trainer, or other? Options: Vendor-led onsite, Train-the-trainer, Blended online + onsite, Self-paced materials, 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)? Options: Fully ready, Minor modifications needed, Significant site work required, Unknown / needs assessment
      • When will IT/LIMS access and credentials be available for integration work? Options: Before install, During install window, After install, Not yet scheduled
      • 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? Options: Vendor ticketing + weekly review, Onsite daily standups, Dedicated Slack/channel, Email + monthly review, Other

      Money, timing, and approvals — what stands between talk and mutual commit?

      • Where is this project in your procurement cycle? Options: Budget approved, Budget requested, Seeking budget, No budget yet, Other
      • What procurement hurdles or contracting terms typically slow down deals here? Options: Capital approval, Security/IT review, Vendor validation clauses, Lease/finance terms, Other
      • Would you prefer purchase, lease, or consumption-based commercial structures? Options: Purchase (capex), Lease/finance, Subscription/consumption, Undecided
      • What's the most important commercial term that would make you comfortable signing (warranty, SLAs, acceptance windows, training inclusion)? Options: Extended warranty, Defined SLAs, Clear acceptance criteria, Included training & support, Flexible payment terms, Other
      • 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? Options: Throughput limits, Assay variability, Integration/LIMS gaps, Operator time burden, Validation complexity, Other
      • 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? Options: Yes — bring assays & reagents, Yes — bring operators only, Maybe — need more info, No
      • Best time and method to follow up with your stakeholders for a next-step planning session? Options: Weekdays AM, Weekdays PM, Weekly cadence, Ad-hoc as needed, Email summary then call
      • Anything else we should know — constraints, preferences, or previous vendor experiences that shaped your expectations?
  7. 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
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