Health, Education & Government Life Sciences & Pharma Imaging Systems

Nuclear Medicine

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

Siemens Healthineers GE HealthCare Philips Bracco
Inside this journey
  1. Pre-Discovery

    Align clinical, operational, and capital stakeholders before detailed discovery.

    1. Stakeholder Alignment

      Confirm decision roles, timeline, capital constraints, and clinical priorities across nuclear medicine, cardiology, radiology, and hospital leadership.

      Alignment Questions

      Quick introductions — who’s in the room?

      • Who will be our primary point of contact for this project, and what is their role? Options: Nuclear Medicine Director, Radiology Department Chair, Cardiology Service Line Director, Hospital COO/CNO, Radiation Safety Officer (RSO), Facilities/Engineering Lead, Capital Projects Lead, Other (please specify)
      • Which other stakeholders should we expect to be involved (name and role)?
      • How do you prefer we communicate about decisions and updates (email, weekly call, shared workspace, in-person)? Options: Email, Weekly scheduled call, Ad-hoc calls, Shared project workspace (e.g., Teams/Slack), In-person meetings, Other
      • Who on your team typically speaks for clinical priorities versus capital/financial priorities? Options: Clinical leadership (MD), Department administrator/manager, Finance/Capital planning, Hospital leadership (C-suite), Shared responsibility, Other
      • If there’s one immediate thing you want us to know about how decisions get made here, what is it?

      Who really holds the keys?

      • If you had to name the single individual or committee whose approval would make or break this purchase, who is it and why would they say no?
      • Which groups need formal approval (select all that apply)? Options: Nuclear Medicine Department, Radiology Department, Cardiology Department, Hospital Finance/Capital Committee, Materials Management/Procurement, Legal/Compliance, Radiation Safety/Regulatory, Academic Affairs (if applicable), Other
      • How aligned are those approval groups today on the need for new imaging equipment? Options: Fully aligned — same objectives, Mostly aligned with minor differences, Divided — clear competing priorities, Not aligned or unsure
      • Who tends to be the 'deal stopper' in previous equipment purchases — clinical leaders, finance, facilities, or others? Tell us a specific past example.
      • What evidence or voices (e.g., referring physicians, department metrics, patient stories) carry the most weight in persuading that key approver? Options: Clinical outcome data, Volume and throughput trends, Patient experience metrics, Return-on-investment models, Peer institution examples, Regulatory/safety requirements, Vendor reputation/service history, Other

      What are we racing against?

      • If this project stalls, what negative consequences do you expect to see in the next 6–18 months?
      • How urgent is replacement or capacity expansion for you right now? Options: Immediate (0–3 months), Short-term (3–6 months), Mid-term (6–12 months), Long-term (12+ months), No fixed timeline
      • Is there an external deadline driving the timeline (e.g., lease expiration, regulatory inspection, radiotracer demand spike, capital budget cycle)? Please specify.
      • When did you first realize a need for new or upgraded nuclear imaging capability, and how has that feeling evolved?
      • If you were forced to accelerate this timeline, what would be the single biggest blocker inside your organization? Options: Capital approval, Space/shielding readiness, Staffing or training, Supply chain/leadtimes, Radiopharmaceutical availability, Other

      Money talks — what’s the real budget story?

      • What is the current funding path being considered for this acquisition (select all that apply)? Options: Capital budget allocation, Operating lease/financing, Vendor lease/managed service, Grant or philanthropic funds, Shared/consortium funding, Not yet identified
      • Do you already have a budget range in mind? If yes, please provide the range or the approval threshold.
      • What aspects of total cost of ownership matter most to your finance team (initial price, uptime/service, consumables/radiopharma compatibility, energy/room costs, trade-in/resale)? Options: Initial purchase price, Service and maintenance costs, Consumables and radiotracer compatibility, Energy and facility costs, Downtime and productivity loss, Upgrade/refresh options, Other
      • How flexible is the budget — are you able to shift funds to prioritize throughput or image quality if the business case is strong? Options: Very flexible, Somewhat flexible with approvals, Fixed — little flexibility, Unknown
      • Has your organization used external financing or vendor-managed models for imaging equipment before? Describe what worked and what didn't.

      Clinical priorities — what keeps you up at night?

      • If you imagine a year from now with ideal imaging operations, what one clinical problem has been solved that would make you proud?
      • Which clinical priorities should guide system selection (select up to three)? Options: Cardiac perfusion accuracy, Oncology PET sensitivity, Neurology tracer specificity, Throughput for stress testing, Low-dose protocols, Quantitative reproducibility, Hybrid CT attenuation correction, Theranostics workflow support
      • Which tradeoffs are acceptable to you: faster scans with slightly lower resolution, or highest-resolution scans with longer protocols? Options: Prefer fastest scans while maintaining diagnostic quality, Prefer highest image quality even if slower, Need balanced approach, Undecided — want to explore with data
      • How important is radiotracer flexibility (ability to run a wide radiotracer mix) versus optimizing for a narrow set of high-volume studies? Options: Very important — broad radiotracer mix required, Moderately important, Prefer optimization for a focused high-volume set, Not a factor
      • Tell us about a recent clinical case or bottleneck where your existing equipment fell short and the patient or workflow impact that resulted.

      Hidden constraints & the politics behind them

      • What internal political dynamics or legacy commitments might unexpectedly derail a technically strong proposal?
      • Do you have legacy contracts, service agreements, or preferred-vendor relationships that we should know about? Options: Yes — existing service/contracts, No, Unknown / need to check
      • How do facilities and radiation safety typically react to proposed room changes or shielding needs — collaborative, cautious, or obstructive? Options: Collaborative and proactive, Cautious but cooperative, Frequently causes delays, Varies by project
      • Are there union, credentialing, or staffing rules that will shape training timelines or who can operate new equipment? Options: Yes — union/staffing rules apply, No, Sometimes — depends on discipline
      • Has there been recent leadership turnover or budget reshuffling that might change priorities during this project? Options: Yes — major changes recently, Minor changes, No significant change, Unsure

      Decision signals & acceptable risk — what will make you say yes?

      • What are the top three measurable acceptance criteria that this purchase must meet (examples: throughput per day, PET sensitivity index, dose reduction %, uptime target)?
      • Which proof points would most convince your finance or capital committee (select up to three)? Options: Peer hospital case studies, Formal ROI model, Clinical outcome data, Warranty/service guarantees, Short lead-time / guaranteed install window, On-site demo or loaner unit, Other
      • How much clinical validation (phantom testing, pilot studies, clinical reads) do you require before sign-off? Options: Extensive (multi-week pilot), Moderate (physicist testing + clinical read sample), Minimal (manufacturer data + factory acceptance), Unsure — want to discuss
      • What level of uptime or service response time would you consider a deal-breaker if not guaranteed? Options: >99% uptime / 24–48 hr response, 95–99% uptime / 48–72 hr response, 80–95% uptime / next-business-day response, Varies by modality/study
      • What non-negotiable compliance, safety, or licensure conditions must be satisfied for you to proceed?

      From conversation to commitment — what next?

      • Given everything discussed, what would be a realistic next milestone you’d be comfortable committing to (site visit, budget submission, pilot demo, stakeholder sync)? Options: Schedule site visit/walkthrough, Submit preliminary budget request, Arrange on-site demo/loaner, Organize stakeholder decision workshop, Other
      • Who needs to be present at the next meeting to move things forward, and what decision authority should they bring?
      • What additional information or materials would make the biggest difference for you right now (detailed TCO, clinical studies, site planning checklist, lead-time estimates)? Options: Total cost of ownership model, Clinical performance data, Site/shielding checklist, Installation lead-time schedule, Training and service plans, Case studies from peer institutions, Other
      • If we propose a timeline to meet your preferred go-live window, what internal approvals must happen and by when?
      • On a scale from 1–10, how ready does your organization feel to make a final decision once all technical and financial questions are answered? Options: 1, 2, 3, 4, 5, 6, 7, 8, 9, 10
    2. Current State Imaging Assessment

      Document existing systems, throughput, radiotracer mix, staffing status, PACS/RIS integrations, and radiation safety or site constraints.

      Current State

      Quick Snapshot: Your Imaging Landscape

      • How many dedicated nuclear medicine / PET/CT / SPECT rooms do you operate today (count each room type separately if mixed)? Options: 1, 2, 3, 4, 5+, Not sure
      • Which scanner makes and models are in active clinical use right now? (List each system and approximate install year)
      • Which of these study types represent your core case mix today? Options: Cardiac perfusion SPECT, Oncology PET/CT (FDG), PET/CT for PSMA/other tracers, Neurology (DaT, Amyloid), Theranostics/therapeutic radionuclide prep, Bone scans and general NM studies
      • Typical daily nuclear medicine / PET patient volume across the site (combined)? Options: 0–5, 6–15, 16–30, 31–50, 50+
      • Tell us about your radiotracer supply and mix—what do you use regularly and what are occasional/seasonal? (Examples: onsite cyclotron, bulk FDG delivery, Rb generator, Tc‑99m kits)

      Are You Settling for 'Good Enough'?

      • If you step back, what’s the single thing about your current imaging operation that feels like it’s holding clinical care or growth back?
      • How often do scan delays, workflow handoffs, or equipment downtime directly cause patient reschedules or cancellations? Options: Daily, Weekly, Monthly, Rarely, Never
      • When those disruptions happen, what’s the typical downstream impact—on patient care, referring physicians, or revenue? Please give a recent example.
      • Which of the following have you tolerated as 'just part of the job'—but would you prefer to eliminate? Options: Long scan times per study, Image quality variability, Lengthy reconstruction/processing, Complex operator workflows, Integration friction with PACS/RIS, Radiotracer availability constraints

      Where Throughput Loses Ground

      • What specific part of your patient throughput feels most inefficient right now—scheduling, prep, scan acquisition, reconstruction, reporting, or post‑processing? Options: Scheduling, Patient prep/consent, Acquisition (scan time), Reconstruction/processing, Physician read/reporting, Post‑scan logistics
      • Walk me through a typical patient’s timeline from check‑in to check‑out for a standard cardiac SPECT OR PET oncology study—where are the longest waits?
      • How many back‑to‑back scans can a single technologist reasonably perform in a day for your most common study type? Options: 1–3, 4–6, 7–9, 10+
      • What scheduling behaviors or dependencies (e.g., tracer delivery windows, prep times, cardiology stress lab availability) routinely force you to run below capacity?

      Hidden Risks and Compliance Blindspots

      • If an unexpected regulatory inspection focused on radiation safety arrived tomorrow, where would you be most exposed? Options: Shielding documentation, Radioactive waste handling, Staff training/competency, Licensing/possession limits, Dose monitoring/logging, None of the above / ready
      • When was the last time you performed a formal shielding or site safety re‑assessment for the rooms that host nuclear medicine studies? Options: Within 6 months, 6–12 months, 1–3 years, More than 3 years, Never/Not sure
      • Describe any site constraints that have forced you to alter clinical protocols (e.g., reduced injected doses, patient selection changes, time‑of‑day scheduling).
      • Have you had any reportable radiation safety incidents or near‑misses in the last 36 months? If yes, what changed afterward? Options: Yes—formal remediation, Yes—informal changes, No incidents, Prefer not to say

      Integration: Are Your Systems Actually Talking?

      • How would you characterize your current PACS/RIS integration with nuclear modalities—fully bi‑directional orders+results, image‑only transfers, manual imports, or fragmented? Options: Full bi‑directional (orders/results/images), Images + manual order linking, Image push only, Manual exports/imports, No integration
      • Which vendors/systems are central to your imaging IT stack (PACS, RIS, EHR, voice recognition)? Please list names and versions if known.
      • Which integration pain points slow clinicians or technologists the most? Options: Study accessioning delays, Missing demographic/order data, Reports not auto‑linked, Reconstruction results not auto‑archived, Authentication/SSO friction, Other
      • Would you value vendor‑assisted validation that new systems will meet your PACS/RIS/HL7/DICOM workflows before purchase? Options: Yes—mandatory, Useful but optional, No—we can validate ourselves, Unsure

      Staff Confidence and Training Gaps (Tell Us What Keeps Your Team Up at Night)

      • How confident do your technologists and reading physicians feel using your current scanners and reconstruction tools for advanced protocols (motion correction, low‑dose recon)? Options: Very confident, Somewhat confident, Not confident, Varies widely by person
      • What are the biggest recurring training needs—new protocols, QA/physics, software updates, or workflow change management? Options: New protocols, QA/Physics testing, Software/GUI changes, PACS/RIS workflow training, Radiation safety refresher
      • How do you currently cover staffing gaps—overtime, per‑diems, traveling techs, or reduced schedule—and what downside do you see in that approach? Options: Overtime, Per‑diem/PRN, Travel technologists, Reduce schedule/slots, Cross‑train other staff
      • If a vendor offered on‑site competency training plus remote refresher modules, what would make that offer compelling to you?

      Clinical Priorities and Outcome Tradeoffs (What Matters Most Clinically)

      • If you had to prioritize three measurable clinical goals for the next 12 months, which would you choose? Options: Reduce exam time / increase throughput, Improve lesion detectability / image quality, Lower injected dose, Expand PET offerings (new tracers), Shorten report turnaround, Increase staff productivity
      • How willing would your clinical leadership be to trade a modest increase in scan time for substantially better image quality—or vice versa? Options: Prefer better quality even if slower, Prefer faster even with slight quality loss, Open to hybrid approaches, No preference / need both
      • Which clinical use cases are your highest priority for improvement (rank or describe): cardiac stress SPECT, oncologic PET sensitivity, neurological receptor imaging, quantitative dosimetry for therapies, or other? Options: Cardiac stress SPECT, Oncology PET/CT sensitivity, Neurology (DaT/Amyloid), Theranostics dosimetry, Other—please specify
      • What metrics would define success for you (e.g., average throughput per room, percent of studies meeting diagnostic quality, dose reduction percentage, read TAT)? Please list specific targets if you have them.

      Site Constraints That Often Break Plans (Physical and Utility Realities)

      • What physical constraints exist at your preferred installation locations—room size, ceiling height, door/elevator access, weight limits, or patient flow bottlenecks?
      • What is your current electrical and HVAC capacity at the site(s) under consideration for new systems? Options: Sufficient as‑is, Minor upgrades required, Major upgrades required, Unknown—need assessment
      • Do you have existing shielding calculations and drawings for the rooms, and are they up to current code for the planned modality? Options: Yes—current and available, Yes—needs recheck, No—needs new calculations, Unsure
      • Are there access restrictions or contractor limitations (hours, credentialing, union rules) that typically slow installations at your facility? Options: Yes—significant, Yes—minor, No, Unsure

      Decision Timeline, Budget Flexibility, and Approval Dynamics

      • What is the target decision timeline for replacing or adding imaging equipment (procurement kickoff → budget approval → order)? Options: Immediate (0–3 months), Near term (3–6 months), 6–12 months, 12+ months, Undetermined
      • How is this investment generally funded at your institution—capital budget, operational lease, grant, philanthropic, or other? Options: Capital budget, Operational lease/finance, Grant/foundation, Philanthropy, Combination/other
      • What is the realistic budget range you expect for this project (equipment only), or the approval threshold requiring escalation? Options: < $500K, $500K–$1M, $1M–$2M, $2M–$5M, > $5M, Prefer not to disclose
      • Who are the decision influencers and approvers we should be aware of (roles, not necessarily names)—and what are their primary concerns?

      What Would It Take to Move Forward (Clearing Obstacles and Next Steps)

      • Imagine a solution that meets your top three goals—what would make you say 'let’s proceed' within your stated timeline?
      • Which proof points would be most persuasive for your team—on‑site demo scans, peer site visit, quantified KPI projections, trial equipment, or formal risk‑sharing terms? Options: On‑site demo, Peer site visit, KPI projections with ROI, Pilot/trial equipment, Risk‑sharing/uptime SLAs
      • How open are you to a staged approach (e.g., pilot small‑scale changes, then broader rollout) to de‑risk adoption? Options: Very open, Somewhat open, Prefer one‑time replacement, Unsure
      • What immediate artifacts would help your internal approval—budget estimate, installation timeline, shielding plan, or a combined feasibility packet? Options: Budget estimate, Installation timeline, Shielding/engineering plan, Clinical outcomes projection, Full feasibility packet
      • Is there anything else about your current state—stories, constraints, or ambitions—that we haven’t asked but you think matters for designing the right solution?
  2. Outcome Discovery

    Define target clinical outcomes, throughput goals, dose reduction or image quality tradeoffs, and measurable success signals.

    Discovery Questions

    Start with the Single Most Important Thing

    • If you could pick one clinical or operational outcome that would change everything for your department this year, what would it be?
    • How urgent is that outcome on a 1–5 scale for your service line (1 = curiosity, 5 = must-solve now)? Options: 1 - Nice to know, 2 - Low priority, 3 - Important, 4 - High priority, 5 - Critical / Immediate
    • Which patient populations or studies would this outcome impact most? Options: Cardiac SPECT / perfusion, Oncology PET/CT, Neurology PET/SPECT, General nuclear medicine (bone, renal, etc.), Theranostics / radionuclide therapy, Other
    • Tell us briefly about a recent case or day that made you realize this outcome matters—what happened and how did it feel for clinicians or patients?
    • Who inside your organization will celebrate this outcome if achieved, and who might be skeptical? Options: Nuclear medicine director, Radiology chair, Cardiology director, Hospital operations/COO, Radiation safety officer, Technologists, Finance / capital committee, Other

    Are You Quietly Accepting Compromises?

    • When you look at your current imaging performance, what have you learned to live with that you'd secretly rather fix?
    • How much of your current imaging practice is limited by the scanner vs. staff vs. workflow vs. tracer availability? Options: Primarily scanner limitations, Primarily staffing/workflow, Primarily tracer/radiopharmacy constraints, A mix — please describe, Unsure
    • In the last 6 months, which of these problems occurred most often: long waitlists, repeat scans for quality, missed appointments due to time, or billing/authorization delays? Options: Long waitlists, Repeat scans for image quality, Missed appointments due to scan length, Authorization/billing delays, Other
    • If nothing changed for another year, what harm—clinical, financial, or reputational—do you expect to see?
    • Which previous attempts to improve imaging outcomes failed or stalled, and what do you think was the real reason?

    Where Outcomes Break Down — The Hard Truths

    • What single failure mode do you notice most often that prevents patients from getting definitive results (e.g., non-diagnostic studies, long cycle times, missed lesions)? Options: Non-diagnostic studies, Excessive scan time / low throughput, Poor lesion detectability, High false positive rate, Integration / reporting delays, Other
    • How frequently do you track the following failures: repeat scans, retakes for motion, patient no-shows, and delayed reports? Options: Repeat scans, Retakes for motion, Patient no-shows, Delayed reports, We don't track these
    • Which modality or configuration causes you the biggest day-to-day friction (legacy SPECT, SPECT/CT, last-gen PET/CT, reconstruction delays)? Options: Legacy SPECT, SPECT/CT, PET/CT (older model), PET/CT (recent but limited throughput), Hybrid workflows (multiple systems), Other
    • Describe a recent patient or clinician complaint about imaging quality, throughput, or dose concerns—what exactly was the issue?
    • How do these breakdowns make your staff feel—stressed, resigned, proud despite issues, or motivated to change? Options: Stressed / burned out, Resigned / accepting, Proud but challenged, Motivated to change, Mixed

    What Would a Perfect Clinical Day Actually Look Like?

    • Imagine a day where every scan you need is delivered with the ideal mix of image quality, speed, and dose—what three outcomes define that day?
    • Compared to today, what percentage improvement in throughput, lesion detectability, or dose reduction would make you consider the project a success? Options: 10–20%, 21–40%, 41–60%, 60%+, Not sure / need guidance
    • Which matters more for your program right now: fastest possible throughput, highest diagnostic sensitivity, or lowest feasible radiation dose? Options: Throughput, Diagnostic sensitivity, Lowest dose, Balanced approach — please explain
    • Who are the clinicians or referring services who would notice this perfect day first, and what would they say?
    • If you had one ‘quick win’ that would make clinicians stop complaining immediately, what would it be?

    The Stakeholder Scorecard — Who Wins and Who Pushes Back?

    • Which stakeholders will need to approve a purchase or workflow change, and what is each group's top criterion (clinical, financial, capacity, safety)? Options: Clinical leadership (MDs) — clinical outcomes, Operations — throughput/capacity, Finance / Capital — ROI / TCO, Radiation safety — compliance, IT — PACS/RIS integration, Other
    • Who inside your institution could block progress if their concern isn't addressed, and why might they resist?
    • How aligned are the decision makers on timeline and budget today? Options: Fully aligned, Somewhat aligned, Misaligned on timeline, Misaligned on budget, Unknown / need to clarify
    • What political or departmental dynamics have affected past capital decisions (competing projects, leadership turnover, donor restrictions)?
    • What evidence or demonstration would persuade hesitant stakeholders—live demos, peer visits, trial data, or a pilot study? Options: Vendor demo, Peer visit to another site, Local pilot study, Published clinical data, Economic model / case study, Other

    Sensible Trade-offs — What Are You Willing to Compromise On?

    • If improving throughput required a modest tradeoff in lowest-dose imaging, would you consider that acceptable? Options: Yes — throughput first, No — dose priority, Depends on how much dose increases, Need to see data
    • Rank the following in order of importance for your purchase decision: sensitivity/resolution, scan time, dose, ease of integration, total cost of ownership. Options: 1 - Most important, 2, 3, 4, 5 - Least important
    • Would you accept a phased approach (e.g., software/reconstruction upgrade now, hardware later) to reduce upfront capital spend? Options: Yes — phased preferred, No — single complete solution, Maybe — depends on timeline and disruption
    • Are there clinical areas where you’d accept lower spatial resolution in exchange for faster scanning (e.g., routine cardiac vs. oncologic staging)? Options: Yes — routine cardiac, Yes — follow-up oncology only, No — image quality critical across the board, Unsure
    • Which contractual or service terms are absolute deal-breakers for you (warranty length, uptime SLA, spare parts availability, training scope)? Options: Warranty length, Uptime SLA, Local service response time, Spare parts inventory, Comprehensive training, Other

    How Will We Know It’s Working? — Concrete Success Signals

    • What three measurable KPIs would you use to sign off that the solution delivered the promised outcomes? Options: Throughput (studies/day), Lesion sensitivity/detection rate, Average scan time per study, Patient no-show rate, Repeat scan rate, Dose per study, Report turnaround time
    • What are your current baseline numbers for the KPIs you selected (provide values or rough ranges)?
    • Over what timeframe would you expect to see meaningful improvement after installation (weeks, months, a year)? Options: <1 month, 1–3 months, 3–6 months, 6–12 months, >12 months
    • Who will own monitoring these KPIs internally, and how often do you want joint reviews with our team? Options: Physics/QA lead, Clinical director (MD), Operations manager, Hybrid team, Other
    • What quantitative thresholds would constitute 'success' versus 'needs remediation' for each KPI (e.g., 20% throughput increase, repeat scan <2%)?

    Hidden Constraints — What Could Derail an Otherwise Good Plan?

    • What single piece of infrastructure or regulation would stop a project cold if it’s not solved (shielding, radioactive materials license, CT utilities, PACS integration)? Options: Shielding / room layout, Radioactive materials license, CT power / HVAC, PACS/RIS integration, Staffing shortages, Other
    • How confident are you that your site can meet the physical and regulatory requirements for the proposed systems within your desired timeline? Options: Very confident, Somewhat confident, Not confident, Unknown — need assessment
    • Have you previously underestimated any of these readiness items (shielding lead times, radionuclide supply chains, IT approvals)? Tell us what surprised you.
    • Which external partners or vendors must be coordinated (construction, radiopharmacy, IT, service provider), and do we have direct contacts for them? Options: Construction/vendor, Radiopharmacy, IT/PACS vendor, Service partner, No direct contacts yet
    • What contingency plans do you have if staffing or tracer supply becomes constrained during rollout?

    Readiness & Next Steps — From Insight to Action

    • If we removed one major barrier today (budget, shielding, or staffing), how soon could you commit to a pilot or purchase decision? Options: Immediately, Within 1–3 months, 3–6 months, 6–12 months, Won't commit in next 12 months
    • What type of proof would you need from us next: a site-specific feasibility plan, a pilot installation, a peer-site visit, or a clinical outcome model? Options: Site feasibility plan, Pilot installation, Peer-site visit, Clinical/financial model, Other
    • Who should be included in the next joint meeting to move this forward (roles and names if possible)?
    • What are the top three risks you want us to address in a proposal so it becomes a 'no-surprises' package for your decision makers?
    • Finally, what would make you feel confident that partnering with us is the right choice—examples: clinical evidence, local references, predictable TCO, or hands-on training? Options: Clinical evidence / publications, Local peer references, Transparent TCO model, Comprehensive training & QA, Service guarantees / SLA, Other
  3. Solution Experience

    Map how SPECT/PET/CT configurations and workflows will deliver the customer’s outcomes using real-case scenarios and acceptance criteria.

    Experience Meetings

    • Solution Experience — Preconditions Alignment
    • Clinical Case Walkthrough — Cardiac, Oncology, Neurology
    • Throughput & Operational Simulation Workshop
    • Acceptance Criteria & Validation Plan — Final Alignment
    • Both teams to identify one or two pilot days and a metric set to validate modeled throughput in a live environment if pilot is agreed.
    • Seller to produce side-by-side reconstructions or simulated outputs using customer DICOMs and the proposed reconstruction settings for each case.
    • Customer to confirm clinical acceptance thresholds (e.g., minimum lesion contrast-to-noise, EF tolerance, maximum exam time) in writing within 3 business days.
    • Technical teams to verify availability of required DICOM tags and coordinate any RIS mapping prior to validation testing.
    • Schedule a follow-up to review any requested adjustments to acquisition or reconstruction parameters and re-run small dataset if needed.
    • Overview of Modeling Inputs
    • Produce a quantitative throughput and capacity model that shows the expected operational improvement versus baseline.
    • Agree the dose/image-quality tradeoffs that will be used in acceptance testing and clinical practice.
    • Identify necessary RIS/PACS/operations tasks to achieve modeled throughput and assign owners.
    • Decide whether a small pilot or direct deployment is the right next step based on modeled outcomes.
    • Seller to deliver a 1-page simulation report with assumptions, sensitivity analysis, and projected KPI improvements.
    • Customer operations lead to produce an updated daily schedule and confirm top 5 operational constraints to be addressed during deployment.
    • Introductions & Objectives
    • IT/PACS lead to confirm schedule and API/DICOM capabilities needed for queue automation; provide contact and access windows.
    • Review of Agreed Future-State & Proof Elements
    • Finalize and document measurable acceptance criteria and the exact method to measure each metric.
    • Assign test owners, date windows, and sign-off authorities so acceptance work can proceed without ambiguity.
    • Agree remediation and escalation paths so failed tests have a clear path to resolution and re-test.
    • Seller to deliver the formal Validation Plan document with test scripts, pass/fail thresholds, and required phantom/data checklist.
    • Customer to confirm sign-off authorities and provide access windows for physicist acceptance testing and technologist participation.
    • Both parties to schedule the initial validation window and resources required (phantom, technologist, physicist, PACS access).
    • If any criterion is not achievable as written, owner to propose an alternate acceptance metric and remediation plan within 5 business days.
    • Agree and document a single-sentence current-state summary that all stakeholders validate.
    • Quantify the consequences of the current state in measurable terms (e.g., lost studies/week, revenue or delay hours, regulatory risk).
    • Define a one-sentence future-state outcome the Solution Experience must prove.
    • Select 2–3 real-case scenarios and commit owners to provide datasets and operational metrics as pre-work.
    • Customer to provide anonymized DICOMs, throughput logs, radiotracer mix, and staffing rosters for selected scenarios.
    • Seller to prepare a one-page framing doc that restates the agreed current state, consequence quantification, and future-state sentence.
    • Schedule the Clinical Case Walkthrough with stakeholder attendance and agree time allocation per case.
    • Identify technical contacts for PACS/RIS and physics to make integration and test data available.
    • Re-state Preconditions & Success Signals
    • Demonstrate, with customer data, that the proposed configurations achieve the agreed future-state outcomes for each real-case scenario.
    • Agree explicit, measurable acceptance criteria per case (image quality metrics, throughput numbers, dose limits) and how each will be measured.
    • Confirm PACS/RIS and reporting requirements to capture acceptance-data automatically where possible.
    • Obtain customer validation checkpoints after each case to ensure alignment and surface any remaining constraints.
    • Bottleneck Identification & Constraint Mapping
    • Case 1 — Cardiac SPECT (rest/stress)
    • Crystal-Clear Current State (one sentence)
    • Acceptance Criteria by Domain
    • Case 2 — Oncology PET/CT (FDG / new tracer)
    • Test Scripts & Data Requirements
    • Simulation — Config A vs Config B
    • Explicit Consequence Statement
    • Roles, Timeline & Sign-off Flow
    • Dose vs Image Quality Tradeoff Modeling
    • Case 3 — Neurology or Theranostics Workflow
    • Define Future State (one sentence)
    • Staffing & Scheduling Impact
    • Select Real-Case Scenarios & Data
    • Risk & Contingency Planning
    • Integration & Data Flow Check
    • Pre-work & Data Deliverables
    • Validation Checkpoints
    • Integration & Queue Management
    • Final Agreement & Next Steps
    • Validation Readout
  4. Solution Scope

    Specify system models, detector/reconstruction options, site work, training, physicist testing, integrations, and measurable deliverables.

    Scope Configuration

    • Deliver and install PET/CT scanner
    • Deliver and install SPECT/CT system
    • Install and calibrate detector modules
    • Configure DICOM/HL7 integration with PACS/RIS
    • Deploy iterative reconstruction and motion‑correction software
    • Install low‑dose CT and attenuation correction workflows
    • Install dose calibrators and automated radiopharmaceutical dispensers
    • Install radiation shielding and secure hot‑lab storage
    • Technologist hands‑on training for PET/SPECT acquisition & QC
    • Physician training on interpretation and quantitative analysis
    • Enable remote service monitoring and 24/7 diagnostic connectivity
    • Preventive maintenance and parts replacement service
    • Detector electronics and crystal upgrade service

    Scope Questions

    Deliver and install PET/CT scanner

    • Do you require delivery and full installation of a PET/CT scanner at this site? Options: Yes, No, Unsure — need consult
    • Which scanner class do you prefer or require? Options: Digital PET/CT (highest sensitivity), Time-of-Flight PET/CT, Extended FOV/Total-Body PET, Not sure — recommend based on clinical needs
    • What is the expected installation room footprint (clear internal dimensions in meters) and ceiling height?
    • What site access constraints apply for delivery (freight elevator, stair access, corridor width, crane availability)? Options: Freight elevator access, Ground-level delivery, Stair-only / tight corners, On-site crane available, Other (describe)
    • What electrical service is available for the scanner room? Options: Single-phase 230V, Three-phase 208/400V, Dedicated UPS available, Unknown — need site survey
    • What installation timeline or go-live window do you target (preferred and latest acceptable)? Options: < 3 months, 3–6 months, 6–12 months, No firm date — planning stage
    • What measurable acceptance criteria will be required for the PET/CT delivery (select all that apply)? Options: Image quality / resolution targets, Sensitivity/count-rate targets, Throughput / scans per day, Dose/CT low-dose benchmarks, DICOM transfer and quantitative report accuracy

    Deliver and install SPECT/CT system

    • Do you require delivery and installation of a SPECT/CT camera? Options: Yes, No, Unsure — discuss options
    • Which SPECT detector / configuration is desired? Options: Solid-state detectors (CdZnTe/SiPM), Conventional NaI detectors, Cardiac-optimized geometry, Multi-head general-purpose
    • Which collimators and clinical protocols must be supported (cardiac, bone, thyroid, sentinel node, others)? Options: Cardiac high-resolution, General-purpose, Low-energy high-resolution, Medium-energy, Other (specify)
    • Is this an equipment replacement (remove existing camera) or new installation? Options: Replacement — remove and dispose old unit, Replacement — remove and customer handles disposal, New installation
    • What room constraints or physical requirements exist (room size, floor loading, ceiling height)?
    • What downtime window is acceptable for removal/installation? Options: Overnight / <24 hours, Weekend (48–72 hours), Multiple days (3–7 days), Flexible — discuss
    • What acceptance tests are required for SPECT/CT commissioning? Options: Uniformity and sensitivity, Spatial resolution, CT attenuation/registration accuracy, Throughput validation, All of the above

    Install and calibrate detector modules

    • Are detector module installations or replacements required for your system? Options: Yes — full detector set, Yes — partial modules, No — not required
    • How many detector modules/crystals/electronics assemblies are to be installed or serviced?
    • Are there environmental constraints relevant to detector calibration (clean room, temperature control, vibration control)? Options: Temperature-controlled room required, Low-vibration floor required, Standard room is sufficient, Unknown — need site survey
    • What maximum permitted downtime can you accommodate for detector swap and calibration? Options: <8 hours, <24 hours, 1–3 days, >3 days
    • Do you require factory physicist onsite for calibration and acceptance testing? Options: Yes — required, Optional — we can provide local physicist, No — local team will handle
    • What calibration/QA phantoms or verification measurements are required for sign-off? Options: Uniformity phantom, Resolution phantom, Sensitivity/count-rate test, Dose calibrator cross-check, Customer-specified phantom (describe)
    • Do you want ongoing calibration/verification included in a service contract? Options: Yes, No, Maybe — need pricing

    Configure DICOM/HL7 integration with PACS/RIS

    • Which PACS vendor(s) and RIS vendor are in use at your site?
    • What DICOM AE Title(s), IP address(es), and ports will we use for integration (provide details or indicate if unknown)?
    • Which HL7 interfaces are required (ADT, ORM, ORU, order entry, scheduling)? Options: ADT (admissions), Order entry (ORM/OML), Results (ORU), Modality Worklist (MWL), None / Not required
    • Are there network/security constraints (TLS encryption, VPN, firewall rules, limited ports) we should plan for? Options: TLS required, VPN available, Firewall restrictions — need IT coordination, No special requirements, Unknown — need IT contact
    • Do you require test data transfer validation (DICOM images + structured reports) and a formal connectivity sign-off? Options: Yes — required, Optional, No — not required
    • Do you have an integration/test window or preferred downtime for configuration and validation? Options: Weekday business hours, After-hours / weekends, Specific dates (provide), Flexible

    Deploy iterative reconstruction and motion‑correction software

    • Do you plan to deploy our iterative reconstruction and motion‑correction software on this system? Options: Yes — full deployment, Pilot/trial only, No — not required
    • Which clinical applications need motion correction (cardiac, respiratory, neurological PET, paediatric) and which reconstruction features are required? Options: Cardiac motion correction, Respiratory gating/correction, Neurology quantitative reconstruction, Low-count denoising, Dose-reduction optimized recon
    • What workstation/server GPU or compute environment is available (on-prem server specs)?
    • Do you prefer on-premise software, cloud-enabled processing, or hybrid? Options: On-premise, Cloud-enabled, Hybrid, Undecided — need recommendation
    • Are licenses, user counts, or concurrent session limits required to be specified? Options: Yes — list user count, No — unlimited, Unknown — need consult
    • What performance acceptance criteria must the software meet (reconstruction time per study, reduction in motion artifacts %, quantitative accuracy)?
    • Do you require integration of reconstruction outputs into existing reading workflows (PACS hangings, quantitative exports)? Options: Yes — integrate into PACS workflow, No — separate workstation acceptable, Partial — specific outputs only

    Install low‑dose CT and attenuation correction workflows

    • Is low-dose CT for attenuation correction required for the system being deployed? Options: Yes — required, Optional, No — not required
    • What CT hardware specification is needed (slice count: 2/16/64/other)? Options: 2-slice, 16-slice, 64-slice, Other / specify
    • Do you need dose-optimized CT protocols and automated dose reporting (DICOM SR / RDSR)? Options: Yes — both protocols and reporting, Protocols only, Reporting only, No
    • Will CT QA/phantom testing and acceptance be performed by our physicist or your in-house physicist? Options: Factory physicist onsite, Local hospital physicist, Joint acceptance testing, Undecided
    • Do you have constraints on CT table weight limit or room shielding for CT scatter and leakage? Options: Yes — specify limits/constraints, No constraints, Unknown — need survey
    • What measurable outcomes define success for CT/attenuation correction (HU accuracy tolerance, co-registration error mm, CTDIvol target)?

    Install dose calibrators and automated radiopharmaceutical dispensers

    • Do you need installation of dose calibrators and/or automated dispensers? Options: Dose calibrator only, Automated dispenser only, Both dose calibrator and dispenser, Neither
    • Which isotopes will you routinely handle (select all that apply)? Options: Tc-99m, F-18, Ga-68, I-123 / I-131, Lu-177 / Y-90, Other (specify)
    • What is your typical daily throughput for doses (number of patient doses per day)? Options: <10 doses/day, 10–30 doses/day, 30–100 doses/day, >100 doses/day
    • Where will the dispenser be located (hot lab, radiopharmacy, imaging suite)? Options: On-site radiopharmacy / hot lab, Imaging suite adjacent to scanner, Shared area — specify constraints, Other (describe)
    • Do you require integration of dispenser/dose calibrator logs with dose-management software or EMR? Options: Yes — integrate with dose management, Yes — integrate with EMR, No integration required, Undecided
    • Are there local regulatory or licensing considerations for installation (radiation safety approvals, third-party calibration)? Options: Yes — specify agency, No, Unknown — need guidance

    Install radiation shielding and secure hot‑lab storage

    • Is new shielding design and installation required for the scanner or hot-lab? Options: Full shielding calculation and installation, Supplemental shielding only, No shielding required, Unknown — need site survey
    • What type of hot‑lab storage do you require (lead-lined cabinets, refrigerated storage, secure inventory)? Options: Lead-lined cabinet, Refrigerated storage, Locked storage with inventory control, Custom solution — describe
    • Do you have existing shielding drawings and as‑built room plans available for review? Options: Yes — provide drawings, No — need new calculations, Partial — some drawings available
    • Are ventilation / exhaust and hot-lab negative pressure required or already in place? Options: Yes — required and present, Required but not present, Not required, Unknown — need survey
    • What regulatory approvals or radiation safety sign-offs are needed from your institution or authority prior to installation?
    • What measurable deliverables do you require for shielding/hot-lab sign-off (radiation survey results, dose rate limits, storage capacity MBq/GBq)?

    Technologist hands‑on training for PET/SPECT acquisition & QC

    • How many technologists need hands-on training? Options: 1–2, 3–5, 6–10, 10+
    • Which training modality do you prefer? Options: On-site instructor-led, Remote live training, Blended (classroom + eLearning), Simulation lab / proctoring
    • Which competencies should be included (acquisition protocols, QC daily/weekly, dose handling, emergency procedures)? Options: Acquisition protocols, Routine QC, Dose handling and safety, Patient preparation and positioning, Troubleshooting and first-line maintenance
    • How long should the initial training for a technologist be (per person)? Options: Half day, 1 day, 2–3 days, Ongoing competency program
    • Do you require formal competency sign-off and training certificates? Options: Yes — certificates required, No — informal training OK, Maybe — discuss details
    • Will training need to be repeated for rotating staff or locum technologists on a regular schedule? Options: Yes — schedule recurring training, No — one-time training, Unsure

    Physician training on interpretation and quantitative analysis

    • How many physicians require training on the new system? Options: 1–2, 3–5, 6–10, 10+
    • Which clinical reads should the training emphasize (cardiology perfusion quantification, oncologic SUV quantification, neurology binding studies)? Options: Cardiac perfusion and quantification, Oncology SUV and staging, Neurology (amyloid/FDG) quantification, Theranostics/Therapeutic dosimetry
  5. Mutual Commit

    Agree commercial terms, lead times, installation windows, service levels, responsibilities, and acceptance criteria.

    Agreement Modules

    • Non-Disclosure Agreement (NDA)
    • Commercial Proposal & Purchase Order
    • Statement of Work (SOW)
    • Pricing & Payment Schedule
    • Lead Time & Delivery Schedule
    • Installation & Site Readiness Acceptance
    • Installation & Commissioning Plan
    • Service Level Agreement (SLA) & Maintenance
    • Warranty & Spare Parts Agreement
    • Training & Competency Delivery
    • Acceptance Criteria & Final Acceptance Certificate
    • PACS/RIS Integration & Data Handover
    • Regulatory & Radioactive Materials Responsibility
    • Change Order Agreement
    • Project Governance & Roles (RACI)
    • Financing / Lease Agreement (if applicable)
    • Final Commercial Acceptance & Escrow/Performance Assurance
  6. Deployment

    Operationalize rollout with readiness checks, enablement, and outcome validation.

    1. Pre-Deployment Readiness

      Verify shielding, room modifications, utilities, radioactive materials licensing, vendors onsite access, and staffing availability.

      Readiness Questions

      Quick Introductions — Who's in the Room?

      • What's your role and primary responsibility in the nuclear medicine or imaging service line? Options: Nuclear Medicine Director, Radiology Chair, Cardiology Director, Imaging Center Manager, Medical Physicist, Technologist Lead, Other
      • Tell us briefly about your facility type and scale (one sentence):
      • What best describes your current imaging mix and typical monthly volumes? Options: Mostly cardiac SPECT, Mostly PET/CT oncology, Mixed SPECT and PET/CT, Predominantly general nuclear medicine, Low volume, high acuity, Other
      • Who is typically involved in capital decisions for imaging equipment at your organization? Options: Department leadership only, Department + hospital finance, Capital committee/board, Clinical leadership + procurement, External consultants, Other
      • What is your target decision timeline for equipment changes or upgrades? Options: Immediate (30 days), Near-term (3 months), This fiscal year (6–12 months), 12–24 months, Unsure/undecided

      Are You Settling for Average Imaging Outcomes?

      • When you look at your current imaging results, where do you feel they fall short of what patients and clinicians deserve?
      • Which of the following outcome gaps cause you the most concern right now? Options: Sensitivity (missed lesions), Spatial resolution/detail, Scan time and throughput, Excess radiation dose, Reconstruction/artifact issues, Integration with PACS/RIS
      • How often do those gaps meaningfully change clinical decisions or require repeat exams? Options: Weekly, Monthly, Quarterly, Rarely, Don't know
      • Can you share a recent case or example where image quality or throughput directly affected patient care or scheduling? (Describe what happened and the impact.)
      • How does it feel—personally and professionally—when an imaging study falls short of expectations?

      What Keeps Operations Up at Night?

      • How much of your operational stress comes from predictable issues versus unpredictable breakdowns? Options: Mostly predictable (scheduling, staffing), Mostly unpredictable (downtime, repairs), Even mix, Unsure
      • Which operational constraints restrict your ability to meet demand today? Options: Technologist staffing shortages, Limited scanner sensitivity/throughput, Radiotracer supply variability, Room/utility constraints, PACS/RIS integration gaps, Regulatory/licensing bottlenecks
      • How much revenue or capacity do you estimate is lost when a scanner is down for a day or when you must reschedule PET studies? Options: Minimal, Moderate, Significant, Severe/mission-critical, Don't track
      • What workarounds have you adopted to keep clinics running when the system or staff are stretched, and how sustainable do those feel?
      • If you could remove one ongoing operational friction in the next 90 days, what would it be and why?

      Where Is Clinical Confidence Losing Ground?

      • How willing are your referring clinicians to act on studies from your current systems vs. seeking external imaging? Options: Very willing, Somewhat willing, Reluctant, They often send out
      • In the past 12 months, have you had peer review or morbidity cases where imaging sensitivity or artifact was a central issue? Options: Yes—affected outcomes, Yes—no major outcome impact, No, Not sure
      • What measurable image-quality targets would restore or raise clinical confidence (e.g., lesion detectability thresholds, contrast-to-noise ratios, dose limits)?
      • Who on your clinical team raises concerns about imaging quality most often, and what do they ask for? Options: Nuclear medicine physicians, Cardiologists, Oncologists, Radiologists, Technologists, Physicists
      • How would improved diagnostic confidence change care pathways or referral patterns at your institution?

      If You Could Reimagine the Exam Experience

      • Imagine every patient leaves with a diagnostic study clinicians trust—what three outcomes would that unlock for your service line?
      • What are realistic throughput goals you’d like to achieve (studies/day or minutes per scan) without sacrificing image quality? Options: Increase by >50%, Increase by 25–50%, Increase by 10–25%, Maintain current throughput, Reduce scan time but same daily volume
      • How important is lowering radiation dose as a tradeoff against image quality in your decision-making? Options: Critical—dose reduction is a priority, Important but secondary to sensitivity, Balanced equally, Not a major factor
      • Describe the ideal patient and staff experience during an exam—from scheduling to report delivery.
      • Which features or capabilities would make your team genuinely excited to adopt a new system? Options: Faster scans, Higher lesion sensitivity, Simpler technologist workflows, Seamless PACS/RIS integration, Lower maintenance downtime, Stronger vendor support/training

      What Would Budget and Capital Commit to?

      • If cost were not the only barrier, what hidden or ongoing expenses worry you most about changing systems? Options: Service and maintenance, Consumables/radiotracer compatibility, Physicist testing and validation, Integration/custom IT, Downtime during install, Training and ramp-up
      • What total cost of ownership time horizon does your organization use for imaging capital decisions? Options: Depends on project, Unsure, 3 years, 5 years, 7–10 years
      • Who needs to see ROI or utilization projections for approval, and which metric convinces them most (e.g., net revenue, patient throughput, avoided send-outs)? Options: Finance/CFO—net revenue, Clinical leadership—diagnostic yield, Operations—throughput, Capital committee—TCO, Other
      • What funding constraints or seasonal budgeting windows should we know about to align proposals with your process?
      • How would a predictable service agreement or guaranteed uptime influence your willingness to invest? Options: High influence, Moderate influence, Little influence, No influence

      Who Needs to Say Yes — and What's Their Priority?

      • Which stakeholders typically block or accelerate purchases in your organization—and what does each care about most? Options: Clinical leadership—clinical outcomes, Finance—cost/ROI, Facilities—site readiness, IT—integration/security, Regulatory—compliance, Procurement—vendor terms
      • How aligned are those stakeholders today on the primary objective of a replacement or upgrade (e.g., throughput vs. image quality vs. cost)? Options: Well aligned, Some alignment, Misaligned, Not sure
      • What would sway a holdout stakeholder toward approval—real-world data, peer references, trial installs, financial models, or something else? Options: Clinical outcomes data, Site visits/references, Pilot/trial period, Flexible financing, Warranty/service guarantees, Other
      • Who will own the post-install operational success (e.g., technologist lead, department manager, vendor), and how will success be measured?
      • If we could deliver a single commitment that would clear the path to approval, what would that commitment need to be?

      What Would Make You Confident to Move Forward?

      • What non-negotiable acceptance criteria must be met during installation and validation for you to sign final acceptance? Options: Image quality benchmarks, Throughput targets, Dose limits, PACS/RIS integration verified, Physicist test pass, Training completion
      • How do you prefer training and enablement to be delivered for staff to feel competent at go‑live? Options: On-site hands-on, Blended with e-learning, Train-the-trainer, Remote instructor-led, Vendor-led clinical shadowing
      • What site-readiness items are biggest blockers today (shielding, utilities, radioactive materials license, vendor access), and who is responsible for each? Options: Shielding, Electrical/UPS, Cooling/HVAC, Radioactive materials licensing, Vendor badging/site access, Other
      • Would a short pilot or accept-on-performance clause ease your risk concerns, and if so, what duration or metrics would feel fair? Options: Yes—pilot with metrics, Yes—short warranty period, Maybe—depends on metrics, No
      • What would success look like at 30, 90, and 365 days after install—concrete metrics we should commit to?
    2. Deployment Enablement

      Coordinate installation, physicist acceptance testing, technologist and physician training, and go-live sequencing with ownership.

    3. Validation Checklist

      Execute image quality, sensitivity, throughput, dose, and PACS/RIS integration tests and obtain formal sign-offs against acceptance criteria.

      Validation Questions

      Who's on the Journey With Us?

      • Which option best describes your facility? Options: Academic medical center, Community hospital, Freestanding imaging center, Cardiac specialty clinic, Hybrid/other
      • Which people or roles will be actively involved in evaluating and approving a new nuclear medicine system? (Select all that apply) Options: Nuclear medicine director/physician, Radiology chair, Cardiology service line director, Medical physicist, Lead technologist, Facilities/engineering, Procurement/capital planning, CFO/finance, Infection control/safety, Other
      • Who needs to sign final acceptance and what level of authority do they hold? Please name roles/titles and decision thresholds.
      • What is your current capital timeline for this purchase? Options: Already approved - purchasing now, Planned this fiscal year, Planned next fiscal year, Possibly in 2+ years, Unsure / exploratory
      • How confident do you feel today that your team can accurately define technical requirements for a replacement or new PET/SPECT system? Options: Very confident, Somewhat confident, Unsure, Not confident
      • Tell us one recent decision about imaging equipment where you felt the process went well—or poorly. What made it that way?

      If We Keep Doing What We're Doing, What Breaks First?

      • What single failure do you worry about most if no changes are made—patient delays, regulatory noncompliance, lost referrals, or something else? Options: Patient throughput bottlenecks, Image-quality related misdiagnoses, Repeated scans/increased radiation dose, Failed regulatory/licensing readiness, Loss of referral volume, Staff burnout/turnover, Other
      • How often does the issue you just named occur today? Options: Daily, Weekly, Monthly, Occasionally, Rarely
      • Describe a recent incident where equipment limitations directly affected patient care, scheduling, or revenue. What happened and what was the immediate impact?
      • Which technical constraints bother you most right now? Options: Low detector sensitivity, Poor spatial resolution, Long scan times, Inconsistent reconstruction quality, Unreliable CT attenuation correction, Integration gaps with PACS/RIS, Other
      • How do these constraints make your team feel—frustrated, cautious, overworked, or resigned? Give a short example.
      • If these problems continue for 12 months, what is the most likely downstream consequence for your service line? Options: Decreased referrals, Increased operational cost, Regulatory action, Staff departures, Compromised patient outcomes, Other

      What Are You Losing When Images Can't Deliver?

      • How often do images that you consider 'suboptimal' lead to repeat scans or additional imaging workups? Options: Very often (weekly+), Often (monthly), Occasionally, Rarely, Never
      • When image quality is inadequate, what are the typical downstream costs you incur (time, patient callbacks, lost revenue, safety events)? Provide specific examples or estimates if available.
      • Have you tracked clinical or operational KPIs that degrade with poor imaging (e.g., time-to-diagnosis, no-show rate, referral loss)? Which ones and what are current baselines?
      • How often do technologist staffing gaps or skill variability contribute to image quality issues? Options: Regularly, Sometimes, Rarely, Not applicable / well-staffed
      • Who hears directly from patients or referring physicians when images underperform, and what is the tone of that feedback? Options: Nuclear medicine director, Radiology leadership, Referring physician liaison, Patient experience team, Not tracked
      • If better imaging reduced repeat scans by 30%, what would that change mean for your department operationally or financially?

      Which Assumptions Are Quietly Steering Your Choices?

      • What belief about imaging systems do you catch your team leaning on that might be wrong—faster scans always mean lower quality, newer detectors always require more QA, or something else?
      • How long have you held that assumption and what proof (or disproof) have you seen? Options: Less than 6 months, 6–12 months, 1–3 years, 3+ years, Don't know
      • Which commonly accepted trade-offs do you tolerate today (dose vs quality, speed vs sensitivity, cost vs uptime)? Rank the top two. Options: Dose vs image quality, Speed vs sensitivity, Capital cost vs long-term service, Integration ease vs features, Training investment vs ease-of-use
      • Which of those trade-offs feels most negotiable to you if a solution could demonstrate measurable outcomes? Options: Dose vs image quality, Speed vs sensitivity, Capital cost vs long-term service, Integration ease vs features, Training investment vs ease-of-use
      • Tell us about a time you changed a long-held assumption and it improved clinical or operational results. What triggered the change?
      • If we challenged one assumption here together, which would you want to test first and why?

      Imagine the Day Everything Works

      • Describe, in a single sentence, what a successful imaging service looks like to you 12 months after installation.
      • What are three measurable outcomes that would convince you the new system succeeded (e.g., average scan time, daily throughput, recon time, dose reduction)? List values if you have targets.
      • Which of these performance targets would be most valuable to hit first? Options: Increase daily throughput, Reduce average scan time, Improve lesion detectability/sensitivity, Lower administered dose, Seamless PACS/RIS integration, Reduce re-scans
      • What patient experience improvements would you expect (wait times, comfort, scheduling flexibility)? Please be specific.
      • If you could set a headline metric for clinical leadership and another for finance to celebrate, what would those two metrics be?
      • How quickly would you expect to see clinically meaningful results after go‑live? Options: Immediately (weeks), Within 3 months, 3–6 months, 6–12 months, Longer

      How Will You Know We've Succeeded?

      • What formal acceptance tests or sign-offs are non-negotiable for your team (image quality phantom tests, sensitivity benchmarks, throughput runs, PACS/RIS I/O, dose reports)? Options: Image quality phantom (visual/quantitative), System sensitivity benchmark, Throughput stress test (N patients/day), Dose reporting and logging, PACS/RIS integration and workflow validation, Physicist QA report, Technologist competency sign-off
      • For each acceptance criterion you named, what threshold would you consider a pass? (Attach numbers or a short description.)
      • Who will own running those tests and providing sign-off? Options: Medical physicist, Nuclear medicine director, Lead technologist, Vendor engineer + local staff, Clinical governance committee
      • If a test fails, what remediation path is acceptable—rework by vendor, partial acceptance with remediation plan, financial concession, or other? Options: Vendor remediation and retest, Partial acceptance with timeline, Financial/contractual adjustment, Cancel/return option, Other
      • How will you measure clinical impact post-acceptance (which dashboards, who reviews, cadence)?
      • Is there a required regulatory or licensing step that must be completed before clinical use? If yes, which and what's the timeline? Options: Radiation shielding approval, Radioactive materials license update, Local facility inspection, None / not applicable, Other

      What's Actually Stopping This From Moving Forward?

      • If you had to name the single biggest barrier to signing and deploying a new system in the next 12 months, what would it be? Options: Capital funding, Facility readiness (shielding/room mods), Procurement timeline, Staffing/training constraints, Clinical leadership alignment, Regulatory/licensing, Other
      • How much of the barrier is within your team's control versus external (e.g., system vendors, health system finance)? Please explain.
      • Have you attempted to address this barrier before? If yes, what worked or failed and why?
      • What would need to change in the next 30–90 days to materially de-risk the project?
      • Rate the impact of each potential blocker on a scale from 1 (low) to 5 (critical): budget, site modifications, staffing, regulatory, vendor lead times, integration complexity. Options: 1, 2, 3, 4, 5
      • Are there internal champions or executive sponsors who can help clear these blockers? Who are they and how engaged are they?

      If We Partnered, What's the Smallest Win That Proves It's Working?

      • What would a minimal successful pilot look like (number of patients, study types, acceptance criteria) that would convince leadership to proceed?
      • Which scan type should we prioritize for a pilot to show clear value? (Pick one or two.) Options: Cardiac SPECT/PET, Oncology PET/CT, Neurology PET, General nuclear medicine (bone, renal), Theranostics workflow
      • What resources would you commit to a pilot—physicist time, technologist time, clinical reading time, or something else? Options: Physicist time, Technologist time, Radiologist/nuclear med physician reading time, Facilities support, Limited capital allocation, Other
      • How will you want vendor involvement during a pilot—onsite engineers, shared protocols, live training, or hands-off? Options: Full onsite support, Remote support + periodic onsite, Protocol templates only, Hands-off after install
      • After a successful pilot, what is the fastest acceptable timeline to scale across other sites or volumes? Options: Immediate (weeks), 1–3 months, 3–6 months, 6–12 months, Longer
      • What communication cadence and format do you prefer during a pilot and initial deployment (weekly calls, dashboards, in-person reviews)? Options: Weekly calls, Biweekly, Monthly, Real-time dashboard access, In-person reviews at milestones, Other
  7. Success

    Review outcomes versus success signals, complete operational handover, and maintain a shared channel for issues and enhancements.

    Success Reviews

    • Outcomes Review & Formal Acceptance
    • Operational Handover & Runbook Transfer
    • Training Recap, Competency Verification & Certification
    • Support, SLAs & Escalation Channel Setup
    • Continuous Improvement & Enhancement Roadmap

    Issues & Enhancements

    • Create and provision the CustomerNode shared channel with roles, access, and templates for incidents and enhancement requests.
    • Ensure training records and certifications are stored and accessible in the shared channel.
    • Issue competency certificates and upload training records to the shared workspace.
    • Schedule remediation/refresher sessions for staff with documented gaps.
    • Provision LMS accounts and share training resource links and quick-reference job aids.
    • Assign a customer training owner responsible for ongoing staff onboarding and recertification tracking.
    • Support Model Overview
    • Provision a working shared channel and ticket workflow for incidents and enhancements.
    • Ensure remote support connectivity and security are validated and documented.
    • Agree an escalation matrix and confirm on-call contacts and response expectations.
    • Document parts ordering and emergency spares procedures with lead times.
    • Introductions & Objectives
    • Configure ticket SLA timers in the shared workspace and publish response/resolution expectations.
    • Run and document remote access/security test; remediate any connectivity gaps.
    • Publish escalation contact sheet and on-call roster to the shared channel.
    • Performance Monitoring Plan
    • Put in place a measurable performance monitoring plan with clear owners.
    • Capture and prioritize a roadmap of enhancements and protocol improvements tied to clinical and operational impact.
    • Establish recurring review cadence and reporting templates to track ROI and success signals over time.
    • Assign delivery owners and timelines for the first set of high-priority enhancements.
    • Create the enhancement backlog in the shared channel with initial prioritization and owners.
    • Schedule recurring performance review meetings and populate calendar invites for stakeholders.
    • Deliver an initial KPI dashboard template populated with baseline post-deployment metrics.
    • Prepare proposals and cost estimates for top-priority enhancements requiring commercial approval.
    • Validate measured outcomes against each agreed success signal and document evidence.
    • Obtain customer decision: Final Acceptance, Conditional Acceptance with remediation plan, or Rejection with remediation plan.
    • Establish owners, deadlines, and verification method for any corrective actions.
    • Ensure formal sign-off artifacts and next-test dates are scheduled.
    • Deliver a complete acceptance report with raw data, comparisons to success signals, and recommended corrective actions (if any).
    • Customer to sign acceptance form or conditional acceptance and return by the agreed date.
    • Assign engineering/clinical owners for each corrective action and publish timelines in the shared channel.
    • Schedule verification tests and follow-up acceptance meeting if remediation is required.
    • Handover Overview
    • Ensure the customer has a complete, site-specific operational runbook and SOPs.
    • Confirm scheduled QA/maintenance responsibilities and who owns each task.
    • Validate spare parts, consumables plan, and radiopharmacy supply chain readiness.
    • Document official transfer of operational ownership and warranty/service commencement.
    • Deliver the final runbook, SOP documents, QA templates, and test logs to the shared channel.
    • Customer to confirm internal owner(s) for daily ops, QA, and physicist sign-off responsibilities.
    • Provide initial spare-parts kit and consumables list with reorder contacts and lead times.
    • Publish maintenance calendar and first-year preventive maintenance visits into shared calendar.
    • Training Summary
    • Confirm all critical staff meet competency requirements for safe and effective operation.
    • Identify residual training gaps and agree remediation steps and timelines.
    • Establish a cadence and owner for ongoing training and recertification.
    • Competency Validation Results
    • Enhancement Backlog Capture
    • Shared Channel & Ticket Workflow
    • Runbook & SOP Walkthrough
    • Readback of Agreed Success Signals
    • Knowledge Gap Remediation Plan
    • Measured Performance Review
    • Prioritization & Roadmap
    • Maintenance, QA & Physicist Duties
    • Escalation Matrix & Contacts
    • Review Cadence & Owners
    • Ongoing Training & LMS Access
    • Remote Access & Security Test
    • Integration Operations (PACS/RIS)
    • Gap Analysis & Consequences
First-Party AI

1-2 minutes please — Your AI agent is working

First-Party AI™ can make mistakes. Always check important information.