Executive briefing · 10 min read
In brief
Manufacturer and deployment responsibilities, hazard-evidence handover and proportionate clinical risk management for NHS digital health systems
- Jurisdiction
- UK
- Written for
- Board · Procurement
IG-Smart practical guides | Clinical safety Edition: 24 October 2026 | Audience: Clinical safety officers, health IT manufacturers and deploying organisations
Use this guide to make a better-evidenced decision. This is general information and an original working aid, not a client-specific legal opinion, certification, clinical safety authorisation or regulatory approval. Apply the relevant jurisdiction, current requirements and competent professional review to your circumstances. Examples are illustrative unless expressly attributed.
Your first three steps
- Confirm the manufacturer, deployer, product version and intended clinical use.
- Trace each material hazard from manufacturer evidence into the local workflow.
- Record accountable safety decisions, limitations and conditions before deployment.
Manufacturer and deployment responsibilities, hazard-evidence handover and proportionate clinical risk management for NHS digital health systems
Executive proposition: A manufacturer's clinical safety file does not discharge a deploying healthcare organisation's duty to evaluate risks in its own workflows, population, configurations and operational setting. Equally, local deployment assessment is not a substitute for the manufacturer's product safety process.
For: HealthTech manufacturers, software suppliers, NHS and care deploying organisations, Clinical Safety Officers (CSOs), CIOs, Medical Directors, clinical informaticians and procurement teams. Boundary: This guide provides a decision-oriented explanation and proposed working templates, not a completed DCB compliance assessment, appointed CSO opinion, medical-device classification or regulatory approval.
Executive briefing — the decision before procurement, go-live and change
There are two complementary questions: Has the manufacturer managed clinical hazards in the design, development, maintenance and release of the health IT system? And has the deploying organisation assessed whether the same system can be used safely in its own environment? The relevant clinical safety documentation should cross this boundary with traceable hazards, assumptions, design mitigations, operating restrictions and open issues.
Published NHS England clinical safety guidance distinguishes manufacturer-side DCB0129 from deploying-organisation DCB0160 responsibilities. A consultation or proposed revision does not replace published requirements. Check the latest NHS England publications before live safety-case use. [S1][S2]
Legal precision: Confirm the current legal applicability, published requirements and organisation type before relying on this guide for a live safety case; do not portray consultation proposals as binding requirements.
1. Why the two standards must be understood together
The manufacturer may design reasonable safeguards for a prescribing workflow, but cannot know every deploying organisation's staffing, interfaces, local formulary, training, fallback or device configuration. The deploying organisation can test its local clinical pathway, but should not be expected to invent manufacturer design decisions or independently reconstruct incomplete product hazard analysis.
The clinical safety assurance chain therefore requires evidence transfer and local challenge, not an assumption that purchasing a product transfers all responsibility to either party. This matters particularly for systems supporting triage, diagnostics, referrals, medication, clinical coding, patient identification and AI-supported recommendations.
Core responsibility comparison
| Requirement or activity | Manufacturer / DCB0129 emphasis | Deployer / DCB0160 emphasis | Shared boundary |
|---|---|---|---|
| Intended use | Define product function and limitations | Confirm intended local workflows and patient groups | Verify deployment fits product claims |
| Clinical hazards | Identify product lifecycle hazards | Identify deployment and context-specific hazards | Handover, reconcile and update |
| Clinical Safety Officer | Appoint suitably qualified CSO within applicable requirements | Establish appropriately qualified CSO and governance | Resolve escalation channels |
| Safety case | Document product clinical risk evidence | Document deployment clinical risk evidence | Compare assumptions and residual risks |
| Hazard log | Maintain relevant product hazards and controls | Maintain local hazards and mitigations | Map linked hazards and ownership |
| Testing | Verify product safety requirements and changes | Test local use, interfaces, configuration and workflows | Agree evidence criteria |
| Training | State required user competence and safe instructions | Implement local training and supervision | Confirm usability and restrictions |
| Change management | Assess releases, patches and system-level changes | Evaluate local configuration, interfaces and workflow changes | Timely notice and reassessment |
| Incident learning | Investigate product-related safety signals | Triage local patient safety incidents and emerging hazards | Joint analysis where relevant |
| Go-live | Supply evidence and unresolved product issues | Authorised local deployment decision | No universal supplier “sign-off” |
2. The IG-Smart Clinical Hazard Handover Map — eight gates
- C1 — Intended purposeWhat is the product intended to do, and for whom?
- C2 — ContextWhere and how will it operate?
- C3 — Product hazardsWhat harms were identified in product design?
- C4 — Local hazardsWhat new risk arises from deployment?
- C5 — ControlsWhich mitigations actually operate in this configuration?
- C6 — RolesWho owns each unresolved hazard and control?
- C7 — DecisionWho can authorise release and with what conditions?
- C8 — LifecycleWhat changes force reassessment?
Safeguard: A checked box cannot override a clinical safety objection or missing critical evidence.
IG-Smart working decision tool — not an alternative clinical risk management standard. Full detail follows in the text and table below.
| Gate | Decision question | Minimum evidence | Unresolved issue |
|---|---|---|---|
| C1 Intended purpose | What is the product intended to do, and for whom? | Approved intended-use description | Local use outside claims |
| C2 Context | Where and how will it operate? | Clinical workflow, environments, interfaces | Unspecified clinical dependency |
| C3 Product hazards | What harms were identified in product design? | Manufacturer hazard log and safety case information | Material hazard information absent |
| C4 Local hazards | What new risk arises from deployment? | Local hazard assessment | No deployer assessment |
| C5 Controls | Which mitigations actually operate in this configuration? | Testing, SOPs, training, fallback | Unverified critical mitigation |
| C6 Roles | Who owns each unresolved hazard and control? | Named CSOs, owners, escalation paths | Conflicted or missing owner |
| C7 Decision | Who can authorise release and with what conditions? | Safety case, exceptions, approving authority | Open unacceptable risk |
| C8 Lifecycle | What changes force reassessment? | Update notifications, incident and change triggers | No post-go-live monitoring |
The model is an IG-Smart working decision tool, not an alternative clinical risk management standard. A checked box cannot override a clinical safety objection or missing critical evidence.
3. What a useful manufacturer's evidence handover contains
Buyers should request a current clinical safety case report, a sufficiently informative hazard log with status and controls, confirmation of the CSO's function and sign-off according to applicable requirements, intended use and contraindications, foreseeable misuse, known limitations, relevant technical and clinical testing, integration/interface risks, release/version identification, training and configuration requirements, and a way to report new hazards.
Not every hazard detail can be distributed without restrictions; agree controlled review and record what was inspected. The handover must still permit the deployer to challenge reliance on a mitigation it cannot reproduce or enforce. Document any differences between development assumptions and the care setting.
Hazard provenance fields
| Field | Example of the question to answer |
|---|---|
| Hazard ID and origin | Manufacturer or local deployment finding? |
| Clinical harm | What plausible patient harm could occur? |
| Trigger and sequence | What interaction causes the hazard? |
| Existing mitigation | Designed, procedural, training or monitoring control? |
| Control owner | Supplier, deployer or shared? |
| Verification | Test artefact, representative users, date and limitations? |
| Residual risk | What remains after mitigation; whose decision? |
| Open action | Required before deployment or monitored under conditions? |
| Change sensitivity | Which update, workflow or interface changes affect it? |
4. What a deployer must assess in its own context
The deploying organisation should establish clinical sponsorship, identify the real user population, map the end-to-end clinical pathway and failure modes, examine clinical usability and accessibility, verify interfaces, define downtime fallback, assess supervision and training, and record a deployment decision with ownership. For AI-enabled or adaptive tools, consider model/version governance, drift and clinician reliance; the precise additional legal regime requires a separate applicability assessment.
Deployment safety-case contents
- Intended use and care setting.
- Scope of organisations, services and technical interfaces.
- Configuration baseline and local deviations.
- Product documentation examined and gaps in handover.
- Local hazard identification and linked manufacturer hazards.
- Safeguards, user training and clinical workflow controls.
- Verification and user-acceptance evidence with limitations.
- Incident response and safe downtime arrangements.
- Residual risk decision, approving authority and go-live conditions.
- Post-go-live monitoring, change triggers and next clinical review.
5. Risk scoring: interpret the method, not the number
Use a locally approved clinical risk matrix appropriate to the organisation. A supplier's 20-point internal matrix, an NHS-local five-point method and a different international standards method may use distinct definitions and thresholds. Numeric outputs are not interchangeable without documented mapping of severity, likelihood, acceptability and decision authority. For a multi-jurisdictional or AI clinical solution, a more granular model may support analysis, but the deploying organisation's mandated local decision framework must still be respected.
A defensible assessment preserves the narrative hazard → plausible harm → control → verification → residual uncertainty → decision, regardless of the arithmetic. No model should manufacture an appearance of objectivity where probability data are not available.
6. Interfaces, vendors and shared workflows
Clinical hazards often arise between systems rather than inside a single product. Reconciliation failures, patient-context errors, wrong-user alerts, time-zone mismatches, unsynchronised observations and degraded connectivity can bypass otherwise strong product controls.
A useful interface assurance handover identifies system owners, version compatibility, data quality checks, responsibilities during outages, alert-handling pathways, safe rollback and clinical validation after configuration changes. Where several NHS bodies exchange data, document cross-organisational escalation instead of assuming every downstream organisation has identical workflows.
7. Illustrative clinical safety cases — fictional examples, not client evidence
E-prescribing integration. Manufacturer testing demonstrates dosage validation, but the deploying organisation discovers local formulary exceptions and a risky overnight downtime procedure. Go-live is conditional on revised procedure, testing, ownership and CSO review.
AI-assisted triage. Product safety materials state that clinicians retain final judgement, but local workflow places model recommendations prominently and disincentivises override. The deployer assesses reliance, staff training, audit logs, affected patient groups and escalation; additional AI, privacy and medical-device questions require separate review.
Remote monitoring. Device data are transmitted reliably under lab conditions but a local network outage can defer clinical alerts. The deployment hazard assessment defines fallback observations, escalation periods, recovery verification and change control.
8. Procurement questions that reveal assurance quality
- Which exact product version and intended-use statement does the safety case cover?
- Who prepared and approved the product hazard log and when?
- Which material clinical hazards remain open and what conditions apply?
- Which mitigations depend on local configuration, staffing or clinical decisions?
- Can the supplier explain why its risk rating transfers to this deployment?
- What evidence exists for interoperability and data-integrity testing?
- What change notification is provided for safety-relevant software releases?
- How are clinical incidents and previously unknown hazards jointly escalated?
- Does the supplier claim DCB0160 compliance on behalf of the NHS organisation?
- Are medical-device and other statutory classifications separately addressed?
- Has the relevant Clinical Safety Officer actually assessed the proposed local deployment?
- What must be revalidated after the next system or workflow change?
9. A one-page clinical safety deployment decision
Product and version: __; intended use and care setting: __; manufacturer evidence reviewed: __; deployer hazards added: __; unacceptable and conditional risks: __; mitigations tested: __; CSO involvement: __; clinical owner: __; decision: proceed / condition / defer / reject; approval authority: __; post-deployment monitoring: __; change triggers: __.
No signature should be treated as a substitute for unresolved material evidence. A clinical safety case report must communicate its actual limitations rather than produce a blanket “safe” certificate.
10. Frequently asked questions
Does DCB0129 certification mean an NHS trust is ready to deploy? The premise is misleading: assess the manufacturer evidence and local deployment obligations; DCB0129 work does not replace DCB0160.
Does DCB0160 require every supplier to employ the NHS customer's CSO? The deployer and manufacturer have distinct arrangements; roles must be established under the applicable requirements and contracted scope.
Can DTAC substitute for a clinical safety assessment? No. DTAC includes clinical safety criteria but does not automatically complete every manufacturer's or deployer's clinical risk management task.
Does a safety case replace a hazard log? They serve related but distinct purposes; ensure hazards, controls, residual decisions and evidence can be traced.
Can clinical risks be rated only with a supplier's score? The deploying organisation must apply its approved acceptability method with appropriate contextual evidence.
Do clinical risk standards automatically settle UK medical-device status? No. Medical-device classification and regulatory requirements need separate assessment.
What if a manufacturer refuses full safety documentation? Agree appropriately controlled access, record gaps and avoid claiming assurance beyond evidence examined.
Can a CSO approve any unresolved patient harm exposure? Decision authority and acceptable residual risk must follow applicable governance; no sign-off automatically legitimises an unacceptable hazard.
A condition is not a permission slip. Where a clinical safety or legal prerequisite is unresolved, record it as a condition that must be satisfied before deployment or the affected use. A procurement deadline, supplier signature or generic risk score cannot authorise an unacceptable hazard. Use the organisation's clinical safety escalation and decision arrangements, not this guide as a clinical instruction.
11. Practical implementation
Use the companion *Clinical Safety Handover & Deployment Record* to establish product-specific and organisation-specific evidence. Start with the intended-use declaration and local workflow before requesting lengthy evidence sets. Escalate missing CSO competence, material hazards and unresolved safety conditions as blockers, rather than lowering scrutiny to meet a tender deadline.
Related services: Clinical Safety Consultancy, Clinical Safety Officer Services, DTAC Readiness, HealthTech Governance. A Clinical Safety Officer appointment must be expressly agreed for the engagement.
Next step: Submit a Requirement describing the health IT product, relevant NHS setting, current safety artefacts and intended deployment; the firm can determine suitable scoping without promising procurement or go-live approval.
Sources
- [S1] NHS England, *National review of clinical risk management standards DCB0129 and DCB0160: supporting information* (29 June 2026) england.nhs.uk/long-read/national-review-of-clinical-risk-management-standardsdcb0129-and-dcb0160-supporting-information/
- [S2] NHS England, *National review consultation* (closed 11 September 2026) engage.england.nhs.uk/patient-safety/national-review-of-clinical-risk-management-standa/
- [S3] NHS England, *Patient Safety Strategy progress update, July 2026* england.nhs.uk/patient-safety/the-nhs-patient-safety-strategy/nhs-patient-safety-strategy-progress-so-far/
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General guidance, not legal advice.

