Professional Relationships and Everyday Leadership in NHS Pathology

No pathology result is produced by one person

A Clinical Chemistry result may appear under one biomedical scientist’s authorisation, but many people and systems make it possible. A clinician selects the investigation. A phlebotomist identifies the patient and collects the specimen. Portering or transport staff preserve the route to the laboratory. Reception staff accession it. Biomedical scientists analyse and validate it. Clinical scientists and medical colleagues support interpretation. IT teams maintain the information route. The requesting team acts on the result. The service user experiences the outcome.

Professional relationships hold this chain together. They allow people to work autonomously without becoming isolated, challenge one another without hostility, share expertise and recover safely when something goes wrong.

This article develops the IBMS Registration Training Portfolio module on Professional Relationships. It connects with professional development, clinical laboratory science, physiology, genetics, microbiology, immunology, research and translational-science learning.

Learning outcomes

Knowledge: what you should understand

After reading this article, you should be able to explain:

• how laboratory work affects the complete service-user care pathway;
• the roles of key laboratory, clinical, technical and support professionals;
• the difference between autonomous practice and isolated practice;
• why multidisciplinary review improves difficult clinical and quality decisions;
• how supervision, training and mentoring support safe practice;
• the qualities and behaviours of effective leadership;
• how every professional can lead within their role; and
• the broad structure of NHS and social-care services, including current change in England.

Competence: what you should be able to demonstrate in practice

With local training, observation and assessment, you should be able to:

• build respectful working relationships across roles and departments;
• give and receive an effective handover;
• contribute relevant laboratory evidence to a team or multidisciplinary discussion;
• recognise how your handling of a specimen affects later work;
• engage appropriately with service users or their representatives;
• notice stress or anxiety and respond within your role;
• take an active part in supervision, training and mentoring;
• demonstrate leadership behaviours such as prioritisation, calm escalation, inclusion and follow-through; and
• describe where your laboratory sits in its Trust, pathology network and local health system.

1. Keep the service user visible

Automation can make work feel distant from the person whose specimen is on the track. The HCPC standard is clear: biomedical scientists must be aware of pathology’s impact on the care pathway.

Consider a routine creatinine result. It may influence recognition of acute kidney injury, medicine dosing, imaging decisions or ongoing monitoring. Delay can alter treatment. A wrong-patient result can harm two people. An unexplained cancellation can lead to another venepuncture. An inaccessible collection instruction can prevent the test from being completed.

Patient-centred laboratory practice asks:

• What decision may depend on this result?
• What harm could arise from error, delay or ambiguity?
• Does the requesting team have enough information to act?
• Could the process be easier, safer or more dignified for the service user?

You do not need direct patient contact to keep the person at the centre of your decisions.

The care pathway is a chain of partnerships, with learning and feedback returning to improve the service.

2. Partnership with service users and carers

Working in partnership means more than sending a satisfaction survey. Service users and carers can help laboratories understand collection instructions, access barriers, reporting language, phlebotomy experience, repeat-sample burden and what matters during service change.

Appropriate involvement may include:

• co-designing plain-language 24-hour urine or fasting instructions;
• inviting patient representatives to comment on a new collection pathway;
• reviewing complaints and compliments for learning;
• asking point-of-care users and service users about the practical impact of a process;
• including patient stories, with proper consent and governance, in improvement work; and
• explaining how feedback affected a decision.

Engagement must be accessible and meaningful. Do not ask for views after a decision has already been fixed, select only convenient voices or collect feedback without responding.

Biomedical scientists should be clear about their scope. They can explain laboratory processes and specimen requirements, but clinical interpretation and treatment choices must go to the appropriate clinical professional.

3. Who contributes to the Clinical Chemistry pathway?

Roles vary between organisations, but relationships may include:

Respect each person’s expertise. Job title alone does not tell you what someone is trained or authorised to do, so clarify roles rather than assume.

4. Autonomy and collaboration belong together

An autonomous biomedical scientist can make decisions within their competence and take responsibility for them. Collaboration means drawing on other expertise and coordinating action. They are not opposites.

For example, you may be authorised to validate routine liver profiles independently. If a result pattern suggests an analytical interference or requires complex interpretation, autonomy includes recognising the limit and referring to a senior biomedical scientist or clinical scientist. Safe independent practice knows when interdependence is required.

Isolated practice is different. It occurs when someone avoids advice, withholds information, ignores the impact on colleagues or treats help-seeking as weakness.

5. Daily practice example: order of draw affects several departments

Blood collection order matters because additives can carry over between tubes. Potassium-EDTA contamination can produce a misleading chemistry pattern, including raised potassium and reduced calcium. The same collection episode may also provide samples for haematology, coagulation or transfusion.

The relationship lesson

The chemistry laboratory cannot prevent every collection error alone. Improvement may require:

• phlebotomy educators to review technique;
• ward teams to understand the patient risk;
• haematology and biochemistry to share incident patterns;
• procurement to review collection equipment;
• informatics to support an appropriate comment or alert;
• clinical scientists to advise on interpretation; and
• the quality team to monitor whether change works.

A useful response to a suspected contamination is factual and non-blaming: describe the analytical pattern, explain the potential consequence and request the action defined in the SOP. Repeated events should lead to shared improvement, not repeated criticism of individuals.

6. Multidisciplinary teams and reviews

A multidisciplinary team brings different professional perspectives to a patient, pathway or service problem. Formal examples include endocrine, renal, diabetes, metabolic, toxicology or nutrition meetings. Quality reviews, incident meetings and analyser-change groups are also multidisciplinary.

Biomedical scientists add value by bringing evidence about:

• sample type, collection time and integrity;
• method principles, calibration, uncertainty and interference;
• QC and EQA performance;
• reference information and analytical limitations;
• previous laboratory patterns;
• turnaround, capacity and practical workflow; and
• traceability of a result or incident.

Example: apparently severe hyponatraemia

A patient has a very low sodium result, but the clinical picture and other laboratory information create concern about method-related interpretation. The biomedical scientist should not diagnose the cause alone. They can confirm analytical validity, identify the measurement principle, review flags and relevant results, and refer to the clinical scientist or duty biochemist. The clinical team contributes examination, medicines and fluid status. Together, the team distinguishes analytical, physiological and clinical possibilities and decides the next step.

The value of the review is not that everyone says the same thing. It is that different evidence is combined, assumptions are challenged and responsibility for action becomes clear.

7. Professional relationships during pressure

Relationships are tested during analyser failure, staff shortage, major incidents and high workload. A safe team uses a shared picture of risk.

Useful behaviours include:

• a brief huddle to prioritise urgent work and allocate roles;
• stating capacity honestly rather than promising an impossible turnaround;
• escalating clinical impact early;
• using names and closed-loop instructions for critical tasks;
• checking on lone or inexperienced staff;
• keeping handovers current; and
• reviewing what happened after recovery.

Blame, sarcasm and shouting narrow attention and reduce speaking up. Calm does not mean under-reacting. It means making risk visible and action organised.

8. Daily practice example: the main analyser fails overnight

At 02:00 the primary chemistry analyser stops. Emergency-department and intensive-care samples are arriving. You are trained on the analyser but are not the technical lead.

Everyday leadership within scope

• Confirm the fault and apply the approved immediate safety steps.
• Inform the shift lead or on-call senior through the correct route.
• Identify affected tests, samples already in process and results that may be unreliable.
• Activate the authorised contingency, which may include a backup analyser or referral route.
• Communicate realistic impact to relevant clinical areas using the agreed message.
• Prioritise clinically urgent work according to policy rather than who telephones most often.
• Allocate tasks clearly and confirm that colleagues understand them.
• Keep a contemporaneous incident and handover record.
• Monitor team workload and fatigue.

You do not need a management title to provide calm coordination. You must not, however, change unapproved methods, authorise untrained staff or bypass quality controls.

9. Recognising anxiety and stress

Service users may be anxious about a test, diagnosis, needle, repeat collection or delay. Colleagues may be affected by workload, a near miss, conflict, illness or events outside work.

You are not expected to diagnose or counsel beyond your role. You can:

• listen without interruption;
• acknowledge the concern;
• provide clear information within your competence;
• offer a quieter or more private conversation where appropriate;
• adjust pace and check understanding;
• ask what immediate support would help;
• involve a supervisor, line manager, occupational health, wellbeing or clinical professional; and
• take urgent action where safety is at risk.

Avoid saying “calm down” or making promises you cannot keep. If your own stress or fatigue may affect safe practice, tell the appropriate person and use the support route.

10. Leadership is behaviour, not hierarchy

Effective laboratory leaders create clarity, safety and learning. Useful qualities include:

• integrity and consistency;
• patient focus;
• technical credibility and willingness to seek expertise;
• calm prioritisation under pressure;
• inclusive listening;
• clear decisions and accountability;
• openness about uncertainty and error;
• constructive challenge;
• fair use of resources and opportunities; and
• follow-through.

Every professional can demonstrate these behaviours. Examples for a trainee include preparing well for supervision, raising a near miss, helping a peer locate an SOP, checking an assumption respectfully and completing an agreed action. Leadership grows through practice and feedback.

11. Role modelling and professional culture

People learn what is truly expected by watching what experienced staff do. A senior scientist who bypasses an identity check teaches that speed matters more than policy, even if training slides say otherwise. A colleague who admits uncertainty and seeks a second review models safe accountability.

Role modelling includes:

• using PPE and hand hygiene correctly;
• treating support staff and clinical colleagues with equal respect;
• maintaining confidentiality;
• making decisions transparently;
• challenging incivility;
• accepting feedback;
• recording incidents honestly; and
• protecting breaks and wellbeing where possible.

Professional culture is built in repeated small actions.

12. Training, supervision and mentoring

Training

Training develops knowledge and skill for defined work. It should use current procedures, clear outcomes, supervised practice and assessment.

Supervision

Supervision provides oversight, support, feedback and reflection appropriate to the person and risk. It can be direct, indirect, professional, clinical or managerial. Effective supervision has agreed expectations, regular contact, psychological safety and an action record.

Mentoring

Mentoring is usually a developmental relationship that supports broader growth, confidence and career thinking. A mentor does not replace the competency assessor or line manager.

The trainee is an active participant. Prepare questions, be honest about limits, seek feedback, complete agreed learning and explain when supervision is insufficient. The trainer must set safe boundaries, observe fairly, give specific feedback and avoid signing competence without adequate evidence.

13. Promoting the learning of others

Teaching strengthens the laboratory when it is accurate, inclusive and governed. Before training another person:

• confirm that you are authorised to teach the task;
• agree the learning outcome and their starting level;
• explain why the control matters;
• demonstrate at a suitable pace;
• supervise practice;
• use questions or teach-back to check understanding;
• give specific, respectful feedback;
• document training as required; and
• refer competency sign-off to the authorised assessor.

Do not teach a personal shortcut that conflicts with the SOP. If the procedure is unclear, raise it through document control rather than passing on unofficial knowledge.

14. Giving and receiving feedback

Useful feedback is timely, specific and focused on behaviour and effect.

Instead of: “You are careless.” Say: “The specimen was loaded without completing the second identifier check. That could attach a result to the wrong patient. Please stop, follow step 4 of the SOP and talk me through the check.”

When receiving feedback:

• listen and ask for an example;
• separate discomfort from the value of the information;
• confirm the required change;
• practise it; and
• ask for follow-up observation.

If feedback is discriminatory, threatening or unsafe, use the appropriate escalation route.

15. Understanding the wider NHS and care system

Biomedical scientists should understand where their service sits, because funding, commissioning, referral, governance and patient pathways cross organisational boundaries.

In England, a simplified view at the time of writing is:

• the Department of Health and Social Care sets national policy and government priorities;
• NHS England continues to operate during a transition in which government plans to move its functions into the Department of Health and Social Care and abolish the organisation by March 2027, subject to Parliament;
• integrated care systems bring NHS organisations, local authorities and partners together in local areas;
• integrated care boards plan NHS services and manage budgets for their populations, with several footprints changing in 2026 and further change planned;
• NHS trusts and foundation trusts provide hospital, community, mental-health and ambulance services;
• primary care includes general practice, community pharmacy, dentistry and optometry;
• local authorities and social-care providers have distinct responsibilities and work with health services; and
• pathology networks connect laboratories and may use hub, spoke, essential-service and referral arrangements.

Structures differ in Scotland, Wales and Northern Ireland. Even within England, local arrangements vary and national structures are changing. Check current official and local sources rather than relying on an old organisational chart.

What a trainee should know locally

• Which organisation employs you and holds clinical governance?
• Which sites and specialties form your pathology network?
• Where are urgent, specialist and out-of-hours tests performed?
• Which ICB or equivalent local system does the service work within?
• Who leads quality, clinical advice, POCT, information governance, safeguarding and education?
• How are service-user views included?

16. What competent practice looks like

A competent trainee or biomedical scientist:

• connects each task with its effect on the service-user pathway;
• works independently within scope and collaborates when other expertise is needed;
• knows the roles and limits of key colleagues;
• communicates respectfully across status and profession;
• contributes relevant scientific evidence to team decisions;
• notices pressure, anxiety and stress and responds appropriately;
• participates actively in supervision, training and mentoring;
• demonstrates leadership through clarity, inclusion, escalation and follow-through;
• supports the learning of others within authority; and
• understands the laboratory’s place in the local and national health system.

17. Common mistakes and better alternatives

18. HCPC Standards of Proficiency covered

The following standards are mapped to the IBMS Professional Relationships module. The wording is summarised in plain English; use the current HCPC publication for the authoritative wording.

19. Portfolio and supervision prompts

Use anonymised examples and agree evidence requirements with your training officer.

1. Map the people involved in one result from collection to clinical action. Where can relationships prevent error or delay?
2. Spend time with a related department, POCT team, ward round or clinical meeting. What changed in your own practice?
3. Describe one multidisciplinary discussion and the unique evidence contributed by each profession.
4. Identify a leadership behaviour you already show and one you need to develop. What evidence would demonstrate progress?
5. Ask a supervisor to observe you teaching one safe task. How did you check understanding?
6. Find your Trust, pathology-network and ICB or equivalent structure. Who is accountable for the service?
7. How has service-user or carer feedback changed a laboratory process?

Key takeaways

• Pathology quality depends on relationships across the complete care pathway.
• Autonomy includes recognising when collaboration and referral are needed.
• Biomedical scientists bring essential analytical evidence to multidisciplinary decisions.
• Leadership is visible in everyday behaviour, not only job titles.
• Training, supervision and mentoring require active participation from learner and educator.
• NHS structures are changing; understand both the broad system and your current local arrangement.

Suggested references

• Health and Care Professions Council. Standards of proficiency: Biomedical scientists (effective 1 September 2023)
• Health and Care Professions Council. Standards of conduct, performance and ethics (effective 1 September 2024)
• Health and Care Professions Council. Supervision
• Institute of Biomedical Science. Registration Training Portfolio V5: Module Descriptors, version 1.1, May 2025
• Institute of Biomedical Science. Good Professional Practice in Biomedical Science, updated 2025
• NHS England. What is integrated care?
• UK Government. Health Bill impact assessments summary, including the planned NHS England transition
• NHS England. Integrated care in your area
• NHS England. NHS values in action