Integrating physician experience into life science technology decisions
Physicians operate at a critical inflection point in healthcare delivery. Their clinical decisions determine how therapies are deployed, how care pathways evolve, and how technology (including artificial intelligence) is experienced and adopted at the point of care. These decisions are made within a complex ecosystem of interdependent actors: patients and families, health systems, payers, regulators, and life science companies. Each of these stakeholders shapes the environment in which physicians work, yet few life science companies have systematized their understanding of how physician workflows, constraints, and preferences translate into technology adoption and, ultimately, clinical impact.
The conventional approach to technology strategy in life science has emphasized clinical endpoints, regulatory pathways, and commercial positioning. These remain essential. Equally important, however, is recognizing that technology lives or dies in clinical practice based on whether it fits into how physicians actually work. Physician experience is not the only factor that determines success. Patient outcomes, payer incentives, operational feasibility, and regulatory compliance all matter. The opportunity lies in integrating physician insights systematically into technology strategy alongside these other critical lenses, rather than treating adoption challenges as a downstream implementation problem.
Physicians in the healthcare ecosystem
Healthcare delivery depends on a network of interdependent decisions and relationships. Physicians occupy a central position within this network, serving multiple roles that have direct bearing on technology adoption and market success for life science companies.
Their core functions include:
For life science companies, these roles create several direct strategic implications:
Importantly, physician decisions do not occur in isolation. They are constrained and informed by patient preferences, payer policies and reimbursement structures, health system economics and staffing realities, regulatory requirements, and workforce availability. Technology strategy that privileges one stakeholder perspective at the expense of others will encounter implementation friction that could have been anticipated and addressed earlier in the development cycle.[1][2][4]
How life science companies currently engage physicians
Life science industry engagement with physicians has evolved substantially over the past decade. The shift reflects both changing physician preferences and the maturation of digital engagement capabilities. Understanding this landscape is essential for companies launching new technologies, as it reveals both the current state of physician relationships and the gaps in how companies communicate about new solutions.
Traditional field and medical affairs engagement
Field sales representatives remain an active channel for many physicians, though the nature of these interactions has shifted. Face-to-face meetings have largely recovered to prepandemic volumes and continue to serve a purpose, particularly for addressing specific clinical questions, discussing patient populations, or navigating reimbursement and access issues.[11][12][13]
In parallel, Medical Science Liaisons (MSLs) and the broader medical affairs function have become increasingly central to life science engagement strategies. MSLs are scientifically trained professionals (typically holding PharmD, PhD, or MD credentials) who engage in non-promotional, evidence-based conversations with clinicians. Their responsibilities include:[10][14][15]
Providing clinical and mechanistic data to support clinical decision-making
Gathering structured insights from key opinion leaders and clinical sites
Supporting clinical trial planning, protocol development, and investigator engagement
MSL roles have migrated earlier in the asset development timeline. Today, many are engaged pre-launch, working with pivotal investigators and high-influence clinicians to gather emerging evidence and incorporate clinical feedback into launch planning.[6][7][10]
Life science companies also support physician education through accredited and unaccredited programs, including continuing medical education (CME), symposia at scientific conferences, and disease-focused educational content. These programs operate within strict regulatory guardrails designed to preserve scientific independence and manage conflicts of interest.[16][17]
Digital and omnichannel engagement
Digital engagement has become a material component of physician outreach. Many physicians report preferring flexibility and asynchronous access to information. Surveys indicate that most physicians would like to maintain or increase the proportion of digital interactions with pharmaceutical and medical device companies.[18][19][11]
Life science companies have developed corresponding digital capabilities:
Targeted email campaigns, often triggered by behavioral signals such as website visits, content downloads, or research activity
Virtual webinars and roundtables with clinical experts
On-demand content libraries with modular, focused educational modules
The most mature organizations are progressing toward omnichannel orchestration: seamlessly integrating field, email, events, and digital content so that each interaction is informed by prior touchpoints and tailored to individual physician preferences. For example, a physician attending a virtual symposium on a difficult-to-manage patient population might receive targeted follow-up content by email, while their regional representative is prompted with talking points specific to that physician's apparent clinical interests.[13][21][7]
In practice, many companies remain in transition. Physicians frequently report that a substantial portion of marketing content feels generic or misaligned with their specific practice context. This gap matters directly for technology adoption. When communications about new AI tools or digital products appear undifferentiated from standard promotional messaging, they compete for attention rather than serving as a resource for clinical problem-solving.[23][24]
Compliance, transparency, and trust
All physician-company interactions operate within a regulated framework. Sunshine reporting requirements, anti-kickback statutes, promotional codes, and internal compliance policies establish what can be discussed, how financial relationships must be disclosed, and how interaction data can be used.[25][26][6]
These requirements create both constraints and competitive opportunities. Companies that consistently demonstrate transparency, respect for scientific objectivity, and clear boundaries between educational and promotional activities build stronger, more durable relationships with clinicians. This trust becomes particularly consequential when introducing emerging technologies like AI, where clinicians have legitimate concerns regarding bias, algorithmic explainability, and potential unintended consequences.[19][27][28][29][30][10]
Understanding how physicians spend their time
Any assessment of technology strategy involving physicians must begin with empirical understanding of their time allocation and workflow constraints.
A landmark time-motion study in ambulatory practice found that physicians spent only 27.0% of their office time on direct face-to-face clinical interaction and 49.2% on EHR and administrative desk work. During time spent physically in examination rooms, physicians allocated approximately half their time to direct patient interaction and more than one-third to EHR documentation.[31][32]
A subsequent ecological momentary assessment study, which sampled physician activities throughout the workday in real time, found comparable patterns. Excluding personal time, physicians spent 66.5% of their time on direct patient care activities, yet nearly a quarter of that time involved simultaneous multitasking with EHR use. Across the full day, 44.9% of total time went to EHR-related activities, while only 41.8% of time involved direct patient interaction without concurrent documentation.[33]
The administrative burden extends beyond scheduled clinic hours. Many physicians report one to two additional hours most evenings (colloquially known as "pajama time") devoted to note completion, message management, and administrative tasks. This after-hours work is particularly pronounced in primary care and other high-volume specialties.[34][35][31]
These time allocation patterns create several implications for technology strategy:
Solutions that increase time requirements per patient encounter, or that demand substantial setup and reconfiguration, will encounter meaningful adoption resistance regardless of clinical merit.
Technologies that demonstrably reduce documentation time, simplify workflows, or lower cognitive switching costs can unlock value beyond convenience.
Engagement models requiring additional physician time (extended training sessions, lengthy product demonstrations, or content consumption demands) compete directly with clinical and personal time, reducing their effectiveness.
Physician time and attention constraints are not the only design considerations in healthcare technology development. They are, however, among the most immediately perceived at the clinical level and materially influence whether well-designed solutions gain sustained adoption.
The link between physician experience and patient outcomes
Research evidence establishes a direct relationship between physician experience (encompassing workload, documentation burden, and burnout) and patient safety and care quality.
A comprehensive meta-analysis of 47 studies involving more than 42,000 physicians found that burnout was associated with approximately double the odds of patient safety incidents and low professionalism, and roughly triple the odds of low patient satisfaction. Other research suggests that in certain healthcare settings, burnout may contribute as substantially to medical error risk as traditionally recognized safety factors such as staffing ratios and standardized processes.[36][37][38]
Digital systems are not the sole driver of physician burnout, yet they contribute meaningfully. EHR burden and related administrative work rank consistently among the top contributors to clinician dissatisfaction and burnout. When clinicians spend disproportionate time on documentation relative to patient interaction, the cognitive capacity available for clinical reasoning, patient education, and relationship building declines.[35][39][31][33][34]
Well-designed digital tools, however, can improve both physician experience and patient outcomes. Clinical workflow optimization initiatives that streamline ordering, consolidate documentation, and improve information accessibility have demonstrated gains in efficiency and reductions in errors. Ambient AI scribe solutions, which transcribe patient encounters and automatically generate draft clinical notes for physician review, have produced reductions of approximately one hour per day in documentation time and concurrent improvements in both clinician satisfaction and patient-reported experience.[40][41][42][43][44][45]
For life science companies developing technology solutions, the implication is neither that physician satisfaction supersedes all other objectives nor that it can be disregarded. Rather, physician experience represents one of the material levers that determines whether technology contributes to or detracts from care quality. When strategy, design, and implementation overlook this factor, other investments in analytics, infrastructure, or commercial support face diminishing returns.
How physicians evaluate AI and digital tools
Physician adoption of AI and digital tools reflects complex, context-dependent evaluation rather than uniform enthusiasm or skepticism. Recent surveys show growing penetration: approximately two in three physicians report using some form of health AI, representing a substantial year-over-year increase. For a meaningful segment of clinicians, enthusiasm for AI applications now exceeds concerns.[28]
Concurrently, trust in medical AI remains conditional and multifaceted. Research on physician trust in AI systems reveals several important patterns:
Digital literacy correlates with greater trust in AI systems.
Conversely, higher levels of AI-specific literacy sometimes correlate with increased skepticism, as clinicians develop awareness of algorithmic limitations, potential bias, and inherent uncertainty.[29]
Physicians consistently articulate three critical requirements for AI systems and advanced digital tools:
Clinical validity and explainability. Systems require supporting evidence that is meaningful within the physician's patient populations and clinical settings. Equally important, explanations must be comprehensible enough for clinicians to articulate and justify system recommendations to colleagues and patients.[46][47][30]
The adoption experience with AI-driven sepsis detection illustrates these principles in practice. Sepsis contributes to a substantial proportion of in-hospital mortality and has historically proven difficult to detect in early stages. Earlier rule-based alert systems frequently triggered false alarms, contributing to alert fatigue and eroding clinical confidence in the alert mechanism.[47][46]
More recent machine learning systems, including the Targeted Real-Time Early Warning System (TREWS), used large-scale data patterns to identify at-risk patients with greater accuracy. Across multiple hospital deployments, TREWS identified sepsis cases earlier and more accurately than previous approaches. Clinicians adopted and acted on a substantial majority of alerts, with accompanying reductions in mortality and hospital length of stay.[49][48]
The success of TREWS derived not solely from algorithmic superiority. It reflected deliberate choices regarding alert placement and presentation within the EHR, minimization of false positive rates, streamlined workflows for clinician review and action, and transparent monitoring and reporting of system performance.[46][47][48][49]
For strategy teams developing healthcare technology, the lesson is instructive: physician perception of AI systems is shaped as substantially by usability and governance infrastructure as by headline performance metrics.
Translating physician journeys into technology strategy
Technology and AI strategy in life science companies must reconcile multiple, sometimes competing objectives:
Improving patient outcomes and clinical experience
Supporting economic sustainability for health systems and payers
Meeting evolving regulatory and safety standards
Creating competitive differentiation and supporting company growth
Ensuring practical feasibility within real clinical environments
Physician journey mapping and insights contribute to this multifaceted strategy without displacing other critical considerations.
Identifying problems worth solving
Systematic mapping of physician journeys (across a single clinic day, a complete treatment pathway, or a specific clinical specialty) helps identify where digital and AI tools can realistically drive meaningful improvement. In many healthcare settings, the most acute pain points clinicians describe are not insufficient clinical guidelines or lack of analytic sophistication, rather:
Information fragmentation across multiple, non-integrated systems
Repetitive documentation and prior authorization requirements that consume clinical time
Uncertainty regarding which patients are most likely to benefit from which therapeutic interventions
Insufficient time available for meaningful patient education and shared decision-making
When these pain points are evaluated alongside patient journey mapping, payer incentive structures, and system-level operational goals, they help focus technology investment on problems that are simultaneously clinically meaningful and likely to achieve adoption.
Shaping solution design and implementation
Once a clinical problem is selected for technology intervention, physician journey insights help clarify design constraints and requirements:
How many additional clicks or screens can be introduced before system usability deteriorates unacceptably?
At what point in the care workflow should information appear to deliver maximum clinical utility (pre-visit, during the visit, post-visit)?
Which care team members should directly interact with the tool: physician, advanced practice provider, nurse, patient advocate?
How should edge cases, exceptions, and override scenarios be handled in ways that clinicians find credible and appropriate?
These questions transcend user experience design; they influence regulatory strategy, data integration architecture, and commercial positioning. Clinician input is nonetheless essential for grounding solutions in practical reality.
Guiding engagement and adoption strategy
Physician journey understanding also informs how technologies are introduced and supported within healthcare organizations. Illustrative applications include:
Early pilot sites may benefit from prioritizing practices or specialties where workflow burden is most acute and organizational leadership demonstrates genuine openness to innovation.
Success metrics may need to extend beyond clinical outcomes to include operational measures such as documentation time, workflow hand-off efficiency, or the proportion of system recommendations that receive clinician review and action.
In this context, physician perspective complements perspectives from other stakeholders. Operational leaders prioritize throughput and staffing efficiency; payers focus on total cost of care; regulators emphasize safety and algorithmic fairness. Technology strategy that integrates these multiple lenses with grounded understanding of clinical workflows and constraints will be more robust and implementable than approaches that privilege any single stakeholder viewpoint.
Building durable technology adoption and competitive advantage
The next generation of significant technology wins in life science will not accrue to companies that build the most algorithmically sophisticated systems or invest most heavily in marketing. They will instead accrue to companies that successfully bridge the gap between technological possibility and practical viability within real clinical environments.
This bridge is constructed through several disciplined practices:
Using systematic physician and patient journey mapping to validate which problems are sufficiently acute and widespread to merit investment.
Engaging physicians iteratively during design and development phases, not merely at validation endpoints, to refine workflow integration, information presentation, and governance approaches.
Aligning training, onboarding, and change management with how clinicians realistically learn and integrate new tools into established practices.
Establishing success metrics that extend beyond clinical endpoints and financial returns to include measures of clinical experience and workflow integration.
The sepsis alert experience demonstrates the returns on this disciplined approach. Systems that thoughtfully address physician workflows, minimize alert burden, and establish transparent governance can achieve both meaningful clinical adoption and measurable patient outcomes. Technologies that treat physician workflow as a downstream implementation concern rather than a central design requirement frequently underperform relative to their technical capabilities.[47][48][49][46]
The objective is not to subordinate business strategy to physician preferences. Rather, it is to recognize that life science technology decisions ultimately land in real clinical environments and that systematic integration of physician insights is one of the most practical mechanisms to convert technical capability into sustained adoption, clinical impact, and durable business value.
References
"Engaging Stakeholders in Healthcare: Tips and Strategies." Simply Stakeholders, September 30, 2025. https://simplystakeholders.com/stakeholders-in-healthcare/
"Identifying Stakeholders in the Healthcare Sector." Borealis Software, July 7, 2025. https://www.boreal-is.com/blog/stakeholders-in-healthcare/
"Interaction Between Physicians and the Pharmaceutical Industry." Frontiers in Public Health, January 11, 2023. https://www.frontiersin.org/journals/public-health/articles/10.3389/fpubh.2022.1072708/full
"Effects of Physician-Directed Pharmaceutical Promotion on Prescription Drug Choice." Health Economics, February 18, 2016. https://onlinelibrary.wiley.com/doi/10.1002/hec.3323
"Influence of Pharmaceutical Marketing Mix Strategies on Physicians' Prescribing Behavior." NIH National Library of Medicine, January 6, 2021. https://pmc.ncbi.nlm.nih.gov/articles/PMC7791818/
"What Influences Healthcare Providers' Prescribing Decisions?" FDA, 2025. https://www.fda.gov/media/151256/download
"Interaction Between Physicians and the Pharmaceutical Industry." NIH National Library of Medicine, January 11, 2023. https://pmc.ncbi.nlm.nih.gov/articles/PMC9879663/
"Transforming HCP Engagement for the Modern Pharma Landscape." Newristics, January 31, 2024. https://newristics.com/transforming-HCP-Engagement-for-the-future-of-pharma.php
"For Physicians and Pharma, Hybrid Engagement Is the New Normal." Boston Consulting Group, May 13, 2024. https://www.bcg.com/publications/2023/hybrid-engagement-is-the-new-normal-for-physicians-and-pharma-companies
"From Preference to Practice: Understanding the Evolving Channel Preferences of HCPs in Europe." IQVIA, November 16, 2025. https://www.iqvia.com/locations/emea/blogs/2025/11/from-preference-to-practice
"Reimagining HCP Engagement: Insights for 2025 and Beyond." EsperienzaRx, July 20, 2025. https://esperienzarx.com/hcp/hcp-engagement-insights-2025/
"The Science and Art of Medicine: How MSLs Bridge the Gap to Improve Patient Access and Care." The MSL Journal, October 11, 2023. https://themsljournal.com/article/the-science-and-art-of-medicine-how-msls-bridge-the-gap-to-improve-patient-access-and-care/
"What is a Medical Science Liaison?" ACMA, December 31, 1998. https://medicalaffairsspecialist.org/what-is-an-msl
"Medical Science Liaison (MSL)." Definitive Healthcare, December 31, 1999. https://www.definitivehc.com/resources/glossary/medical-science-liaison
"Promoting Best Practices for Medical Science Liaisons Position Statement." NIH National Library of Medicine, July 7, 2021. https://pmc.ncbi.nlm.nih.gov/articles/PMC8492581/
"3 Data-First Strategies MedTech and Pharma Teams Can Use to Sharpen HCP Engagement." Alpha Sophia, November 29, 2025. https://www.alphasophia.com/blog-post/data-first-strategies-medtech-pharma-hcp-engagement
"Driving HCP Engagement with Tailored Medical Education." Pharma Integrity, May 30, 2025. https://pharmaintegrity.com/medicaleducation/
"HCP Engagement Solutions: Pharmaceutical eLearning." PharMethod, August 25, 2025. https://pharmethod.com/pharmaceutical-hcp-engagement/pharmaceutical-hcp-resource-software-training/
"HCP Engagement: What It Is & How to Build a Digital Strategy." Livestorm, October 20, 2025. https://livestorm.co/blog/hcp-engagement
"Medical Affairs Engagement in a Digital Landscape." Medical Affairs Specialist, December 22, 2024. https://medicalaffairsspecialist.org/blog/medical-affairs-engagement-in-a-digital-landscape
"Reaching Healthcare Professionals in 2025: What Hospital Marketers Need to Know." IQVIA, September 8, 2025. https://www.iqvia.com/locations/united-states/blogs/2025/09/reaching-healthcare-professionals-in-2025
"A Simple Approach to Digital Engagement in MedTech." IQVIA, 2024. https://www.iqvia.com/-/media/iqvia/pdfs/us/article/iqvia-medtech-digital-engagement-article-2024.pdf
"Top HCP Engagement Solutions: Comprehensive Overview." Onomi, January 14, 2025. https://onomi.io/blog/hcp-engagement-solutions/
"Guide to Digital HCP Engagement." Veeva Systems, 2019. https://www.veeva.com/eu/wp-content/uploads/2019/04/Guide-to-Digital-HCP-Engagement.pdf
"Medical Science Liaisons." IQVIA, 2024. https://www.iqvia.com/-/media/library/white-papers/medical-science-liaisons.pdf
"III. Physician Relationships With Vendors." Office of Inspector General, August 31, 2021. https://oig.hhs.gov/compliance/physician-education/iii-physician-relationships-with-vendors/
"The New Rules of Engagement: How to Reshape Pharma Marketing in 2025." Raconteur, July 1, 2025. https://www.raconteur.net/insights/the-new-rules-of-engagement-how-to-reshape-pharma-marketing-in-2025
Sinsky, Christine A., et al. "Allocation of Physician Time in Ambulatory Practice: A Time and Motion Study in 4 Specialties." Annals of Internal Medicine, vol. 165, no. 11, September 6, 2016, pp. 753-760. https://adfm.org/media/1476/ann-2016-time-study.pdf
"Doctors Spend 27% of the Workday with Patients, Study Finds." Advisory Board, September 7, 2016. https://www.advisory.com/daily-briefing/2016/09/08/documentation-time
Toscano, Fabrizio, et al. "How Physicians Spend Their Work Time: An Ecological Momentary Assessment." Journal of General Internal Medicine, vol. 35, no. 11, August 16, 2020, pp. 3166-3172. https://pmc.ncbi.nlm.nih.gov/articles/PMC7661623/
"Physicians' Greatest Use for AI? Cutting Administrative Burdens." American Medical Association, March 18, 2025. https://www.ama-assn.org/practice-management/digital-health/physicians-greatest-use-ai-cutting-administrative-burdens
"Association Between Physician Burnout and Patient Safety, Professionalism, and Patient Satisfaction." JAMA Network, September 30, 2018. https://jamanetwork.com/journals/jamainternalmedicine/fullarticle/2698144
"Association Between Physician Burnout and Patient Safety, Professionalism, and Patient Satisfaction: A Systematic Review and Meta-analysis." NIH National Library of Medicine, September 3, 2018. https://pmc.ncbi.nlm.nih.gov/articles/PMC6233757/
"Medical Errors May Stem More from Physician Burnout Than Unsafe Workplaces." Stanford Medicine, July 8, 2018. https://med.stanford.edu/news/all-news/2018/07/medical-errors-may-stem-more-from-physician-burnout.html
"Unburdening Patients and Clinicians Through Automation and Artificial Intelligence." NIH National Library of Medicine, October 6, 2025. https://pmc.ncbi.nlm.nih.gov/articles/PMC12504360/
"Incorporating Technology Adoption in Medical Education." NIH National Library of Medicine, July 1, 2024. https://pmc.ncbi.nlm.nih.gov/articles/PMC11227328/
"EHR Burden Impact: 5 Years Physician Engagement Study." JMIR Human Factors, May 8, 2025. https://humanfactors.jmir.org/2025/1/e65656/
"Improve Healthcare Efficiency with Clinical Workflow Optimization." Binariks, July 15, 2025. https://binariks.com/blog/clinical-workflow-automation-optimization/
"Clinical Workflow Solutions to Decrease Physician Burnout." Evidence Care, December 29, 2024. https://evidence.care/clinical-workflow-solutions/
"Analysis: AI Scribes Save Physicians Time, Improve Patient Interactions." The Permanente Journal, June 8, 2025. https://permanente.org/analysis-ai-scribes-save-physicians-time-improve-patient-interactions-and-work-satisfaction/
"2 in 3 Physicians Are Using Health AI, Up 78% from 2023." American Medical Association, February 25, 2025. https://www.ama-assn.org/practice-management/digital-health/2-3-physicians-are-using-health-ai-78-2023
"Trust Transfer from Medical AI to Doctors and Hospitals." NIH National Library of Medicine, October 16, 2025. https://pmc.ncbi.nlm.nih.gov/articles/PMC12535035/
"AI Adoption in Health Care: Barriers and Facilitators." JMIR Human Factors, August 28, 2024. https://humanfactors.jmir.org/2024/1/e48633
"Cleveland Clinic Announces the Expanded Rollout of Bayesian Health's AI Platform for Sepsis Detection." Memorial Care Innovation Fund, October 31, 2025. https://memorialcareinnovationfund.com/cleveland-clinic-announces-the-expanded-rollout-of-bayesian-healths-ai-platform-for-sepsis-detection/
"Sepsis-Detection AI Has the Potential to Prevent Thousands of Deaths." Johns Hopkins Hub, July 20, 2022. https://hub.jhu.edu/2022/07/21/artificial-intelligence-sepsis-detection/
"Using Artificial Intelligence to Spot Hospitals' Silent Killer." NOVA PBS, October 10, 2017. https://www.pbs.org/wgbh/nova/article/ai-sepsis-detection/
"What It Takes for Doctors to Trust AI-Triggered Sepsis Alerts." American Medical Association, September 25, 2022. https://www.ama-assn.org/practice-management/digital-health/what-it-takes-doctors-trust-ai-triggered-sepsis-alerts
"Medical Education in the Era of Advancing Technology." NIH National Library of Medicine, October 19, 2023. https://pmc.ncbi.nlm.nih.gov/articles/PMC10613744/
"Revolutionizing Medical Training with Technology." Infuse Med, June 25, 2025. https://infusemed.com/revolutionizing-medical-training-with-advanced-technology/
"A Practical Guide to Optimize Clinical Workflows in Your Practice." Curogram, September 7, 2025. https://curogram.com/blog/clinical-workflow-optimization-for-private-practices
"Use of Ambient AI Scribes to Reduce Administrative Burden and Burnout." JAMA Network, October 1, 2025. https://jamanetwork.com/journals/jamanetworkopen/fullarticle/2839542

