How can leaders in the industry push innovation forward within their organizations and differentiate themselves for greater success? The first step includes asking: What’s going on with respect to decision-making in larger companies in healthcare and life sciences, and why? A comprehension of the dynamics at play unlocks the strategies for mitigating ingrained tendencies and achieving differentiated performance.
Understanding cognitive biases isn't just academic curiosity, it's strategic necessity. In an industry where 57% of new drug approvals now originate from small companies despite Big Pharma's $161 billion annual R&D investment, the difference between innovation success and stagnation increasingly lies in how leaders make decisions about technology and risk. This reveals a critical paradox: while innovation determines competitive advantage and patient outcomes, the psychological biases governing executive decisions often work against breakthrough adoption.[1][2]
Understanding Prospect Theory in executive context
Developed by Nobel Prize winner Daniel Kahneman and Amos Tversky in 1979, prospect theory fundamentally changed our understanding of human decision-making under risk. Unlike traditional economic models that assume rational actors, prospect theory describes how people actually behave when facing uncertain outcomes, revealing systematic biases that influence even the most experienced executives.[3][4]
The certainty effect: When guaranteed outcomes overshadow better possibilities
The certainty effect explains why executives consistently overweight outcomes that are certain compared to those that are merely probable. In life sciences, this manifests when leaders favor incremental improvements to existing technologies over potentially transformative but uncertain innovations. A pharmaceutical executive might choose a 100% certain 10% efficiency gain in current manufacturing processes over a 70% probable 50% breakthrough in AI-driven drug discovery, even when the expected value clearly favors the latter.[5][3]
This bias becomes particularly pronounced in regulated industries like pharmaceuticals, where decades of compliance culture have ingrained preferences for predictable, documentable outcomes. The certainty effect helps explain why established companies often acquire innovative technologies from startups rather than developing them internally. They are purchasing certainty after others have absorbed the uncertainty.[6]
Loss aversion: The 2-to-1 psychological reality
Perhaps the most powerful component of prospect theory is loss aversion, the well-documented finding that losses feel approximately twice as painful as equivalent gains feel pleasurable. Research consistently shows this 2:1 ratio across cultures and contexts, meaning executives will fight harder to avoid losing $1 million than they'll work to gain $1 million.[4][7][8][3]
In pharmaceutical decision-making, loss aversion manifests in multiple ways. Executives overweight the potential loss of existing market share, technology investments, or relationships with regulatory bodies. When evaluating AI adoption, a pharmaceutical leader might focus intensely on the risk of implementation failure while undervaluing the competitive advantage of success, even when objective analysis favors moving forward.[9]
Neuroscience research reveals that losses activate the amygdala, the brain's threat detection center, more strongly than gains activate reward centers. Thus, when executives evaluate innovation investments, their brains are literally wired to give disproportionate attention to potential downsides.[8]
The small company advantage: Agility through different risk perception
The statistics tell a compelling story about innovation agility. While large pharmaceutical companies spent a record $161 billion on R&D in 2023, 57% of new drug approvals have originated from small companies, with 77% of biotech firms employing fewer than 50 people. This disparity is more about decision-making approaches to risk than it is about resource levels.[2][10][1]
Built for risk-taking: The startup psychology
Biotech startups operate within a completely different psychological framework regarding risk. Unlike established pharmaceutical companies, startups have little to lose and everything to gain. This creates what behavioral economists call "reference point adjustment," where the psychological baseline for loss aversion shifts dramatically.[11][12][1]
When a startup CEO bets the company on a novel AI platform, failure simply returns them to seeking funding for their next venture. For the pharmaceutical executive, however, the stakes involve jobs, shareholder value, and reputation.[13]
Research shows that 34% of startups reach advanced stages of AI adoption compared to just 14% of large enterprises, precisely because their risk tolerance allows for bolder experimentation. Startups can embrace "fail fast, fail often" mentalities because failure is seen as learning, not loss.[14][11]
Faster decision cycles: Reducing bias accumulation
The speed of decision-making is a competitive advantage for smaller companies. With fewer layers of approval, they can move from concept to commitment in days rather than months. This speed prevents the psychological biases that plague extended decision processes. Lengthy committee reviews at big pharma multiply opportunities for loss aversion and certainty effects to compound. Every stakeholder adds risk concerns, each review introduces caution, and the collaborative process magnifies barriers to innovation.[15][16][17]
The large corporation challenge: When certainty effect meets innovation
Large life science companies face both psychological and structural barriers to innovation. Years of success in regulated environments have fostered cultures that excel at risk management, yet struggle with uncertain opportunities.[17][6]
Risk management culture: the double-edged sword
Pharma and biotech's focus on compliance leads to risk management systems prioritizing known, quantifiable risks over transformative opportunities. These systems, structured for certainty, bias decisions against unproven innovations. When considering AI-based tools or technologies, for example, these companies seek certainty levels that emerging technologies cannot provide, systematically tilting decisions away from adopting breakthrough solutions.[18][17]
Status quo bias becomes stronger in larger organizations. Every additional stakeholder increases resistance to change, creating institutional momentum toward maintaining current technologies and investments.[19]
Stakeholder complexity: multiplying psychological barriers
Public pharmaceutical companies face pressure from shareholders, regulators, patients, and providers, each affecting risk tolerance and expectations. This complexity multiplies psychological barriers because executives must satisfy different constituencies with opposing risk attitudes.[20][17]
Loss aversion intensifies when executives consider potential stakeholder reactions. A CEO may recognize AI's value, yet focus on shareholder or regulatory risk perception. This "reflected loss aversion" means perceived external risks can trump the merits of innovation.[17]
Behavioral economics in healthcare technology adoption
Life sciences offer a clear view into how psychological biases shape technology adoption. Recent research reveals decision patterns in pharmaceutical and biotech companies.[21]
Temporal discounting: the innovation time trap
Healthcare executives frequently fall prey to temporal discounting, preferring immediate, certain benefits over larger, long-term gains. This is problematic for tech investments, which often require upfront costs with delayed returns. Executives systematically favor short-term gains such as process improvements over longer-term but larger benefits from breakthrough innovation.[21]
Choice overload: paralysis in the face of options
The growing universe of healthcare technology creates choice overload, frequently leading to indecision or conservative choices. Facing hundreds of AI platforms and analytics tools, executives often default to familiar options or simply postpone decisions.[21]
Despite an industry focus on innovation, many executives rely on social proof, waiting for competitors to adopt or regulators to bless technology before making a move. This paradox means every company wants to be innovative, but few want to be first, clustering around "safe" decisions.[9]
AI adoption as a case study
AI adoption in pharma perfectly illustrates how cognitive biases can override rational analysis. Despite 62% of life sciences professionals believing AI will accelerate R&D , actual implementation is slow. This disconnect exemplifies the impact of bias.[22][23]
Loss aversion leads executives to focus on risks: algorithmic bias (38% cite it), poor data, regulatory uncertainty, and costs. Although valid, these are often overweighted relative to potential benefits. The skills gap also reflects loss aversion. Companies hesitate to train or hire, focusing on the cost rather than potential competitive advantage.[23]
Strategies for bias-aware innovation leadership
Recognizing biases is just the first step toward sound innovation decisions. Leaders need frameworks and strategies.[24][25]
Recognizing decision-making patterns
Self-awareness is the foundation. Leaders can use structured self-assessment to identify personal bias tendencies, such as how much time is spent evaluating risks versus opportunities. Metacognition, examining your own thinking, leads to better innovation choices.[24]
Building diverse decision-making teams is one of the most effective ways to counter individual biases. Including external perspectives and independent consultants who challenge internal assumptions and offer objective analysis helps avoid groupthink. Companies bringing in advisors to identify blind spots consistently make bolder and more successful innovation investments.[25]
Practical frameworks for better decisions
Structured evaluation that considers both rational and emotional factors delivers more balanced technology decisions. Beyond classic ROI, pharmaceutical leaders should use frameworks that rate quantitative metrics and qualitative factors like competitive positioning and talent advantages.[25][9]
Pilot programs reduce perceived risk for major innovations. By launching small-scale tests, executives generate evidence and confidence for larger investments.[13]
Future self decision-making is a powerful behavioral approach. Research shows people are less loss-averse when planning for their future selves; explicitly considering long-term needs such as "what would my successor wish I had done?" reveals innovation opportunities overlooked by immediate decision-making.[26]
Bridging the innovation gap: Learning from the startup model
Large pharma can borrow lessons from startup psychology to improve decision-making.[11][13]
What large companies can learn from startups
Innovation islands, units given autonomy and higher risk tolerance, let large companies retain entrepreneurial thinking while leveraging scale.
Distinct budgets and criteria for disruptive versus incremental innovation support breakthrough success.
Fostering a culture of intelligent failure ensures executives are rewarded for learning and insight, not just outcomes.[27][11][13]
The future of decision-making in life sciences
The companies that master bias-aware decision-making will be industry leaders.[24]
Emerging trends
Behavioral economics training is increasingly seen as essential for innovation leadership. Board diversity and external advisors challenge groupthink and push management toward bold moves.[24]
Call to action for executives
Psychological biases systematically influence innovation decisions, disadvantaging large companies relative to agile startups. These are manageable with awareness and deliberate practice. Life sciences executives should conduct bias audits, use structured frameworks, and build diverse advisory networks.
Self-aware, psychologically informed leadership is both a strategic imperative and a moral obligation. In a field where innovation drives patient outcomes and competitive survival, mastering both the science of decision-making and drug discovery will define future leaders.
References
Cognidox. (2024, June 25). How biotech startups beat big pharma at drug development. Available at: https://www.cognidox.com/blog/biotech-startup-companies-how-to-take-on-pharma-giants-and-win
IQVIA Institute. (2025, March 25). Global trends in R&D 2025. Available at: https://www.iqvia.com/insights/the-iqvia-institute/reports-and-publications/reports/global-trends-in-r-and-d-2025
Kahneman, D. and Tversky, A. (1979). Prospect theory: an analysis of decision under risk. MIT. Available at: https://web.mit.edu/curhan/www/docs/Articles/15341_Readings/Behavioral_Decision_Theory/Kahneman_Tversky_1979_Prospect_theory.pdf
Wikipedia. (2003, March 15). Prospect theory. Available at: https://en.wikipedia.org/wiki/Prospect_theory
PMC. (2018, August 28). Behavioral economics interventions in clinical decision support systems. Available at: https://pmc.ncbi.nlm.nih.gov/articles/PMC6115210/
Queensland University of Technology. (2022, November 9). Bias and resistance in adoption of biomedical innovation. Available at: https://research.qut.edu.au/best/bias-and-resistance-in-adoption-of-biomedical-innovation/
Flevy. (2024, December 31). How can cognitive biases influence the adoption of emerging technologies in organizations? Available at: https://flevy.com/topic/cognitive-bias/question/influence-cognitive-biases-technology-adoption-organizations
Columbia University Mailman School of Public Health. (2022, October 2). Global study confirms influential theory behind loss aversion. Available at: https://www.publichealth.columbia.edu/news/global-study-confirms-influential-theory-behind-loss-aversion
BMJ Open. (2024). Mapping cognitive biases in multidisciplinary team (MDT) decision making. Available at: https://bmjopen.bmj.com/content/14/8/e086775.full
Patent PC. (2025, July 25). Big pharma vs. biotech startups: who's leading the next drug innovation wave? Available at: https://patentpc.com/blog/big-pharma-vs-biotech-startups-whos-leading-the-next-drug-innovation-wave-market-trends
LinkedIn. (2025, February 20). Challenges and advantages: biotech startups vs. established pharmaceutical companies. Available at: https://www.linkedin.com/pulse/challenges-advantages-biotech-startups-vs-established-laura-alina-vipoc
Open University. Making decisions: 6.4 prospect theory. Available at: https://www.open.edu/openlearn/money-business/leadership-management/making-decisions/content-section-6.4
Lusidea. Innovation management in large corporations vs startups. Available at: https://www.lusidea.com/blog/innovation-management-in-large-corporations-vs-startups
Workplace Journal. (2025, April 29). UK leads in AI adoption, but faces growing divide between startups and large enterprises. Available at: https://workplacejournal.co.uk/2025/04/uk-leads-in-ai-adoption-but-faces-growing-divide-between-startups-and-large-enterprises-amazon/
Within3. (2024, October 15). Big vs small pharmaceutical companies driving innovation. Available at: https://within3.com/blog/big-vs-small-pharmaceutical-companies
Vision Achievement. (2025, March 31). Can bureaucracy and innovation coexist in industry? Available at: https://visionachievement.uk/innovation-and-bureaucracy/
Strategy&. (2017, January 9). A critical makeover for pharmaceutical companies: overcoming structural and cultural barriers to innovation. Available at: https://www.strategyand.pwc.com/gx/en/insights/2017/critical-makeover-pharmaceutical-companies.html
Hyper Recruitment Solutions. (2025, June 25). What big pharma can learn from biotech startups about talent acquisition. Available at: https://www.hyperec.com/blog/what-big-pharma-can-learn-from-biotech-startups-about-talent-acquisition/
PMC. (2019, August 1). The impact of marketing strategies in healthcare systems. Available at: https://pmc.ncbi.nlm.nih.gov/articles/PMC6685306/
National Academies Press. (2021, February 23). Barriers to innovations in pharmaceutical manufacturing. Available at: https://www.ncbi.nlm.nih.gov/books/NBK570315/
The Economist Intelligence Unit. (2019, May). The future of drug development part II: barriers, enablers and calls for change. Available at: https://druginnovation.eiu.com/wp-content/uploads/2019/05/Parexel-Quantitative-report-part-2_Final-1.pdf
Lab Manager. (2021, March 18). 62 percent of life science professionals say AI will lead to faster R&D. Available at: https://www.labmanager.com/62-percent-of-life-science-professionals-say-ai-will-lead-to-faster-rd-25458
Pistoia Alliance. (2021, March 14). Pistoia Alliance survey finds 62 percent of life science professionals say AI will lead to faster R&D. Available at: https://www.pistoiaalliance.org/ai/survey-finds-ai-will-lead-to-faster-rd/
PMC. (2023, November 26). The impact of cognitive biases, mental models, and mindsets on innovation adoption. Available at: https://pmc.ncbi.nlm.nih.gov/articles/PMC11044509/
BMJ Open. (2024). Mapping cognitive biases in multidisciplinary team (MDT) decision making. Available at: https://bmjopen.bmj.com/content/14/8/e086775.full
PMC. (2017, September 19). Deciding for future selves reduces loss aversion. Available at: https://pmc.ncbi.nlm.nih.gov/articles/PMC5611653/
Digital Transformation. (2023, April 12). Cognitive biases and appropriate confidence in AI-assisted clinical risk decision making. Available at: https://digital-transformation.hee.nhs.uk/building-a-digital-workforce/dart-ed/horizon-scanning/understanding-healthcare-workers-confidence-in-ai/chapter-5-clinical-use/cognitive-biases-and-appropriate-confidence-in-ai-assisted-crdm

Social proof and bandwagon effects: following rather than leading