Security tasks are frequently performed by non-security professionals within resource-strapped teams, and there is not always a strong culture of security awareness. Patients' records can often be accessed by staff with no connection to their care, highlighting the gap between technical controls and security-minded behaviour. In a fitting example of this expertise gap, one UK hospital's disaster recovery test went catastrophically wrong when planners forgot to ensure normal operations could actually continue during the exercise, bringing down key operational systems in the process.
The funding constraints facing healthcare organisations compound these challenges. With tight budgets, money spent on information security is not being spent on patient care or medical innovation, a difficult trade-off that leaves vulnerabilities unaddressed.
Recognising this gap, many life sciences organisations have established security standards that healthcare organisations must meet to collaborate and partner with them. It is an acknowledgement that, in a sector as interconnected as life sciences, security is only as strong as the weakest link in the supply chain. The adoption of standards like ISO 27001 has become table stakes for data sharing partnerships, whilst investment in security, segmentation and threat intelligence is increasingly seen not as overhead but as essential infrastructure for a sector where innovation is everything.
AI: accelerating innovation and expanding the attack surface
Perhaps nowhere is the tension between innovation and security more apparent than in the sector's embrace of AI Life sciences organisations are more welcoming of AI than many other industries, and with good reason. As early as 2024, an estimated 95% of pharmaceutical companies were investing in AI, with spending projected to grow by 600% by 2030. It is not just the investment that is staggering, the potential impact is too, such as 80% timeline reductions in clinical trials. In fact, life sciences has been leveraging AI for years, even before consumers knew such technology existed.
Now, the technology is being deployed across the entire value chain: drug discovery, patient eligibility screening, diagnostic tools and even coaching pharmaceutical representatives. AI enables the biology-dependent pre-work that determines whether experimental treatments might work for specific patients, work that would be impossibly time-consuming without advanced computational assistance.
Yet this rapid adoption creates new vulnerabilities. Each AI system introduces an additional attack surface and threats like model poisoning or inversion attacks could theoretically compromise drug development pipelines or diagnostic tools. While, regulations offer some guardrails, the rate of adoption often outpaces the rate at which security protocols are being enhanced to address the increasing associated risks, particularly in non-patient facing applications.
Healthcare organisations, by contrast, show more hesitation around AI implementation, particularly given GDPR and data privacy concerns. Although organisations remain cautious, this does not dispel its growth, with 42% of life sciences executives reporting that AI is their top priority for digital transformation in 2026. Still, when AI is being tested in clinical settings, it is primarily to alleviate administrative pressures rather than for direct medical decision-making, a reflection of ongoing questions about the ethics of AI-driven care decisions.
Cyber maturity as a competitive advantage
The most mature life sciences organisations are reframing cyber security from a compliance burden or innovation blocker into a competitive advantage. This starts internally with implementing security by design principles, including close collaboration with scientists and business units. In an industry that more often than not takes a zero-trust approach, security teams must aim to maintain cyber postures without creating undue friction for innovators.