Caylent Catalysts™
Generative AI Strategy
Accelerate your generative AI initiatives with ideation sessions for use case prioritization, foundation model selection, and an assessment of your data landscape and organizational readiness.
Can Generative AI solve some of healthcare’s toughest challenges? Here’s what might be in store in the near future - and how to get started today.
Healthcare application developers, data scientists, and clinical innovators have spent years applying artificial intelligence (AI) to some of the industry’s most pressing challenges. From improving diagnostic accuracy to optimizing hospital operations, traditional AI and machine learning (ML) have laid a strong foundation for using data to drive better outcomes. But we’re now at an inflection point.
With the emergence of generative AI (GenAI), healthcare is set to unlock entirely new possibilities, ones that go beyond prediction and pattern recognition into creativity, simulation, and real-time decision support. In this article, we explore what traditional AI has already accomplished in healthcare, how GenAI differs in approach and potential, and what kinds of next-generation solutions it’s enabling across care delivery, research, and operations.
Artificial intelligence and machine learning have already made significant strides in healthcare. Traditional AI models, such as those focused on classification, forecasting, and recommendations, have proven valuable for everything from clinical decision support to resource optimization. These systems are typically trained on structured datasets and deployed to analyze input signals and provide accurate predictions or classifications, helping healthcare organizations make faster, more informed decisions.
Across the healthcare spectrum, these tools are actively improving care quality, streamlining workflows, and reducing costs, all foundational capabilities that GenAI is now building upon.
AI has enhanced diagnostic accuracy by helping clinicians detect disease earlier and with greater precision. One well-cited success story is the improvement in breast cancer detection. Deep learning algorithms have outperformed radiologists in identifying malignancies in mammograms, improving detection rates by 20% while reducing false positives and unnecessary follow-up testing.
Beyond imaging, AI models can predict readmission risks, identify patients at risk of hospital-acquired infections, and monitor post-treatment recovery through wearable data. Platforms like Kaiser Permanente’s Advanced Alert Monitor (AAM) exemplify the potential of predictive analytics. The tool can foresee patient deterioration up to 12 hours in advance, reducing high-risk readmissions by 10% and saving hundreds of lives annually.
Traditional AI is also highly effective in streamlining operations. A prime example is the GE-Johns Hopkins project, which improved hospital bed assignments by 30% and cut transfer delays by 70%. These types of solutions are critical as healthcare systems face staffing shortages and rising patient volumes.
AI-powered automation is also making its way into back-office tasks. Natural Language Processing (NLP) models are used to pre-populate medical documentation, helping clinicians reduce time spent on administrative work. Meanwhile, computer vision systems can monitor medication preparation and detect critical errors, such as vial mix-ups, with near-perfect accuracy.
AI contributes to healthcare cost control by making treatment more targeted and efficient. Personalized medicine powered by AI can evaluate a patient’s molecular profile to predict how they might respond to specific therapies. This helps avoid ineffective treatments and minimizes adverse drug reactions.
In preventive care, AI is expanding access to early screenings. For instance, AI-powered retinal scans for diabetic retinopathy can be conducted outside of specialist clinics, increasing accessibility and lowering the risk of vision loss. By reducing overtreatment, hospitalizations, and unnecessary tests, AI is directly improving health outcomes and reducing spend.
While traditional AI is adept at making sense of existing data, generative AI introduces a new dimension. Rather than simply recognizing patterns, GenAI can generate new text, images, and even biological sequences based on what it has learned. This capability opens doors to applications previously considered out of reach.
GenAI models are trained differently than their traditional counterparts, typically through self-supervised learning on massive datasets. These large language models (LLMs), also known as foundational models, can then be tailored for specific healthcare scenarios using techniques like Retrieval-Augmented Generation (RAG).
Already, GenAI is being used to support chatbot interfaces, generate documentation, simulate clinical scenarios with synthetic data, and even model protein structures. Its flexibility and creative potential make it an ideal tool for healthcare’s most complex challenges, especially when paired with strong clinical validation and human oversight.
There are numerous use cases for GenAI in healthcare, and more are emerging as foundational models continue to evolve.
Healthcare providers today face increasing pressure to care for more patients with fewer resources. Generative AI offers a powerful solution in the form of virtual physician assistants. These tools can help manage the clinical load by handling routine cases and supporting patient monitoring. These assistants can analyze historical patient data, match symptoms with likely diagnoses, and suggest evidence-based treatment options. Additionally, by integrating data from wearable devices and electronic health records, GenAI can help create personalized health plans that adapt over time. This not only improves the continuity of care but also allows for earlier intervention, potentially preventing hospitalizations and enabling more proactive, individualized treatment strategies.
Generative AI is accelerating innovation in pharmaceutical and biomedical research in ways that traditional models simply cannot match. It can create and virtually test new patterns, such as protein folding sequences, at a speed and scale previously impossible. Companies like Nosis Bio are already leveraging GenAI on AWS to generate entirely new classes of molecules tailored to treat localized diseases. GenAI can also simulate how novel compounds or combinations of drugs might perform in the body, offering researchers the ability to test hypotheses and accelerate discovery cycles without immediate reliance on expensive lab work. As a result, GenAI is not only shortening the time to market for new treatments but also expanding the boundaries of what’s possible in drug development.
Beyond diagnostics and research, GenAI is set to revolutionize the day-to-day operations of healthcare systems. It can automate time-consuming administrative tasks like generating patient notes, filling out required forms, and managing appointment logistics, which are critical efficiencies in environments facing staffing shortages. GenAI can also produce comprehensive risk assessments, analyze unstructured data, and summarize complex documents such as vendor contracts, legislative hearings, and compliance requirements. These capabilities streamline internal workflows, reduce clerical burden on staff, and help organizations stay aligned with evolving regulatory demands. By reducing friction across operations, GenAI enables healthcare providers to focus more on delivering high-quality patient care.
Despite its transformative potential, the implementation of GenAI in healthcare presents unique challenges. These models require vast amounts of high-quality data, which can be costly and complex to obtain. More importantly, the sensitivity of patient data demands strict compliance with HIPAA and other privacy regulations. Any data used to train or inform a model must be rigorously anonymized.
Another important consideration is ensuring the reliability of the outputs it generates. GenAI’s tendency to “hallucinate” or produce incorrect outputs can be dangerous in a clinical context. That’s why robust testing, validation, and human oversight are essential for any healthcare GenAI deployment. Solutions like Caylent’s Governed Data Platform™ are designed to accelerate secure adoption by embedding governance and data protection directly into the development lifecycle.
Healthcare organizations must also navigate integration with legacy systems, change management, and regulatory uncertainty. But with the right strategy, partners, and safeguards in place, these challenges can be overcome.
Realizing the value of GenAI in healthcare isn’t just about technology, it’s about transformation. It requires thoughtful experimentation, responsible implementation, and strong cross-functional collaboration. For many healthcare leaders, the question isn’t if GenAI will play a role, but how quickly they can harness it safely and effectively.
Caylent brings deep expertise at the intersection of healthcare and generative AI. Our team helps providers, payers, and life sciences organizations build AI-ready infrastructure, identify the right use cases, and accelerate time to value, without compromising on compliance or quality. Contact us today to see how we can help your organization.
Kimberly Schaefer is a Principal Strategist at Caylent, focused on healthcare and life sciences. Offering a unique blend of hands-on nursing experience and extensive expertise in healthcare technology, Kimberly is skilled in turning complex healthcare challenges into actionable, technology-enabled solutions that drive measurable outcomes. With a deep understanding of both clinical workflows and business imperatives, she specializes in leveraging data and innovation to deliver competitive advantages for healthcare organizations. Kimberly is passionate about advancing the healthcare industry through strategic problem-solving, collaboration, and the application of cutting-edge technologies.
View Kimberly's articlesBrian is an AWS Community Hero, Alexa Champion, runs the Boston AWS User Group, has ten US patents and a bunch of certifications. He's also part of the New Voices mentorship program where Heros teach traditionally underrepresented engineers how to give presentations. He is a private pilot, a rescue scuba diver and got his Masters in Cognitive Psychology working with bottlenosed dolphins.
View Brian's articlesCaylent Catalysts™
Accelerate your generative AI initiatives with ideation sessions for use case prioritization, foundation model selection, and an assessment of your data landscape and organizational readiness.
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