The Israeli Medical Association has published a position paper that sets boundaries for the growing use of artificial intelligence systems in medicine.
Artificial intelligence (AI) is no longer a peripheral concept in healthcare but is actively integrating into various medical environments, including emergency rooms, community clinics, imaging centers, and electronic health records. The Israel Medical Association (IMA), through its Institute for Quality in Medicine and the Israeli Society for Risk Management and Patient Safety in Medicine, has issued a position paper to establish clear guidelines. The paper aims to enable the beneficial use of AI for improved diagnosis and treatment, while preventing the technology from becoming an autonomous decision-maker that overshadows human doctors and their professional judgment. It sets out general principles for integrating AI systems rather than specific patient treatment protocols, emphasizing that AI tools should support, not replace, medical staff's critical thinking.
The proliferation of artificial intelligence in medicine has significantly accelerated, particularly following the widespread public use of generative AI tools. However, AI applications in healthcare predate this recent surge; machine learning systems have long been instrumental in tasks such as interpreting CT and X-ray scans, identifying pathological findings, assessing risks before medical procedures, prioritizing patients, and generating recommendations within computerized medical records. As of May 2024, the US Food and Drug Administration (FDA) has approved 882 medical devices incorporating AI, with radiology constituting the largest share at 76% (671 devices), followed by cardiovascular diseases (10%), neurology (3%), hematology (1.9%), gastroenterology and urology (1.5%), and anesthesia (1%).
The practical implementation of AI is already evident in Israel. Sheba Hospital has deployed the Aidoc system, developed internally, to assist in detecting urgent findings in CT and X-ray scans. This system quickly reviews imaging tests for critical conditions like stroke, cerebral hemorrhage, pulmonary embolism, or aortic dissection, flagging suspicious areas for radiologists and elevating these cases in the queue. This acts as a vital safety layer, especially when radiologists must process thousands of images under time pressure, without replacing human interpretation. Another innovation is the Rounds system, which tackles physician burnout by recording medical visits, transcribing conversations, and automatically generating medical summaries, enabling doctors to focus more on patient interaction and less on administrative typing. Clalit Health Services utilizes AI-PRO (based on the C-Pi platform) to aid family doctors in proactive and personalized medicine, scanning records nightly for at-risk patients (e.g., diabetics needing tests, hypertensives with uncontrolled blood pressure, osteoporosis risks) and surfacing recommendations, though the final decision remains with the physician.
While AI holds immense promise, the IMA position paper also highlights significant risks. One primary concern relates to the technology itself: AI systems generate responses based on their training models and data. If this data is incomplete, biased, or not representative of the diverse patient population, the AI's recommendations may also be flawed or biased. This could lead to incorrect decisions for patients from different age groups, ethnic backgrounds, socioeconomic statuses, or those with complex medical histories not adequately represented in the training datasets. A second critical risk is the potential for a false sense of security. In a demanding medical environment, where doctors face pressure, time constraints, and burnout, the temptation to blindly trust and rely on a quickly generated, seemingly confident AI response can be dangerously high.
Further risks include 'hallucinations' by AI systems, where they produce plausible but factually incorrect answers. In medicine, such errors could lead to inappropriate medication recommendations, misinterpretations of test results, or overlooking critical diagnoses. To mitigate this, the position paper mandates that organizations define precise conditions for AI system use, identify unauthorized applications, designate authorized operators, and specify the required level of human oversight. The legal framework surrounding AI in medicine is also nascent and complex. A crucial question arises: who bears responsibility if a doctor acts on an erroneous AI recommendation? The paper quotes the Chairman of the Ethics Bureau, stating that doctors must disclose to patients when AI has been used to inform their medical advice, underscoring the link between AI's accuracy, ethical transparency, and the fundamental trust between doctor and patient.
The guidelines prescribe a series of rigorous steps before deploying any AI system in a medical setting. First, it must be determined if the AI system is genuinely necessary and whether it significantly improves a medical or administrative process without compromising safety. Next, organizations must verify regulatory or professional medical approval, even for systems not classified as medical devices. A comprehensive risk management process is essential before implementation, involving the identification of potential failure scenarios, the definition of corrective solutions, the development of a detailed implementation plan, the establishment of mechanisms for reporting unusual events, and thorough training for end-users. This training must be practical, covering system operation, alert interpretation, data input, limitations, mandatory expert consultation, and proper documentation of decisions made contrary to AI recommendations. Emphasizing continuous monitoring, the guidelines highlight that AI models evolve, and initial performance does not guarantee long-term efficacy, especially with changes in patient demographics, treatment protocols, or data expansion.
The position paper also explores the flip side of the coin: the risks associated with *not* implementing AI. Systems capable of early detection of medical deterioration, identifying missing treatments, or alerting to life-threatening findings can proactively prevent patient harm. Evidence cited in the document indicates that real-time monitoring systems integrated into computerized medical records have identified over ten times more unusual events in real time and can predict medical deterioration up to 72 hours in advance. This shifts the focus from merely fearing technology to ensuring its responsible and effective management. Furthermore, AI can enhance risk management by analyzing unusual event reports, pinpointing root causes, detecting unsafe treatment patterns, tracking recommendations, redesigning workflows, and integrating patient feedback. However, caution remains vital, as AI might suggest generic solutions without fully grasping the nuances of organizational culture, department-specific challenges, workload, or the true points of failure.
In conclusion, the authors of the position paper firmly state that artificial intelligence should serve as a safety layer within healthcare, rather than functioning as an independent medical authority. AI's capabilities can significantly benefit medical practice by shortening interpretation times, allowing doctors more direct conversation time with patients, reminding them of overlooked tests, identifying risks, alerting to worsening conditions, and generally improving processes. However, to realize these benefits safely and effectively, its integration requires strict adherence to clear boundaries, full transparency, appropriate patient consent, robust information security, comprehensive staff training, meticulous documentation, and continuous human control. The fundamental professional responsibility for listening, examining, deciding, explaining, and ultimately bearing accountability remains squarely with the human doctor.