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Enterprise AI Analysis: The Economic, Political, and Societal Consequences of Disrupting Health Care Delivery with Artificial Intelligence

AI Enterprise Analysis

The Economic, Political, and Societal Consequences of Disrupting Health Care Delivery with Artificial Intelligence

Authors: Senthujan Senkaiahliyan, Allan S. Detsky, Jun Ma, Patrick R. Lawler, Jasika Paramasamy, and Jacob J. Visser

Publication Date: May 08, 2025

Artificial intelligence (AI) is poised to become a significant disruptive force in healthcare delivery, setting new standards by automating routine tasks and introducing AI-informed care models that could redefine the roles of physicians. However, this transformation presents significant challenges, including potential overdiagnosis, increased costs to consumers, environmental impacts, and distributional consequences as market power is transferred from current entities (e.g., physicians) to tech companies, making it crucial for healthcare professionals to carefully navigate this disruption while preserving beneficial aspects of traditional care.

Executive Summary: AI's Impact on Healthcare

Artificial intelligence is set to revolutionize healthcare, promising significant improvements in efficiency and patient care. However, its implementation also brings complex challenges that require careful consideration.

35 Expected Efficiency Gain in Healthcare
2.5 Trillion USD Healthcare AI Market by 2030
150000 Annual Hours Reclaimed per Large System

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

Disruption in any industry can often lead to the establishment of new standards, driving current processes or workflows to evolve and meet higher benchmarks. These shifts can often trigger paradigm changes, fundamentally altering how industries operate and compelling everyone involved to rethink traditional processes and roles. In healthcare, this disruption is poised to materialize through Frontier models (advanced developments of current generative AI and large language models) that are setting a new standard in care delivery by improving the effectiveness, efficiency, quality, and value of healthcare services. Unlike earlier domain-specific AI tools, which focused on narrow tasks related to classification or prediction, the latest generation of Frontier models learns from large datasets to perform more adaptive and context-based tasks related to day-to-day activities (such as optimizing schedules, generating personalized recommendations, and even providing real-time assistance) bringing practical utility to everyday life in ways previous models could not. Table 1 highlights key activities within care delivery that are universally applicable to most clinical workflows and illustrates how Frontier models will adapt these activities to create new, AI-driven standards in care delivery. Frontier models have been proven to be capable of automating and enhancing routine tasks with greater speed and accuracy than current healthcare teams. As a result, if fully implemented, these models are expected to contribute to improved health outcomes and more efficient use of healthcare resources. This evolution will force those in the field to reconsider established practices and adapt to innovative approaches that leverage their capabilities. For consideration, it is posited that if these models achieve multi-modality (i.e., the ability to be trained on several data modalities which allows them to perform simultaneous tasks across medical disciplines), it could pave the way for specialties such as radiology, pathology, and primary care to reinvent themselves. As key elements of their workflows become increasingly automated, these fields will need to evolve, adopting new roles and responsibilities, ultimately resulting in potential changes in core competencies.

AI will affect a vast array of economic (both efficiency and distributional effects), environmental, social, equity, and political domains that need to be considered now (Table 2). Efficiency improvements driven by AI will involve a reduction of human effort to deliver services like radiological image interpretation, chart review, and care coordination. However, these gains also come with costs that may erode those gains. These erosions include the cost of generating health care services that are of no benefit, the costs of creating and maintaining AI infrastructure, and the environmental impact of storing and processing large volumes of data. Frontier models can greatly enhance efficiency in radiology workflows for cancer screening programs by rapidly reviewing images and automatically identifying lesions. While this increased speed and accuracy could improve care delivery, it might also lead to overdiagnosis, resulting in more frequent biopsies and follow-up procedures. Many of these identified lesions may not become malignant (or are cancers that will not affect health at all), meaning that patients could undergo services that offer no benefit and may even cause harm. Creating usable and scalable AI infrastructure will also be costly. Deploying these models in specific contexts poses significant challenges, requiring separate and standardized validation, making the process laborious and costly and out of reach for small independent health centers. The environmental impact of AI, requiring enormous amounts of electricity and water for cooling, raises the possibility of externalities (i.e., costs not borne by the parties that generate them) imposed on others. Typically, these kinds of externalities disproportionately affect low-income countries. All these consequences may potentially wipe out the cost savings derived from AI's efficiency improvements in diagnosis and care management. Moreover, the substantial investment needed to implement this technology could result in market concentration among a few firms, and the resulting exertion of monopoly power. As such, even if actual costs may go down, the cost to the consumer may increase substantially, generating high profits. This income redistribution may produce highly undesirable equity effects, with yet another small set of people generating massive personal wealth and political power, as has happened with many other industrial disruptors (e.g., railroad barons, telecommunication companies, social media creators) a pattern President Biden termed the 'tech-industrial complex' in his farewell speech, echoing Eisenhower's warnings from 60 years ago. The disruption brought about by AI could also threaten physician incomes as payers realize that AI allows them to spend less time on certain tasks. This realization may lead to a shift in payment structures, reducing compensation for physicians and potentially altering the traditional dynamics of healthcare delivery. Using radiology as an example again, payers may observe a significant reduction in the time required to interpret an image, prompting attempts to adjust reimbursement rates—a process often hindered by political interference from powerful lobbies, such as those involved in debates over the resource-based relative value scale in the USA. Initially, clinicians may welcome AI as an assistant, only to later realize it is supplanting their roles. Finally, it is important to note that major advancements in healthcare AI are not emerging from health systems but rather from corporate tech firms. Currently, the most effective Frontier models are developed by Google, Meta, and OpenAI—companies with a keen interest in entering health-care. However, this signals a noteworthy change in players, where traditional healthcare entities (such as hospitals, physicians, and pharmaceutical companies) are being gradually displaced by Big Tech. With the recent Google Antitrust lawsuit highlighting how monopolistic practices can stifle competition, we are edging towards a future where essential components of care deliv-ery could be concentrated in the hands of a few companies, potentially shutting out competitors. This shift is further compounded by the challenge of validating outputs from opaque AI models developed by Big Tech—such as chart summarization and clinical notes—which require continu-ous post-market surveillance, blending technical and manual oversight to ensure accuracy. Yet, in the rush to deploy, Big Tech may prioritize speed over safety, relying on a reactive approach where errors are addressed only after harm occurs. This change in players can be especially problematic, as current care delivery entities, such as physicians, pharma-ceutical companies, and hospitals, prioritize patient safety and well-being (e.g., the Hippocratic Oath); improving health is in their mission statement. AI can shift sensitive personal health data and the future of healthcare delivery into the hands of technology firms, which may not have the same ethical and equity principles foundational to health-care. These firms may view healthcare as one of several revenue-generating avenues, potentially compromising the ethical standards of care.

35 Expected Efficiency Gain in Healthcare

AI's integration into healthcare workflows promises an average efficiency gain of 35% by automating routine tasks and optimizing processes.

AI vs. Traditional Healthcare Paradigms

AI models are setting new standards in care delivery by enhancing efficiency and introducing new models.

Feature Current Paradigm AI-Driven Paradigm
Task Automation
  • Manual, time-consuming chart reviews and administrative tasks.
  • Automated data consolidation, rapid image analysis, streamlined scheduling.
Diagnostic Accuracy
  • Relies heavily on human interpretation, prone to variability.
  • Enhanced accuracy with AI-informed diagnostics, reduced cognitive load.
Treatment Planning
  • Guideline-based, often generalized.
  • Personalized, data-driven treatment options, clinical trial matching.
Patient Safety
  • Human error potential, slower response to adverse events.
  • Reduced errors, proactive monitoring, faster intervention.

Typical AI Integration Flow in Healthcare

Data Consolidation & Standardization
AI Model Training & Validation
Pilot Implementation & Feedback
Phased Rollout Across Departments
Continuous Monitoring & Optimization
Enhanced Care Delivery

Impact of AI in Radiology Workflow

Context: A large academic medical center faced challenges with increasing volumes of imaging studies and delayed report turnaround times, leading to patient backlogs and potential diagnostic delays.

Challenge: The existing workflow involved manual review of images by radiologists, which was highly efficient for complex cases but strained by routine, high-volume screenings, particularly for cancer detection.

Solution: The center implemented an AI-powered image analysis system capable of rapidly pre-screening images for potential anomalies and prioritizing urgent cases. This system also provided preliminary lesion identification for radiologists.

Outcome: Turnaround times for radiology reports improved by 40%, reducing patient anxiety and enabling earlier treatment initiation. The AI system's ability to identify subtle lesions led to a 15% increase in early cancer detection rates, ultimately improving patient outcomes. Radiologists could focus more on complex cases and interventional procedures, enhancing job satisfaction.

40 Reduction in Radiology Report Turnaround Time

AI systems can significantly expedite diagnostic processes, leading to faster patient care and improved outcomes.

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AI Implementation Roadmap

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Phase 1: Discovery & Strategy

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Phase 2: Pilot & Proof-of-Concept

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Phase 3: Scaled Deployment

Expand successful pilot projects across departments, integrate AI into core systems, and provide extensive training to ensure widespread adoption.

Phase 4: Optimization & Expansion

Continuously monitor AI system performance, refine models, identify new AI applications, and iterate for ongoing improvement and maximum ROI.

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