Innovations in Digital Health From a Global Perspective: Proceedings of PRC-HI 2024

Xiaoru Feng, Yu Sun, You Wu, Haibo Wang, Yang Wu
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These advancements were at the heart of discussions during the recent academic conference co-organized by The First Affiliated Hospital, Sun Yat-sen University (FAH-SYSU) and University of California at Berkeley, the Pacific-Rim Conference on Healthcare Innovation (PRC-HI 2024), convening under the theme “The Future of Medicine: Integrating Robotics, AI and Healthcare.” This article distills the key developments and their implications for the future of healthcare, focusing on innovations in robotic surgery, health data science, and AI for medicine.</p><p>Robotic surgery has become a cornerstone of modern surgical practices, offering enhanced precision, reduced recovery times, and lower complication rates. Dr. Xiaoyu Yin detailed advancements in robot-assisted pancreatic surgeries at FAH-SYSU, emphasizing the hospital's extensive experience with the Da Vinci surgical system. Since 2015, Dr. Yin has performed over 1000 robotic surgeries, including nearly 700 pancreatic resections. These procedures included advanced techniques such as robot-assisted Whipple procedures, organ-preserving pancreatectomies, and total pancreatectomies. His presentation highlighted the learning curves associated with these complex procedures, showcasing research on iterative improvements in surgical outcomes through case refinement and skill enhancement [<span>1, 2</span>].</p><p>Similarly, Dr. Junhang Luo presented a novel “gradual renal segmental artery off-clamping” technique for treating large renal tumors. By utilizing preoperative computed tomography (CT) reconstructions, the technique identifies renal arterial branches, allowing surgeons to precisely minimize ischemia to healthy tissue while ensuring effective tumor removal. Clinical data revealed significantly shorter ischemia times, reduced blood loss, and improved long-term renal function compared to traditional methods.</p><p>Dr. Qingbo Huang shared groundbreaking work on robotic telesurgery, particularly focusing on its applications in regions with limited medical resources. Through successful demonstrations of remote surgeries between Beijing and distant locations such as Sanya, Dr. Huang's research highlighted how low-latency communication networks and advanced robotic systems can overcome geographical barriers [<span>3</span>].</p><p>Dr. Chao Cheng discussed the application of robotic surgery in thoracic procedures, particularly for lung cancer and large thymoma. His presentation highlighted how robotic systems enhance surgical precision and reduce recovery times, with notable success in segmentectomies and thymectomies [<span>4</span>]. The integration of 3D visualization and enhanced dexterity offered by robotic systems has transformed the management of challenging thoracic cases [<span>5, 6</span>].</p><p>Dr. Peter Nyirady presented on the potential of robotic surgery in addressing global surgical disparities. Highlighting the contributions of Semmelweis University, his team demonstrated how robotic systems have enhanced outcomes in urological surgeries. He also discussed future directions, such as semi-autonomous surgical systems, and the importance of training programs to keep pace with these advancements.</p><p>Dr. Chris Fitzpatrick elaborated on the use of AI and data analytics in optimizing robotic surgical practices. Through platforms such as Case Insights, his research highlighted how analyzing surgical video data and performance metrics can identify skill gaps and provide actionable feedback for surgeons [<span>7-10</span>]. This approach has the potential to standardize training and improve surgical outcomes globally.</p><p>Dr. Veronica Ahumada-Newhart introduced the potential of telepresence robots in improving social inclusion for children with mobility impairments. Her studies revealed that these robots enable remote participation in classroom activities, such as attending lessons and engaging in physical education, reducing feelings of isolation and fostering a sense of community [<span>11, 12</span>]. However, technical challenges, such as screen visibility and interaction limitations due to robot design, remain significant for children. As these technologies advance, their applications could extend beyond pediatrics, supporting elderly care and mental health interventions.</p><p>Dr. Martin Loos highlighted the integration of big data analytics into postoperative management strategies for pancreatic surgeries. By leveraging detailed surgical data from Heidelberg, his research team has been able to identify key factors influencing patient outcomes across different types of total pancreatectomy [<span>13</span>].</p><p>Dr. Brad Pollock highlighted data-driven technologies in public health, focusing on applications in health protection, health promotion, and healthcare delivery. Technologies like wastewater monitoring, geospatial analysis, and exposomics improved COVID-19 disease surveillance [<span>14</span>]. For health promotion, approaches such as serious gaming technology increased treatment adherence [<span>15</span>] while newer generative AI and social media analytics will enhance behavioral interventions. Data-driven technology will continue to improve diagnostic screening and optimize health resource allocation.</p><p>Dr. Michael Wang delved into the historical and current trends of digital healthcare, categorizing its evolution into three phases: Digital Medicine 1.0, focused on digitizing healthcare systems; Digital Medicine 2.0, emphasizing data-driven insights; and Digital Medicine 3.0, which integrates advanced AI models for predictive and precision medicine. He also emphasized the ongoing challenges of data security and interoperability.</p><p>Dr. Ruchi Thanawala introduced “Epistomics,” an innovative approach that studies how learning occurs within medical education and practice. She discussed how big data from robotic surgery—such as videos, kinematics, and patient outcome data—combined with an interdisciplinary learning framework, can enhance educational outcomes and promote equity in training.</p><p>In addition, Dr. Frederick P. Ognibene emphasized the importance of effective teamwork and mentorship in advancing digital health research. He believed that clear timelines, role assignments, and open communication are key to ensuring research success. Successful teamwork relies on trust, communication, and shared scientific goals.</p><p>Dr. Haibo Wang provided a comprehensive overview of the development status and challenges of medical AI in China. While acknowledging China's competitive edge in research achievements and international collaborations, he highlighted gaps in patent approvals, technology transfer, and competition in high-end international markets. He also delved into the three core thinking pathways of AI and their critical roles in optimizing diagnostic and treatment processes [<span>16-18</span>], highlighting the shift of medical AI from task-specific to universal health-centered [<span>19</span>]. Additionally, he emphasized major challenges such as data scarcity, model failure risks, and ethical considerations in AI applications [<span>20</span>].</p><p>Dr. Joseph Sung explored the evolving role of physicians in an era increasingly influenced by AI and robotics. He provided examples from gastroenterology, including AI-powered colonoscopy tools that improve detection rates for abnormalities and reduce colorectal cancer mortality [<span>21</span>]. Despite the promise of AI, Dr. Sung emphasized that critical decision-making and patient interaction remain the core responsibilities of clinicians, advocating for AI as an augmentative rather than a replacement tool in healthcare [<span>22</span>].</p><p>Dr. Katherine Kim highlighted the emerging role of digital twin technology in healthcare, focusing on its applications in personalized medicine, disease prediction, and care management [<span>23</span>]. She proposed a healthcare digital twin framework encompassing five key areas: purpose, application levels, multimodal data sources, model types, and methods and technologies.</p><p>Dr. Yang Liu explored iFlytek's AI-driven solutions for primary care in China. Leveraging over 3 billion medical records, iFlytek's Smart Medical Assistant system has revolutionized chronic disease management by supporting patients through the entire care continuum—from pre-hospital health screenings to in-hospital disease adherence and medication adjustments, and post-discharge health monitoring with personalized treatment recommendations.</p><p>Dr. Nicholas Anderson reviewed the evolution of electronic health records, from initial digital transformation to the adoption of deterministic AI, and the emergence of generative AI. Generative AI demonstrates immense potential in handling various data types, automating documentation processes, and generating new data, offering promising prospects for optimizing clinical decision-making and improving workflow efficiency [<span>24, 25</span>].</p><p>Dr. Weizhi Ma presented the concept of “agent hospitals” utilizing generative AI and large language models to create virtual medical systems that drive innovation in medical education and clinical practice. By simulating interactions between patients and doctors, AI doctors engage in self-learning and evolution within the virtual environment, covering 21 specialties and generating hundreds of thousands of virtual cases to support medical education and medical decisions [<span>26</span>].</p><p>Dr. Jingwen Zhang explored how AI is transforming communication in healthcare, highlighting its potential to improve diagnostic accuracy and reduce gender and racial biases [<span>27-29</span>]. However, she also noted the challenges AI faces in building trust with patients and balancing professionalism with empathy, calling for attention to AI's ethics, safety, privacy, and fairness to promote more efficient and equitable health communication and healthcare development [<span>30, 31</span>].</p><p>The conference provided a comprehensive overview of the transformative impact of digital health innovations. From enhancing medical education to addressing disparities in care delivery, the discussions highlighted both the opportunities and challenges of integrating these technologies into practice. The detailed scientific research presented underscores the potential for interdisciplinary collaboration and ethical governance to maximize the benefits of digital health. Readers are encouraged to explore the references provided for deeper insights into these groundbreaking advancements.</p><p><b>Xiaoru Feng:</b> writing–original draft (equal). <b>Sun Yu:</b> resources (equal). <b>You Wu:</b> conceptualization (equal), writing–review and editing (equal). <b>Haibo Wang:</b> conceptualization (equal), resources (equal). <b>Yang Wu:</b> supervision (equal), writing–review and editing (equal).</p><p>The authors have nothing to report.</p><p>The authors have nothing to report.</p><p>Professor Haibo Wang is a member of the <i>Health Care Science</i> Editorial Board. To minimize bias, he was excluded from all editorial decision-making related to the acceptance of this article for publication. The remaining authors declare no conflicts of interest. Yu Sun is the Editorial Office Director of <i>Health Care Science</i> and is not involved in all the editorial decision related to the publication of this article. This article belongs to a special issue (SI)-<i>Implementation, Innovations and Challenges of Digital Health</i>. As the journal's Editorial Board Member and SI's Guest Editor, Professor Yang Wu is excluded from all the editorial decision related to the publication of this article.</p>","PeriodicalId":100601,"journal":{"name":"Health Care Science","volume":"4 1","pages":"66-69"},"PeriodicalIF":0.0000,"publicationDate":"2025-01-24","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1002/hcs2.128","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Health Care Science","FirstCategoryId":"1085","ListUrlMain":"https://onlinelibrary.wiley.com/doi/10.1002/hcs2.128","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0

Abstract

The rapid evolution of digital health technologies has sparked transformative changes across the healthcare landscape. These advancements were at the heart of discussions during the recent academic conference co-organized by The First Affiliated Hospital, Sun Yat-sen University (FAH-SYSU) and University of California at Berkeley, the Pacific-Rim Conference on Healthcare Innovation (PRC-HI 2024), convening under the theme “The Future of Medicine: Integrating Robotics, AI and Healthcare.” This article distills the key developments and their implications for the future of healthcare, focusing on innovations in robotic surgery, health data science, and AI for medicine.

Robotic surgery has become a cornerstone of modern surgical practices, offering enhanced precision, reduced recovery times, and lower complication rates. Dr. Xiaoyu Yin detailed advancements in robot-assisted pancreatic surgeries at FAH-SYSU, emphasizing the hospital's extensive experience with the Da Vinci surgical system. Since 2015, Dr. Yin has performed over 1000 robotic surgeries, including nearly 700 pancreatic resections. These procedures included advanced techniques such as robot-assisted Whipple procedures, organ-preserving pancreatectomies, and total pancreatectomies. His presentation highlighted the learning curves associated with these complex procedures, showcasing research on iterative improvements in surgical outcomes through case refinement and skill enhancement [1, 2].

Similarly, Dr. Junhang Luo presented a novel “gradual renal segmental artery off-clamping” technique for treating large renal tumors. By utilizing preoperative computed tomography (CT) reconstructions, the technique identifies renal arterial branches, allowing surgeons to precisely minimize ischemia to healthy tissue while ensuring effective tumor removal. Clinical data revealed significantly shorter ischemia times, reduced blood loss, and improved long-term renal function compared to traditional methods.

Dr. Qingbo Huang shared groundbreaking work on robotic telesurgery, particularly focusing on its applications in regions with limited medical resources. Through successful demonstrations of remote surgeries between Beijing and distant locations such as Sanya, Dr. Huang's research highlighted how low-latency communication networks and advanced robotic systems can overcome geographical barriers [3].

Dr. Chao Cheng discussed the application of robotic surgery in thoracic procedures, particularly for lung cancer and large thymoma. His presentation highlighted how robotic systems enhance surgical precision and reduce recovery times, with notable success in segmentectomies and thymectomies [4]. The integration of 3D visualization and enhanced dexterity offered by robotic systems has transformed the management of challenging thoracic cases [5, 6].

Dr. Peter Nyirady presented on the potential of robotic surgery in addressing global surgical disparities. Highlighting the contributions of Semmelweis University, his team demonstrated how robotic systems have enhanced outcomes in urological surgeries. He also discussed future directions, such as semi-autonomous surgical systems, and the importance of training programs to keep pace with these advancements.

Dr. Chris Fitzpatrick elaborated on the use of AI and data analytics in optimizing robotic surgical practices. Through platforms such as Case Insights, his research highlighted how analyzing surgical video data and performance metrics can identify skill gaps and provide actionable feedback for surgeons [7-10]. This approach has the potential to standardize training and improve surgical outcomes globally.

Dr. Veronica Ahumada-Newhart introduced the potential of telepresence robots in improving social inclusion for children with mobility impairments. Her studies revealed that these robots enable remote participation in classroom activities, such as attending lessons and engaging in physical education, reducing feelings of isolation and fostering a sense of community [11, 12]. However, technical challenges, such as screen visibility and interaction limitations due to robot design, remain significant for children. As these technologies advance, their applications could extend beyond pediatrics, supporting elderly care and mental health interventions.

Dr. Martin Loos highlighted the integration of big data analytics into postoperative management strategies for pancreatic surgeries. By leveraging detailed surgical data from Heidelberg, his research team has been able to identify key factors influencing patient outcomes across different types of total pancreatectomy [13].

Dr. Brad Pollock highlighted data-driven technologies in public health, focusing on applications in health protection, health promotion, and healthcare delivery. Technologies like wastewater monitoring, geospatial analysis, and exposomics improved COVID-19 disease surveillance [14]. For health promotion, approaches such as serious gaming technology increased treatment adherence [15] while newer generative AI and social media analytics will enhance behavioral interventions. Data-driven technology will continue to improve diagnostic screening and optimize health resource allocation.

Dr. Michael Wang delved into the historical and current trends of digital healthcare, categorizing its evolution into three phases: Digital Medicine 1.0, focused on digitizing healthcare systems; Digital Medicine 2.0, emphasizing data-driven insights; and Digital Medicine 3.0, which integrates advanced AI models for predictive and precision medicine. He also emphasized the ongoing challenges of data security and interoperability.

Dr. Ruchi Thanawala introduced “Epistomics,” an innovative approach that studies how learning occurs within medical education and practice. She discussed how big data from robotic surgery—such as videos, kinematics, and patient outcome data—combined with an interdisciplinary learning framework, can enhance educational outcomes and promote equity in training.

In addition, Dr. Frederick P. Ognibene emphasized the importance of effective teamwork and mentorship in advancing digital health research. He believed that clear timelines, role assignments, and open communication are key to ensuring research success. Successful teamwork relies on trust, communication, and shared scientific goals.

Dr. Haibo Wang provided a comprehensive overview of the development status and challenges of medical AI in China. While acknowledging China's competitive edge in research achievements and international collaborations, he highlighted gaps in patent approvals, technology transfer, and competition in high-end international markets. He also delved into the three core thinking pathways of AI and their critical roles in optimizing diagnostic and treatment processes [16-18], highlighting the shift of medical AI from task-specific to universal health-centered [19]. Additionally, he emphasized major challenges such as data scarcity, model failure risks, and ethical considerations in AI applications [20].

Dr. Joseph Sung explored the evolving role of physicians in an era increasingly influenced by AI and robotics. He provided examples from gastroenterology, including AI-powered colonoscopy tools that improve detection rates for abnormalities and reduce colorectal cancer mortality [21]. Despite the promise of AI, Dr. Sung emphasized that critical decision-making and patient interaction remain the core responsibilities of clinicians, advocating for AI as an augmentative rather than a replacement tool in healthcare [22].

Dr. Katherine Kim highlighted the emerging role of digital twin technology in healthcare, focusing on its applications in personalized medicine, disease prediction, and care management [23]. She proposed a healthcare digital twin framework encompassing five key areas: purpose, application levels, multimodal data sources, model types, and methods and technologies.

Dr. Yang Liu explored iFlytek's AI-driven solutions for primary care in China. Leveraging over 3 billion medical records, iFlytek's Smart Medical Assistant system has revolutionized chronic disease management by supporting patients through the entire care continuum—from pre-hospital health screenings to in-hospital disease adherence and medication adjustments, and post-discharge health monitoring with personalized treatment recommendations.

Dr. Nicholas Anderson reviewed the evolution of electronic health records, from initial digital transformation to the adoption of deterministic AI, and the emergence of generative AI. Generative AI demonstrates immense potential in handling various data types, automating documentation processes, and generating new data, offering promising prospects for optimizing clinical decision-making and improving workflow efficiency [24, 25].

Dr. Weizhi Ma presented the concept of “agent hospitals” utilizing generative AI and large language models to create virtual medical systems that drive innovation in medical education and clinical practice. By simulating interactions between patients and doctors, AI doctors engage in self-learning and evolution within the virtual environment, covering 21 specialties and generating hundreds of thousands of virtual cases to support medical education and medical decisions [26].

Dr. Jingwen Zhang explored how AI is transforming communication in healthcare, highlighting its potential to improve diagnostic accuracy and reduce gender and racial biases [27-29]. However, she also noted the challenges AI faces in building trust with patients and balancing professionalism with empathy, calling for attention to AI's ethics, safety, privacy, and fairness to promote more efficient and equitable health communication and healthcare development [30, 31].

The conference provided a comprehensive overview of the transformative impact of digital health innovations. From enhancing medical education to addressing disparities in care delivery, the discussions highlighted both the opportunities and challenges of integrating these technologies into practice. The detailed scientific research presented underscores the potential for interdisciplinary collaboration and ethical governance to maximize the benefits of digital health. Readers are encouraged to explore the references provided for deeper insights into these groundbreaking advancements.

Xiaoru Feng: writing–original draft (equal). Sun Yu: resources (equal). You Wu: conceptualization (equal), writing–review and editing (equal). Haibo Wang: conceptualization (equal), resources (equal). Yang Wu: supervision (equal), writing–review and editing (equal).

The authors have nothing to report.

The authors have nothing to report.

Professor Haibo Wang is a member of the Health Care Science Editorial Board. To minimize bias, he was excluded from all editorial decision-making related to the acceptance of this article for publication. The remaining authors declare no conflicts of interest. Yu Sun is the Editorial Office Director of Health Care Science and is not involved in all the editorial decision related to the publication of this article. This article belongs to a special issue (SI)-Implementation, Innovations and Challenges of Digital Health. As the journal's Editorial Board Member and SI's Guest Editor, Professor Yang Wu is excluded from all the editorial decision related to the publication of this article.

从全球视角看数字健康的创新:中华人民共和国- hi会议录2024
数字医疗技术的快速发展引发了整个医疗保健领域的变革。这些进步是最近由中山大学第一附属医院(FAH-SYSU)和加州大学伯克利分校联合举办的学术会议——环太平洋医疗保健创新会议(PRC-HI 2024)讨论的核心,会议的主题是“医学的未来:整合机器人、人工智能和医疗保健”。本文提炼了关键发展及其对医疗保健未来的影响,重点关注机器人手术、健康数据科学和医学人工智能方面的创新。机器人手术已成为现代外科实践的基石,提供更高的精度、更短的恢复时间和更低的并发症发生率。尹晓宇医生详细介绍了上海中山医科大学在机器人辅助胰腺手术方面的进展,强调了该院在达芬奇手术系统方面的丰富经验。自2015年以来,尹医生已经完成了1000多例机器人手术,其中包括近700例胰腺切除术。这些手术包括先进的技术,如机器人辅助的惠普尔手术、器官保留胰腺切除术和全胰腺切除术。他的报告强调了与这些复杂手术相关的学习曲线,展示了通过病例细化和技能提高来反复改进手术结果的研究[1,2]。同样,罗俊航博士提出了一种治疗大型肾肿瘤的“渐进式肾节段动脉脱夹”技术。通过术前计算机断层扫描(CT)重建,该技术可以识别肾动脉分支,使外科医生能够精确地减少对健康组织的缺血,同时确保有效的肿瘤切除。临床数据显示,与传统方法相比,缺血时间明显缩短,失血量减少,长期肾功能改善。黄庆波分享了机器人远程手术的突破性工作,特别关注其在医疗资源有限地区的应用。通过在北京和三亚等遥远地区之间成功进行远程手术的示范,黄博士的研究突出了低延迟通信网络和先进的机器人系统如何克服地理障碍。Chao Cheng讨论了机器人手术在胸部手术中的应用,特别是肺癌和大胸腺瘤。他的演讲强调了机器人系统如何提高手术精度和缩短恢复时间,在节段切除术和胸腺切除术中取得了显著的成功。机器人系统提供的3D可视化和增强的灵活性的集成已经改变了具有挑战性的胸部病例的管理[5,6]。Peter Nyirady介绍了机器人手术在解决全球手术差异方面的潜力。强调Semmelweis大学的贡献,他的团队展示了机器人系统如何提高泌尿外科手术的效果。他还讨论了未来的发展方向,如半自动手术系统,以及培训计划的重要性,以跟上这些进步的步伐。Chris Fitzpatrick详细阐述了人工智能和数据分析在优化机器人手术实践中的应用。通过Case Insights等平台,他的研究强调了分析手术视频数据和性能指标如何识别技能差距,并为外科医生提供可操作的反馈[7-10]。这种方法有可能使培训标准化,并在全球范围内提高手术效果。Veronica Ahumada-Newhart介绍了远程呈现机器人在改善行动障碍儿童社会包容方面的潜力。她的研究表明,这些机器人可以远程参与课堂活动,如上课和参加体育活动,减少孤独感,培养社区意识[11,12]。然而,技术上的挑战,如由于机器人设计的屏幕可见性和交互限制,对儿童来说仍然很重要。随着这些技术的进步,它们的应用可能会超越儿科,支持老年人护理和心理健康干预。Martin Loos强调了将大数据分析整合到胰腺手术的术后管理策略中。通过利用海德堡的详细手术数据,他的研究小组已经能够确定影响不同类型全胰腺切除术患者预后的关键因素。Brad Pollock重点介绍了公共卫生领域的数据驱动技术,重点介绍了在健康保护、健康促进和卫生保健提供方面的应用。废水监测、地理空间分析和暴露组学等技术改善了COVID-19疾病监测。 在健康促进方面,严肃游戏技术等方法提高了治疗依从性,而更新的生成人工智能和社交媒体分析将加强行为干预。数据驱动的技术将继续改进诊断筛选和优化卫生资源分配。Michael Wang深入研究了数字医疗的历史和当前趋势,将其演变分为三个阶段:数字医疗1.0,专注于数字化医疗系统;数字医学2.0,强调数据驱动的洞察;数字医学3.0,集成了先进的人工智能模型,用于预测和精准医疗。他还强调了数据安全和互操作性方面的持续挑战。Ruchi Thanawala介绍了“知识经济学”,这是一种研究医学教育和实践中学习如何发生的创新方法。她讨论了来自机器人手术的大数据(如视频、运动学和患者预后数据)如何与跨学科学习框架相结合,从而提高教育成果并促进培训公平性。此外,Frederick P. Ognibene博士强调了有效的团队合作和指导在推进数字健康研究中的重要性。他认为,明确的时间表、角色分配和开放的沟通是确保研究成功的关键。成功的团队合作依赖于信任、沟通和共同的科学目标。王海波对中国医疗人工智能的发展现状和面临的挑战进行了全面概述。在承认中国在研究成果和国际合作方面的竞争优势的同时,他强调了在专利审批、技术转让和高端国际市场竞争方面的差距。他还深入探讨了人工智能的三个核心思维路径及其在优化诊断和治疗过程中的关键作用[16-18],强调了医疗人工智能从特定任务向全民健康中心的转变[0]。此外,他还强调了人工智能应用中的主要挑战,如数据稀缺、模型失效风险和道德考虑等。Joseph Sung探讨了医生在人工智能和机器人技术日益影响的时代中不断演变的角色。他举了胃肠病学的例子,包括人工智能驱动的结肠镜检查工具,这些工具可以提高异常的检出率,降低结直肠癌的死亡率。尽管人工智能前景光明,但Sung博士强调,关键决策和患者互动仍然是临床医生的核心责任,他主张人工智能作为医疗保健领域的辅助工具,而不是替代工具。Katherine Kim强调了数字孪生技术在医疗保健领域的新兴作用,重点介绍了其在个性化医疗、疾病预测和护理管理方面的应用。她提出了一个医疗保健数字孪生框架,包括五个关键领域:目的、应用级别、多模态数据源、模型类型以及方法和技术。杨柳探讨了科大讯飞的人工智能解决方案在中国的初级保健。科大讯飞的智能医疗助理系统利用超过30亿的医疗记录,通过支持患者的整个护理过程,从院前健康筛查到院内疾病依从性和药物调整,以及出院后健康监测和个性化治疗建议,彻底改变了慢性病管理。Nicholas Anderson回顾了电子健康记录的演变,从最初的数字化转型到采用确定性人工智能,以及生成式人工智能的出现。生成式人工智能在处理各种数据类型、自动化文档流程和生成新数据方面显示出巨大的潜力,为优化临床决策和提高工作流程效率提供了广阔的前景[24,25]。马伟智提出了“代理医院”的概念,利用生成式人工智能和大型语言模型创建虚拟医疗系统,推动医学教育和临床实践的创新。通过模拟病人和医生之间的互动,人工智能医生在虚拟环境中进行自我学习和进化,涵盖21个专业,生成数十万个虚拟病例,以支持医学教育和医疗决策。Jingwen Zhang探讨了人工智能如何改变医疗保健领域的沟通,强调了其提高诊断准确性和减少性别和种族偏见的潜力[27-29]。然而,她也注意到人工智能在与患者建立信任和平衡专业与同理心方面面临的挑战,呼吁关注人工智能的道德、安全、隐私和公平性,以促进更有效和公平的健康沟通和医疗保健发展[30,31]。会议全面概述了数字卫生创新的变革性影响。 从加强医学教育到解决护理提供方面的差异,讨论突出了将这些技术纳入实践的机遇和挑战。详细的科学研究强调了跨学科合作和伦理治理的潜力,以最大限度地发挥数字卫生的效益。我们鼓励读者探索提供的参考资料,以深入了解这些突破性的进步。冯晓如:写作-原稿(相等)。孙瑜:资源(平等)。尤武:构思(平等)、审稿、编辑(平等)。王海波:观念(平等),资源(平等)。杨武:监督(平等)、审稿、编辑(平等)。作者没有什么可报告的。作者没有什么可报告的。王海波教授是《卫生保健科学》编委会成员。为了尽量减少偏倚,他被排除在所有与接受这篇文章发表相关的编辑决策之外。其余作者声明无利益冲突。孙宇是《卫生保健科学》编辑部主任,不参与与本文发表有关的所有编辑决策。本文属于特刊(SI)——数字健康的实施、创新和挑战。杨武教授作为本刊编委会成员和《科学快报》客座编辑,不参与与本文发表有关的所有编辑决策。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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