Preventing diagnostic errors in critical care using millimeter-wave technology: A transformative approach to patient safety.

BACKGROUND: Diagnostic errors in critical care settings are a significant challenge, often leading to adverse patient outcomes and increased healthcare costs. Millimeter-wave (mmWave) technology, with its ability to provide high-resolution, real-time data, offers a transformative solution to enhance diagnostic accuracy and patient safety. This paper explores the integration of mmWave technology in intensive care units (ICUs) to enable non-invasive monitoring, minimize diagnostic errors, and improve clinical decision-making. By addressing key challenges, including data latency, signal interference, and implementation feasibility, this approach has the potential to revolutionize patient monitoring systems and set a new standard for critical care delivery. The paper discusses the high prevalence of diagnostic errors in medical care, particularly in primary care and ICUs, and emphasizes the need for improvement in diagnostic accuracy. Diagnostic errors are responsible for a significant number of deaths, disabilities, prolonged hospitalizations and delays in diagnosis worldwide. AIM: To address this issue, the paper proposes the use of ultrafast wireless medical big data transmission in primary care, specifically in remote smart sensors monitoring devices. It suggests that wireless transmission with a speed up to 100 Gb/s (12.5 Gbytes/s) within a short distance (1-10 meters) is necessary to reduce diagnostic errors. METHODS: The method used in the study, includes system design and testing a channel sounder operating at 63.4-64.4 GHz frequency range. The system demonstrated dynamic range of 70 dB, noise level of -110 dBm, and a time resolution of 1 ns. The experiment measured the impulse response of the channel in 36 locations within the primary care/ICU scenario. RESULTS: The system was tested in a simulated ICU environment to evaluate the Latency: Assessing the time delay in data transmission and processing. The results of the study showed that the system met the requirements of ICUs, providing excellent latency values. The delay spread and excess delay values were within acceptable limits, indicating successful resolution of ICU requirements. The paper suggests timely deployment of such a system. Impact on data transmission: A 100 MB magnetic resonance imaging scan can be transmitted in approximately 0.008 seconds; A 1 GB scan would take approximately 0.08 seconds; This capability could revolutionize healthcare, enabling real-time remote diagnostics and comparisons with artificial Intelligence models, even in large-scale systems. CONCLUSION: The experiment demonstrated the feasibility of using high-speed wireless transmission for improved diagnostics in ICUs, offering potential benefits in terms of reduced errors and improved patient outcomes. The findings are deemed valuable to the medical community and public healthcare systems, and it is suggested further research in this area.