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Critical Care Equipment Management Reimagined in an Emergency

SUMMARY: The COVID19 pandemic created a surge in demand for critical care equipment against a backdrop of fast-moving geographic virus hotspots. A team from IBM Europe was put together to prove that a devolved healthcare system can be rapidly bridged by a mix of advanced and legacy technologies to p...

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Autores principales: Yong, Winston, Kundakchian, Anya
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Partners in Digital Health 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9907412/
https://www.ncbi.nlm.nih.gov/pubmed/36777057
http://dx.doi.org/10.30953/bhty.v3.146
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author Yong, Winston
Kundakchian, Anya
author_facet Yong, Winston
Kundakchian, Anya
author_sort Yong, Winston
collection PubMed
description SUMMARY: The COVID19 pandemic created a surge in demand for critical care equipment against a backdrop of fast-moving geographic virus hotspots. A team from IBM Europe was put together to prove that a devolved healthcare system can be rapidly bridged by a mix of advanced and legacy technologies to provide a federated view of critical care equipment deployment and use during an emergency. This was achieved with the deployment of predictive analytics and blockchain, integrated with conventional hospital management system. The corollary investigation determined the manner in which this system can be harnessed in a postemergency recovery to provide a national supply chain efficiency backbone. METHOD: During a period of 2 weeks, a team of IBM consultants set up a technology sandbox environment to represent a network of an equipment manufacturer, a central national emergency monitoring center, and several hospitals managed by their respective trust organization. Within this environment, a hospital asset management system, Maximo, was configured to manage and track critical care equipment within a hospital; a blockchain traceability platform, IBM’s Blockchain Transparency System, was configured to ingest multiple hospital data reports; and a predictive analytic dashboard, Watson Analytics, would retrieve data from the blockchain platform to supplement other data sources to provide national views and support decision-making for the supply and movement of equipment. Three key principles in the design of this environment are speed, reuse, and minimal intrusion. RESULTS: The hypothesis was to test whether the chosen technologies can overcome the challenges of misaligned demand and supply of critical care equipment during a national emergency. The execution of the tests led to successful simulation of three scenarios: (1) the tracking of the location and usage history of any single equipment that has been placed into the network; (2) the movement of equipment between independent hospitals is recorded and reported; (3) a real-time interrogation of the current location and status of all registered equipment. CONCLUSIONS: The successful completion of this proof of concept has demonstrated that emerging technology can be used to overcome poor macro level coordination and planning, which are the drawbacks of a devolved healthcare system. The corollary was that this proof also demonstrated that blockchain technology can be used to prolong the useful life of conventional technology.
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spelling pubmed-99074122023-02-10 Critical Care Equipment Management Reimagined in an Emergency Yong, Winston Kundakchian, Anya Blockchain Healthc Today Proof of Concept SUMMARY: The COVID19 pandemic created a surge in demand for critical care equipment against a backdrop of fast-moving geographic virus hotspots. A team from IBM Europe was put together to prove that a devolved healthcare system can be rapidly bridged by a mix of advanced and legacy technologies to provide a federated view of critical care equipment deployment and use during an emergency. This was achieved with the deployment of predictive analytics and blockchain, integrated with conventional hospital management system. The corollary investigation determined the manner in which this system can be harnessed in a postemergency recovery to provide a national supply chain efficiency backbone. METHOD: During a period of 2 weeks, a team of IBM consultants set up a technology sandbox environment to represent a network of an equipment manufacturer, a central national emergency monitoring center, and several hospitals managed by their respective trust organization. Within this environment, a hospital asset management system, Maximo, was configured to manage and track critical care equipment within a hospital; a blockchain traceability platform, IBM’s Blockchain Transparency System, was configured to ingest multiple hospital data reports; and a predictive analytic dashboard, Watson Analytics, would retrieve data from the blockchain platform to supplement other data sources to provide national views and support decision-making for the supply and movement of equipment. Three key principles in the design of this environment are speed, reuse, and minimal intrusion. RESULTS: The hypothesis was to test whether the chosen technologies can overcome the challenges of misaligned demand and supply of critical care equipment during a national emergency. The execution of the tests led to successful simulation of three scenarios: (1) the tracking of the location and usage history of any single equipment that has been placed into the network; (2) the movement of equipment between independent hospitals is recorded and reported; (3) a real-time interrogation of the current location and status of all registered equipment. CONCLUSIONS: The successful completion of this proof of concept has demonstrated that emerging technology can be used to overcome poor macro level coordination and planning, which are the drawbacks of a devolved healthcare system. The corollary was that this proof also demonstrated that blockchain technology can be used to prolong the useful life of conventional technology. Partners in Digital Health 2020-12-04 /pmc/articles/PMC9907412/ /pubmed/36777057 http://dx.doi.org/10.30953/bhty.v3.146 Text en © 2020 Winston Yong https://creativecommons.org/licenses/by-nc/4.0/This is an open access article distributed in accordance with the Creative Commons Attribution Non-Commercial (CC BY-NC 4.0) license, which permits others to distribute, adapt, enhance this work noncommercially, and license their derivative works on different terms, provided the original work is properly cited and the use is non-commercial.
spellingShingle Proof of Concept
Yong, Winston
Kundakchian, Anya
Critical Care Equipment Management Reimagined in an Emergency
title Critical Care Equipment Management Reimagined in an Emergency
title_full Critical Care Equipment Management Reimagined in an Emergency
title_fullStr Critical Care Equipment Management Reimagined in an Emergency
title_full_unstemmed Critical Care Equipment Management Reimagined in an Emergency
title_short Critical Care Equipment Management Reimagined in an Emergency
title_sort critical care equipment management reimagined in an emergency
topic Proof of Concept
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9907412/
https://www.ncbi.nlm.nih.gov/pubmed/36777057
http://dx.doi.org/10.30953/bhty.v3.146
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