Blockchain's Potential Effect on the Healthcare Industry

Blockchain's Potential Effect on the Healthcare Industry

Binay Kumar Pandey, Mukundan Appadurai Paramashivan, Vinay Kumar Nassa, Darshan A. Mahajan, Pankaj Dadheech, A. S. Hovan George, A. Shaji George
Copyright: © 2024 |Pages: 19
DOI: 10.4018/979-8-3693-1335-0.ch010
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Abstract

Block chain secures data. Blockchain imitates computerised trading markets. The 2008 cryptocurrency and transaction network Bitcoin leads blockchain technology. When buyers or sellers declare payments, blockchain transfers bitcoin. Blockchain can change finance like the Internet. Block chain technology may affect medicine. This fast-growing issue affects many healthcare providers. Open, irreversible, stable, and collaborative technology are preferred by cryptocurrency over regulated, hidden, proprietary, and changeable ones. Blockchain is used in medical records, security, database management, and biotechnology regulation. Blockchain helps biopharmaceuticals track illicit medications. It monitors medicines and counterfeiters. This book chapter presents a comprehensive block chain technology for health sector decision makers and explores difficulties and constraints using a suitable markup. Here are current and potential medical blockchain applications.
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1. Introduction

The data is safeguarded by the block chain. Electronic trading markets that mimic blockchain technology. Blockchain technology was pioneered in 2008 by Bitcoin, a decentralized digital money and transaction network. When a seller or a buyer reveals a payment, the blockchain automatically transfers bitcoin. Similar to the internet, blockchain has the potential to revolutionize the financial industry. There's a possibility that blockchain technology will change medicine. This fast expanding problem is having an effect on a great number of healthcare providers. When compared to technologies that are regulated, concealed, proprietary, and subject to change, cryptocurrencies favor those that are open, irreversible, stable, and collaborative. The administration of medical records, cybersecurity, database management, and the regulation of biotechnology all use blockchain technology. Tracking illegal narcotics is made easier with the use of blockchain technology. It investigates both drug traffickers and counterfeiters. This study provides decision makers in the health industry with a comprehensive overview of block chain technology and utilizes an appropriate markup to conduct an analysis of issues and limits. The article will cover both the present and potential future applications of blockchain technology in the medical field. On a consistent basis, enormous quantities of data are produced, accessed, and exchanged within the healthcare industry (Pramanik, S.,et al.,2023). It is vital to collect and disseminate such a massive amount of data, but doing so presents a formidable challenge due to the delicate nature of the data and the attendant concerns regarding its protection. In order to deliver correct diagnoses and collaborative medical care, the sharing of data in clinical and healthcare settings needs to be scalable, safe, and clean.

In order for clinicians to effectively communicate patient information to the relevant authorities in a timely way, statistics are required. These carers and general practitioners should be able to securely transfer the clinical records of their patients so that their patients can receive information that is accurate and up to date regarding their health. On the other side, clinical evidence is communicated to a distant clinician through telemedicine and e-health in order to acquire an expert opinion. These two online clinical systems send patient data via a technique referred to as “store-and-forward technology” or by real-time clinical surveillance (which may include tele-monitoring, telemetry, and other methods of a similar nature).Sharing clinical results helps medical professionals to establish diagnoses from a distance and provide therapy to patients who are ill in online clinical environments. Issues of confidentiality, sensitivity, and privacy are likely to be major concerns in all therapeutic scenarios since patient data are frequently highly sensitive. In order to facilitate clinical contacts with distant patients, therefore, there is a need for data sharing that is protected, scalable, and consistent. Sharing data in a way that is both secure and efficient enables more effective therapeutic teamwork. This is accomplished by asking for recommendations or validations from a network of clinical experts. This, in turn, leads to a diagnosis that is more accurate and an increase in the treatment's overall effectiveness. Interoperability issues are another problem that the region has to deal with at the moment. The dissemination of scientific information among healthcare institutions and research organizations may present certain difficulties. This phase could be limited by clinical evidence, sensitivity, data interchange agreements, protocols, intricate patient matching procedures, moral policies, or suggestions that are already in place. For the exchange of clinical data, it is necessary to find solutions to a number of fundamental problems first. Researchers have spent years seeking to harness cyberspace, simulated communication, an understanding of equipment, and computer vision in the hopes that this will assist medical professionals in the diagnosis and treatment of a wide variety of chronic illnesses (David, S.,et al.,2023).

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