Future of Medical Research in Rare Diseases and Cancers: Shift from Pharma to Biotech and the Golden Age of Medical Advancement

Abhith Pallegar
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Abstract

The objective of the paper is to elucidate how interconnected biological systems can be better mapped and understood using the rapidly growing area of Big Data. We can harness network efficiencies by analyzing diverse medical data and probe how we can effectively lower the economic cost of finding cures for rare diseases. Most rare diseases are due to genetic abnormalities, many forms of cancers develop due to genetic mutations. Finding cures for rare diseases requires us to understand the biology and biological processes of the human body. In this paper, we explore what the historical shift of focus from pharmacology to biotechnology means for accelerating biomedical solutions. With biotechnology playing a leading role in the field of medical research, we explore how network efficiencies can be harnessed by strengthening the existing knowledge base. Studying rare or orphan diseases provides rich observable statistical data that can be leveraged for finding solutions. Network effects can be squeezed from working with diverse data sets that enables us to generate the highest quality medical knowledge with the fewest resources. This paper examines gene manipulation technologies like Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR) that can prevent diseases of genetic variety. We further explore the role of the emerging field of Big Data in analyzing large quantities of medical data with the rapid growth of computing power and some of the network efficiencies gained from this endeavor.
罕见疾病和癌症医学研究的未来:从制药转向生物技术和医学进步的黄金时代
本文的目的是阐明如何利用快速增长的大数据领域更好地绘制和理解相互关联的生物系统。我们可以通过分析不同的医疗数据来利用网络效率,并探索如何有效地降低寻找罕见疾病治疗方法的经济成本。大多数罕见疾病是由于基因异常,许多形式的癌症是由于基因突变而产生的。寻找罕见疾病的治疗方法需要我们了解人体的生物学和生物过程。在本文中,我们探讨了焦点从药理学到生物技术的历史转变对加速生物医学解决方案的意义。随着生物技术在医学研究领域发挥主导作用,我们探索如何通过加强现有知识库来利用网络效率。研究罕见病或孤儿病提供了丰富的可观察统计数据,可用于寻找解决方案。网络效应可以从处理不同的数据集中得到挤压,这些数据集使我们能够用最少的资源产生最高质量的医学知识。本文研究了群集规则间隔短回文重复序列(CRISPR)等基因操作技术,可以预防遗传多样性疾病。随着计算能力的快速增长以及由此获得的一些网络效率,我们进一步探讨了大数据这一新兴领域在分析大量医疗数据中的作用。
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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