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Orphan Drugs: A Thematic View 孤儿药:专题观点
Pub Date : 2023-11-03 DOI: 10.46610/jpdra.2023.v05i02.005
Poluru SriSatya Vani, Vani Mamillapalli, Padmalatha Kantamaneni, Raya Srikeerthi, Thirumalasetty Ruchitharani, Lanka Rajini, Chilakabathini Keziahrani
Orphan diseases are all medical conditions that impact 0.65 to 1 out of every 1000 people, according to the World Health Organization. Since these are not financially stable and feasible, they are typically not explored for their pathophysiology or the emerging therapy alternatives. On January 28, 1983, in the USA a law known as the Orphan Drug Act was formed to promote the study, creation, and approval of medications for rare diseases. There are currently as many medications for other infectious diseases as there are for tropical infectious diseases, with 11 pharmaceuticals (4.87%) recognized as orphan drugs. Several medications having orphan status are used to treat illnesses that no longer meet the requirements for orphan designation. Some businesses also manufacture and produce orphan medications. Nuclear cloning, rational drug design, and high throughput screening are all methods used in drug discovery programs that could lead to the development of new medicines. This article discusses orphan drugs, medical orphans, rare diseases, the orphan drug act, orphan drug design, the global market scenario of orphan drugs and various databases that contain information about orphan drugs. Patients who have been ignored by for-profit medication discovery efforts have hope for the future.
根据世界卫生组织的数据,孤儿病是每1000人中有0.65到1人受到影响的疾病。由于这些药物在经济上不稳定且不可行,因此通常不会对其病理生理学或新兴治疗方案进行探索。1983年1月28日,美国制定了一项名为《孤儿药法案》的法律,以促进罕见疾病药物的研究、创造和批准。目前,治疗其他传染病的药物与治疗热带传染病的药物一样多,其中11种药物(4.87%)被认定为孤儿药。一些孤儿药被用于治疗不再符合孤儿药指定要求的疾病。一些企业还制造和生产孤儿药物。核克隆、合理的药物设计和高通量筛选都是药物发现项目中使用的方法,可以导致新药的开发。本文讨论了孤儿药、医学孤儿、罕见疾病、孤儿药法案、孤儿药设计、孤儿药的全球市场情况以及包含孤儿药信息的各种数据库。那些被营利性药物发现工作所忽视的患者对未来充满了希望。
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引用次数: 0
Applications of Proteomics in Human Medicine 蛋白质组学在人类医学中的应用
Pub Date : 2023-10-13 DOI: 10.46610/jpdra.2023.v05i02.002
Vivek kumar Tiwari, Bairi Harika
Technology is used in proteomics to count and estimate how many proteins are present in each cell, tissue, and organism. It aids in the identification of an organism's proteins and the comprehension of the structure and functions of a particular protein, complementing other "omics" technologies like genomics and transcriptomics. Proteomics is fundamentally complicated because it entails categorizing and examining all of the protein signatures in a genome. Mass spectrometry is the foundation of contemporary proteomics, with LC-MS-MS and MALDI-TOF/TOF being widely utilized devices. However, finding biomarkers is still a challenge in proteomics due to their entanglement and dynamic nature. Consequently, using a proteomics technique in conjunction with genomics and bioinformatics will help to interpret the data about biological systems and how illness alters them. However, most studies have only examined a small portion of the blood proteins. This review emphasizes the several types of proteomics, the available approaches, and their applications in numerous research fields.
蛋白质组学技术用于计数和估计每个细胞、组织和生物体中存在的蛋白质数量。它有助于识别生物体的蛋白质,理解特定蛋白质的结构和功能,补充了基因组学和转录组学等其他“组学”技术。蛋白质组学从根本上来说是复杂的,因为它需要对基因组中的所有蛋白质特征进行分类和检查。质谱法是当代蛋白质组学的基础,LC-MS-MS和MALDI-TOF/TOF是广泛使用的设备。然而,由于生物标志物的纠缠性和动态性,在蛋白质组学中寻找生物标志物仍然是一个挑战。因此,结合基因组学和生物信息学,使用蛋白质组学技术将有助于解释有关生物系统的数据以及疾病如何改变它们。然而,大多数研究只检测了血液蛋白质的一小部分。本文综述了蛋白质组学的几种类型、可用的方法及其在众多研究领域中的应用。
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引用次数: 0
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Journal of Pharma and Drug Regulatory Affairs
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