Bioprospecting Model for a New Colombia Drug Discovery Initiative in the Pharmaceutical Industry

Author(s):  
Juan Bueno ◽  
Sebastian Ritoré
2018 ◽  
pp. 399-404
Author(s):  
S. Nassir Ghaemi

Newer and better medications are obtained as part of the drug discovery process, which occurs mainly in the pharmaceutical industry. This process is hampered by excessive attention to marketing demands, as opposed to scientific exploration. It also is impaired by the psychiatric profession’s mistaken ideologies, whether psychoanalytic orthodoxy in the past or DSM beliefs of the present. Wrong clinical phenotypes impair finding new pharmacological mechanisms and targeting them well to the write clinical indications. Perhaps as a consequence, no treatments have been developed in the last few decades, since DSM-III, that are more effective than prior agents. Progress for the future in drug discovery will require not just better neurobiological work, but also a new approach to clinical diagnoses in psychiatry.


2016 ◽  
Vol 34 (29) ◽  
pp. 3570-3575 ◽  
Author(s):  
Patrick Vallance

The pharmaceutical industry is entering a renewed period of productivity as a result of advances in the understanding of human biology, particularly in the areas of genetics and immunology. The relationship between industry and academia needs to evolve to maximize the opportunity. In four areas—target identification, the molecule itself, experimental medicine, and larger-scale clinical testing—there are specific needs for academic partnerships that should be open and transparent and include talent, skills, and career development.


2018 ◽  
Vol 32 (5) ◽  
pp. 302-311 ◽  
Author(s):  
Elizabeth K. McClain ◽  
Yolanda Johnson-Moton ◽  
Bryan Larsen ◽  
Rebecca J. Bartlett Ellis ◽  
Eric Niederhoffer

The approach to building innovative partnerships between academia and the pharmaceutical industry has expanded to investigate collaborations that offer meaningful outcomes beyond discovery and increased productivity. This case study uses a systems thinking approach to guide the process and analyse the outcome of a partnership undertaken by one pharmaceutical company and academia. The collaborative process established three tiers of evolution over a 3-year period. The outcome was an online module–based course, entitled ‘Making Medicines: The Process of Drug Development’, that provides information about the drug discovery and development process. Both the course development and the final product serve as a useful case study of how collaboration between academia and industry might be achieved. The development process itself is proposed as an appropriate approach for building educational partnerships.


2012 ◽  
Vol 23 (21) ◽  
pp. 4162-4164 ◽  
Author(s):  
Peter K. Sorger ◽  
Birgit Schoeberl

The profound challenges facing clinicians, who must prescribe drugs in the face of dramatic variability in response, and the pharmaceutical industry, which must develop new drugs despite ever-rising costs, represent opportunities for cell biologists interested in rethinking the conceptual basis of pharmacology and drug discovery. Much better understanding is required of the quantitative behaviors of networks targeted by drugs in cells, tissues, and organisms. Cell biologists interested in these topics should learn more about the basic structure of drug development campaigns and hone their quantitative and programming skills. A world of conceptual challenges and engaging industry–academic collaborations awaits, all with the promise of delivering real benefit to patients and strained healthcare systems.


Author(s):  
A. N. Hobden ◽  
T. J. R. Harris

Synopsis:Biotechnology had its initial impact on the pharmaceutical industry well before the perceived time. The use of fermentation technology to produce antibiotics was a cornerstone for the development of the industry. This event was both before cloning (BC) and before DNA (rather than after DNA – AD). Even now the antibiotic market, which is worth over 10 billion U.S. dollars a year, is the most valuable segment of the total market, (c.200 billion dollars per year). Nevertheless the impact of biotechnology in drug discovery was until recently perceived solely to be the use of recombinant DNA techniques to produce therapeutic proteins and modified versions of them by protein engineering.There are several other places where genetic engineering is influencing drug discovery. The expression of recombinant proteins in surrogate systems (e.g. in E. coli, yeast or via baculovirus infection or in mammalian cells) provides materials for structure determination (e.g. HIV protease) and structure/function studies (e.g. various receptors). Recombinant DNA techniques are influencing assay technology by allowing access to proteins in sufficient quantity for high throughput screening.In addition, screening organisms can be constructed where a particular protein function can be measured in a microorganism by complementation or via reporter gene expression.Transgenic animals also illustrate the power of the technology for drug discovery. Not only will transgenic rats and mice be used as models of disease but also for efficacy and toxicological profiling. What is learned in transgenic rodents may well set the scene for somatic cell gene therapy in humans.


Author(s):  
Jie Jack Li

For the world's largest prescription drug manufacturers, the last few years have been a harrowing time. Recently, Pfizer's Lipitor, GlaxoSmithKline's Advair, AstraZeneca's Seroquel, and Sanofi-Aventis and Bristol-Myers Squibb's Plavix all came off patent in the crucial U.S. market. This so-called "patent cliff" meant hundreds of billions of dollars in lost revenue and has pharmaceutical developers scrambling to create new drugs and litigating to extend current patent protections. Having spent most of his career in drug discovery in "big pharma," Dr. Li now delivers an insider's account of how the drug industry ascended to its plateau and explores the nature of the turmoil it faces in the coming years. He begins with a survey of the landscape before "blockbuster drugs," and proceeds to describe how those drugs were discovered and subsequently became integral to the business models of large pharmaceutical companies. For example, in early 1980s, Tagamet, the first "blockbuster drug," transformed a minor Philadelphia-based drug maker named SmithKline & French into the world's ninth-largest pharmaceutical company in terms of sales. The project that delivered Tagamet was nearly terminated several times because research efforts begun in 1964 produced no apparent results within the first eleven years. Similar stories accompany the discovery and development of now-ubiquitous prescription drugs, among them Claritin, Prilosec, Nexium, Plavix, and Ambien. These stories, and the facets of the pharmaceutical industry that they reveal, can teach us valuable lessons and reveal many crucial aspects about the future landscape of drug discovery. As always, Dr. Li writes in a readable style and intersperses fascinating stories of scientific discovery with engaging human drama.


Science ◽  
2019 ◽  
Vol 363 (6424) ◽  
pp. eaat0805 ◽  
Author(s):  
Kevin R. Campos ◽  
Paul J. Coleman ◽  
Juan C. Alvarez ◽  
Spencer D. Dreher ◽  
Robert M. Garbaccio ◽  
...  

Innovations in synthetic chemistry have enabled the discovery of many breakthrough therapies that have improved human health over the past century. In the face of increasing challenges in the pharmaceutical sector, continued innovation in chemistry is required to drive the discovery of the next wave of medicines. Novel synthetic methods not only unlock access to previously unattainable chemical matter, but also inspire new concepts as to how we design and build chemical matter. We identify some of the most important recent advances in synthetic chemistry as well as opportunities at the interface with partner disciplines that are poised to transform the practice of drug discovery and development.


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