Department Title Author Short Description Video Url
Pharmacy Drug Development Overview Brandon Too In this lecture, I provide a high-level overview of the drug development process, recent disease trends, and industry stakeholders. View
Pharmacy Natural drugs || Drugs from natural source and related synthetic drugs egpat Nature bring so many drugs from us and based on their structure so many compounds are synthesized either completely or by a semi-synthetic process. The clues given by nature are so crucial for us to develop many fruitful drugs. In this video we will discuss various drugs obtained from natural source along with any related synthetic or semi-synthetic products. View
Pharmacy Natural Products for Drug Development Edelweiss Connect, Switzerland Information on natural products and traditional medicine is often ambiguous or unavailable and current databases may not be applicable for discovery sciences. How could modern technology and approaches like crowdsourcing support the sharing of complex data on natural products? How can we meet the need for standardized and structured databases with enough scope to cover natural product sources, their chemistry, as well as in vitro, in vivo and traditional data? View
Pharmacy Marine Natural Products: From Sea to Pharmacy University of California Television (UCTV) Nature has provided the inspiration for many of today’s most important medicines, yet the need for new drugs to treat diseases such as cancer and antibiotic resistant bacterial infection remains high. Paul Jensen describes how he and other researchers are tapping into the world’s oceans – home to a majority of its biodiversity – as a relatively new resource for natural product drug discovery. View
Pharmacy The National Center for Natural Products Research Ole Miss Pharmacy The National Center for Natural Products Research at the University of Mississippi School of Pharmacy is devoted to the discovery and development of new pharmaceutical and agrochemical technologies based on the amazing chemical diversity of living organisms, such as plants, animals and microbes. View
Pharmacy Drugs from Natural Sources. Niir Project Consultancy Services Delhi Drugs from Natural Sources (Acacia, Indian Liquorice, Khair, Prickly Chaff Flower, Adulsa, Lasun, Ghikanvar, Neem, Boswellia Serrata Roxb, Karannja, Chakunda, Quall Grass, Airan, Zaafran, Chibud, Talmuli, Mulethi, Moolaka, Hyoscyamus Niger, Yashtimadhu, Methi, Banaphasha, Bartondi, Dhaniya) Natural products have played an important role throughout the world in treating and preventing human diseases. Natural product medicines have come from various materials including terrestrial plants, terrestrial microorganisms, organisms etc. Historical experiences with plants as therapeutic tools have helped to introduce single chemical entries in modern medicine. About 40% of the drugs used are derived from natural sources. Most are pure substances which are isolated from various organisms & used directly or after chemical modification. Niir Project Consultancy Services (NPCS) has prepared project reports on all mentioned products. The report covers – Manufacturing Plant, Detailed Project Report, Profile, Business Plan, Industry Trends, Market Research, Survey, Manufacturing Process, Machinery, Raw Materials, Feasibility Study, Investment Opportunities, Cost and Revenue, Plant Economics. The project report provided by NPCS gives a detailed market review. The report analyses the market confirms the availability of various necessities such as plant & machinery, raw materials and tells about the forecasting financial requirements. A lot of professionals have taken benefit from the project reports if you are interested in the manufacturing business, get in contact with us from the official website of NPCS. View
Pharmacy The Isolation of Natural Products: Morphine and Other Alkaloids Professor Dave Explains In the early 19th century, we were still in the habit of searching for plants with medicinal properties. But we were finally beginning to develop the capacity to identify active ingredients within those plants, isolate them, and purify them, such that they could be administered in the form of pills and powders. The class of molecules that initiated this sea change was alkaloids, the most notable of which was morphine. How did we identify morphine and ascertain its properties? Once isolated, how was it tested? It’s actually a pretty crazy tale, so pull up a chair and have a listen! View
Pharmacy Chromatography Quick Biochemistry Basics The term chromato means colour and graphy means to write. Chromatography technique is widely used for the separation of molecules from a mixture. Chromatography separation is based on the difference in solubility of sample molecules in the mobile phase and the stationary phase. The mobile phase is also known as Eluent. The mobile phase leaving the column is called eluate and the sample leaving the column is called eluite. View
Pharmacy Gas Chromatography | working principle and instrumentation lecture Shomu’s Biology Gas chromatography lecture – This chromatography lecture explains about the instrumentation, principle of gas chromatography. Gas chromatography (GC) is a common type of chromatography used in analytical chemistry for separating and analyzing compounds that can be vaporized without decomposition. Typical uses of GC include testing the purity of a particular substance, or separating the different components of a mixture (the relative amounts of such components can also be determined). In some situations, GC may help in identifying a compound. In preparative chromatography, GC can be used to prepare pure compounds from a mixture. This lecture will explain the principle of gas chromatography and the instrumentation and uses of gas chromatography. In gas chromatography, the mobile phase (or “moving phase”) is a carrier gas, usually an inert gas such as helium or an unreactive gas such as nitrogen. Helium remains the most commonly used carrier gas in about 90% of instruments although hydrogen is preferred for improved separations.The stationary phase is a microscopic layer of liquid or polymer on an inert solid support, inside a piece of glass or metal tubing called a column (an homage to the fractionating column used in distillation). The instrument used to perform gas chromatography is called a gas chromatograph (or “aerograph”, “gas separator”). Gas chromatography is in principle similar to column chromatography (as well as other forms of chromatography, such as HPLC, TLC), but has several notable differences. First, the process of separating the compounds in a mixture is carried out between a liquid stationary phase and a gas mobile phase, whereas in column chromatography the stationary phase is a solid and the mobile phase is a liquid. (Hence the full name of the procedure is “Gas–liquid chromatography”, referring to the mobile and stationary phases, respectively.) Second, the column through which the gas phase passes is located in an oven where the temperature of the gas can be controlled, whereas column chromatography (typically) has no such temperature control. Finally, the concentration of a compound in the gas phase is solely a function of the vapor pressure of the gas. Gas chromatography is also similar to fractional distillation, since both processes separate the components of a mixture primarily based on boiling point (or vapor pressure) differences. Gas chromatography is also sometimes known as vapor-phase chromatography (VPC), or gas–liquid partition chromatography (GLPC). These alternative names, as well as their respective abbreviations, are frequently used in scientific literature. Strictly speaking, GLPC is the most correct terminology, and is thus preferred by many authors. In most modern GC-MS systems, computer software is used to draw and integrate peaks, and match MS spectra to library spectra. Gas Chromatography is used extensively in forensic science. View
Pharmacy Thin layer chromatography (TLC) principle explained Shomu’s Biology This lecture explains about the thin layer chromatography technique. TLC principle is well explained with example. Thin layer chromatography is the easy method to separate different types of chemical molecules from each other with the help of thin layer chromatography plate also known as the TLC plate. Thin layer chromatography separates molecules based on the differential movement rate in the tlc stationary phase which is calculated with the retention factor or Rf value. View