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1.
J Am Acad Dermatol ; 83(1): 184-188, 2020 Jul.
Article in English | MEDLINE | ID: mdl-31821858

ABSTRACT

Extemporaneous compounding is a means to tailor a medication to an individual patient's needs and may be required when no commercial product exists to meet that need. Compounded products range from buffered lidocaine to topical creams and ointments. Recent heightened regulations have made compounding more challenging for dermatologists and prompted this review of regulations, liability, and safety related to compounding. With this information, providers may minimize liability and maximize safety while caring for their patients.


Subject(s)
Drug Compounding , Drug Compounding/economics , Drug Compounding/standards , Drug-Related Side Effects and Adverse Reactions , Humans , Technology, Pharmaceutical/legislation & jurisprudence , United States , United States Food and Drug Administration
2.
Matern Child Nutr ; 14 Suppl 5: e12500, 2018 12.
Article in English | MEDLINE | ID: mdl-29280300

ABSTRACT

Globally, there are few vitamin and mineral ingredient manufacturers. To support local, in-country or regional procurement and production of multiple micronutrient supplements (MMS), the following production scenarios are possible: (a) straight ingredients of vitamins and minerals forms imported or locally produced that are mixed, tableted, or encapsulated and packaged by a local manufacturer; (b) import or local production of a vitamin and minerals premix that is tableted or encapsulated and packaged locally; (c) import of a bulk, finished product (tablets or capsules) that is packaged and branded; and (d) or import of a branded packaged product. This paper is a situation analysis of the market, manufacturing, and policy factors that are driving the production of MMS in 12 lower and upper middle-income countries. Key informants completed a self-administered structured questionnaire, which examined the local context of products available in the market and their cost, regulations and policies, in Brazil, Colombia, Guatemala, Mexico, Peru, Bangladesh, India, Vietnam, Ghana, Kenya, Nigeria, and South Africa. Our study found that although most countries have the capacity to produce locally MMS, the major barriers observed for sustainable and affordable production include (a) poor technical capacity and policies for ensuring quality along the value chain and (b) lack of policy coherence to incentivize local production and lower the manufacture and retail price of MMS. Also, better guidelines and government oversight will be required because not one country had an MMS formulation that matched the globally recommended formulation of the United Nations Multiple Micronutrient Preparation (UNIMMAP).


Subject(s)
Dietary Supplements , Micronutrients , Nutrition Policy , Technology, Pharmaceutical , Developing Countries , Dietary Supplements/economics , Dietary Supplements/standards , Humans , Micronutrients/economics , Micronutrients/standards , Surveys and Questionnaires , Technology, Pharmaceutical/economics , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods , Technology, Pharmaceutical/standards
4.
Zhongguo Zhong Yao Za Zhi ; 38(22): 3797-800, 2013 Nov.
Article in Zh | MEDLINE | ID: mdl-24558853

ABSTRACT

Secondary development of Chinese Patent Medicine (CPM) is an effective and innovation-driven way for the leaping development of Chinese medicine industry with less investment and faster return. Aim to improving the efficacy, safety and batch-to-batch consistency of CPMs, the theory and methodology for the secondary development of CPMs, mode for cultivating superior CPM, approaches to reforming the pharmaceutical technology and the corresponding core technologies were proposed in this paper, which is summarized as 'One objective, Three analyses, Five definitudes and Seven improvements'.


Subject(s)
Drugs, Chinese Herbal/chemistry , Patents as Topic , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods , Translational Research, Biomedical/legislation & jurisprudence , Translational Research, Biomedical/methods , Drugs, Chinese Herbal/economics , Technology, Pharmaceutical/economics , Translational Research, Biomedical/economics
5.
Health Res Policy Syst ; 10: 18, 2012 Jun 06.
Article in English | MEDLINE | ID: mdl-22672351

ABSTRACT

Biopharmaceutical innovation has had a profound health and economic impact globally. Developed countries have traditionally been the source of most innovations as well as the destination for the resulting economic and health benefits. As a result, most prior research on this sector has focused on developed countries. This paper seeks to fill the gap in research on emerging markets by analyzing factors that influence innovative activity in the indigenous biopharmaceutical sectors of China, India, Brazil, and South Africa. Using qualitative research methodologies, this paper a) shows how biopharmaceutical innovation is taking place within the entrepreneurial sectors of these emerging markets, b) identifies common challenges that indigenous entrepreneurs face, c) highlights the key role played by the state, and d) reveals that the transition to innovation by companies in the emerging markets is characterized by increased global integration. It suggests that biopharmaceutical innovators in emerging markets are capitalizing on opportunities to participate in the drug development value chain and thus developing capabilities and relationships for competing globally both with and against established companies headquartered in developed countries.


Subject(s)
Biopharmaceutics/organization & administration , Developing Countries , Drug Industry/organization & administration , Biopharmaceutics/economics , Biopharmaceutics/legislation & jurisprudence , Biopharmaceutics/trends , Brazil , China , Commerce , Diffusion of Innovation , Drug Industry/economics , Drug Industry/legislation & jurisprudence , Drug Industry/trends , Financing, Organized , Government Programs , Health Workforce/statistics & numerical data , India , Intellectual Property , International Cooperation , Legislation, Drug , Marketing , Research/economics , Research/organization & administration , South Africa , Technology, Pharmaceutical/economics , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/organization & administration , Technology, Pharmaceutical/trends
6.
Zhongguo Zhong Yao Za Zhi ; 37(1): 5-8, 2012 Jan.
Article in Zh | MEDLINE | ID: mdl-22741452

ABSTRACT

"Fifteen" since, our country Chinese traditional medicine industry science and technology has made remarkable achievements. In this paper, the development of science and technology policy, Chinese medicine industry, platform construction and other aspects were analyzed, showing 10 years of Chinese traditional medicine industry development of science and technology innovation achievement and development, and on the current development of traditional Chinese medicine industry facing the main tasks and guarantee measures are analyzed.


Subject(s)
Drugs, Chinese Herbal/standards , Technology, Pharmaceutical/trends , China , Drugs, Chinese Herbal/economics , Drugs, Chinese Herbal/history , History, 21st Century , Humans , Patents as Topic , Technology, Pharmaceutical/economics , Technology, Pharmaceutical/history , Technology, Pharmaceutical/legislation & jurisprudence
7.
Hum Vaccin ; 7(1): 125-8, 2011 Jan 01.
Article in English | MEDLINE | ID: mdl-21263222

ABSTRACT

In order to demonstrate the possibility of design-around for patents, we reviewed 40 no-infringement cases out of all 4,760 Federal Circuit Court of Appeals (CAFC) cases decided from 2001 to 2009. Based on this analysis, designing around a biotechnology patent first requires a thorough reading of the patent specification and prosecution history. These written descriptions offer explicit directions about claim meanings or the scope being disclaimed. By statute, claims recite and define the structure or acts of an invention, and serve as tools to determine whether or not a patent is infringed. The next procedure would include omitting a part or property from the claim, reversing the action used in the claim, or changing the claim's structure or range to prevent the new design from falling within the scope of the claim. However, cases where patent infringement was found demonstrated that changing the structure or range not recited in the claim, such as enlarging the diameter, reducing concentration or alerting the shape, still falls within the scope of the patent. Although the 40 cases analyzed in this study were not related to vaccines, the thought process can serve as a guideline for patents related to vaccine development.


Subject(s)
Biotechnology/legislation & jurisprudence , Biotechnology/methods , Legislation, Drug , Patents as Topic , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods , Humans , United States
8.
Food Drug Law J ; 66(4): 587-630, ii, 2011.
Article in English | MEDLINE | ID: mdl-24505830

ABSTRACT

Government-provided exclusivity periods provide pharmaceutical companies with incentives to invest in new drugs. Meanwhile, encouraging competition serves another worthy goal of improving the affordability of medications. Decades ago, the Hatch-Waxman Act set forth provisions attempting to balance these objectives in the context of small-molecule drugs. Recently, the Biologics Price Competition and Innovation Act was enacted to meet similar aims in the context of biologic drugs. This article presents a detailed comparison of these two Acts. While the Acts share many global similarities (e.g., providing exclusivity terms and abbreviated approval processes), many differences are also apparent when analyzing details of the provisions. One area of great departure between the Acts is the requirements of how a generic or follow-on applicant must address patents covering a reference product. After describing these differences, the article presents predictions of how reference product sponsors will adapt their patent-prosecution strategies in view of the new Biologics Act.


Subject(s)
Biological Products/economics , Commerce/economics , Commerce/legislation & jurisprudence , Economic Competition/legislation & jurisprudence , Drugs, Generic/economics , Humans , Orphan Drug Production/economics , Orphan Drug Production/legislation & jurisprudence , Patents as Topic/legislation & jurisprudence , Technology, Pharmaceutical/economics , Technology, Pharmaceutical/legislation & jurisprudence
9.
Acta Pol Pharm ; 67(1): 3-12, 2010.
Article in English | MEDLINE | ID: mdl-20210074

ABSTRACT

Organic solvents are commonly used in the pharmaceutical industry as reaction media, in separation and purification of synthesis products and also for cleaning of equipment. This paper presents some aspects of organic solvents utilization in an active pharmaceutical ingredient and a drug product manufacturing process. As residual solvents are not desirable substances in a final product, different methods for their removal may be used, provided they fulfill safety criteria. After the drying process, analyses need to be performed to check if amounts of solvents used at any step of the production do not exceed acceptable limits (taken from ICH Guideline or from pharmacopoeias). Also new solvents like supercritical fluids or ionic liquids are developed to replace "traditional" organic solvents in the pharmaceutical production processes.


Subject(s)
Drug Contamination/prevention & control , Drug Industry , Organic Chemicals/chemistry , Solvents/chemistry , Technology, Pharmaceutical , Chemistry, Pharmaceutical , Consumer Product Safety , Drug Contamination/legislation & jurisprudence , Drug Industry/legislation & jurisprudence , Drug Packaging , Government Regulation , Guidelines as Topic , Humans , Organic Chemicals/isolation & purification , Quality Control , Solvents/isolation & purification , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods
10.
Nat Biotechnol ; 24(12): 1497-503, 2006 Dec.
Article in English | MEDLINE | ID: mdl-17160049

ABSTRACT

A combination of approaches and compounds-many of which failed to yield immediate results in the past-will ultimately prove invaluable to the drug industry in the ongoing battle against infectious disease.


Subject(s)
Anti-Bacterial Agents/biosynthesis , Drug Design , Drug Resistance, Microbial , Drugs, Investigational/standards , Technology, Pharmaceutical/legislation & jurisprudence , Anti-Bacterial Agents/history , Anti-Bacterial Agents/standards , Drug Industry , Ethnopharmacology/trends , History, 20th Century , History, 21st Century , Humans , Pharmacognosy/trends , Technology, Pharmaceutical/trends
11.
Med Sci (Paris) ; 25(12): 1183-8, 2009 Dec.
Article in French | MEDLINE | ID: mdl-20035703

ABSTRACT

Köhler and Milstein published a method for the manufacture of mouse monoclonal antibodies of predefined specificity 1975 [1], a work rewarded with the Nobel Prize 1984. Since then, the field has developed rapidly with new production methods such as recombinant DNA technology, phage display and genetically engineered animals. Following the first clinical applications with a mouse monoclonal antibody, new classes as chimaeric, humanized and human monoclonal antibodies appeared, with the advantages of less adverse reactions and better efficacy. The development over more than 30 years resulted in more than 25 approved products on the market for various therapeutic applications, e.g. for the treatment of cancer, inflammatory diseases, heart disease and transplantation, and medicines for many more applications are currently under development.


Subject(s)
Antibodies, Monoclonal/therapeutic use , Drug Approval/legislation & jurisprudence , International Agencies/legislation & jurisprudence , Technology, Pharmaceutical/legislation & jurisprudence , Animals , Antibodies, Monoclonal/adverse effects , Antibodies, Monoclonal/classification , Antibodies, Monoclonal, Humanized , Clinical Trials as Topic , Drug Evaluation, Preclinical , Drug Industry/legislation & jurisprudence , European Union , Forecasting , Humans , International Agencies/standards , Mice , Quality Assurance, Health Care , Risk , Safety-Based Drug Withdrawals , United States , United States Food and Drug Administration
12.
J Pharm Sci ; 108(11): 3521-3523, 2019 11.
Article in English | MEDLINE | ID: mdl-31381905

ABSTRACT

We make the case for why continuous pharmaceutical manufacturing is essential, what the barriers are, and how to overcome them. To overcome them, government action is needed in terms of tax incentives or regulatory incentives that affect time.


Subject(s)
Drug Industry/legislation & jurisprudence , Pharmaceutical Preparations/chemistry , Technology, Pharmaceutical/legislation & jurisprudence , Drug and Narcotic Control/legislation & jurisprudence
13.
Drug Discov Today ; 24(6): 1242-1247, 2019 06.
Article in English | MEDLINE | ID: mdl-30953865

ABSTRACT

The Health Law, Policy & Ethics Project at Emory University School of Law and the Human Toxicology Project Consortium of the Humane Society of the United States co-sponsored a symposium on October 23, 2017, to showcase innovations using human-based in silico and in vitro models for drug and device discovery. The goal of the symposium was to introduce researchers and students to exciting new tools and possible future careers that will increase understanding of disease and improve the search for effective therapeutics, while reducing reliance on animal testing. The symposium concluded with a discussion between scientists and lawyers about the legal regulation of new biomedical research technologies.


Subject(s)
Biomedical Research/legislation & jurisprudence , Research Personnel/legislation & jurisprudence , Technology, Pharmaceutical/legislation & jurisprudence , Animals , Humans , United States
14.
Trends Biotechnol ; 26(9): 506-17, 2008 Sep.
Article in English | MEDLINE | ID: mdl-18676047

ABSTRACT

The use of genetically modified (GM) plants to synthesize proteins that are subsequently processed, regulated and sold as pharmaceuticals challenges two very different established regulatory frameworks, one concerning GM plants and the other covering the development of biotechnology-derived drugs. Within these regulatory systems, specific regulations and guidelines for plant-made pharmaceuticals (PMPs)--also referred to as plant-derived pharmaceuticals (PDPs)--are still evolving. The products nearing commercial viability will ultimately help to road test and fine-tune these regulations, and might help to reduce regulatory uncertainties. In this review, we summarize the current state of regulations in different countries, discuss recent changes and highlight the need for further regulatory development in this burgeoning, new industry. We also make the case for the harmonization of international regulations.


Subject(s)
Drug Industry/legislation & jurisprudence , Plants, Genetically Modified , Protein Engineering/legislation & jurisprudence , Biological Products/economics , Biological Products/genetics , Biological Products/supply & distribution , Biotechnology/legislation & jurisprudence , Biotechnology/trends , Canada , Consumer Product Safety , Europe , Humans , Legislation, Drug/trends , Pharmaceutical Preparations/economics , Pharmaceutical Preparations/supply & distribution , Protein Engineering/trends , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/trends , United States
15.
Drug Discov Today ; 13(7-8): 341-6, 2008 Apr.
Article in English | MEDLINE | ID: mdl-18405847

ABSTRACT

Pharmacokinetic/pharmacodynamic (PK/PD) modelling and simulation can be used as an 'applied science' tool to provide answers on efficacy and safety of new drugs faster and at a lower cost. PK/PD modelling can be used from the preclinical phase through all clinical phases of drug development. Optimal use of PK/PD modelling and simulation will lead to fewer failed compounds, fewer study failures and smaller numbers of studies needed for registration. For PK/PD modelling to fulfil its potential in drug development, it needs to be embraced across the industry and regulatory agencies, and more education on this topic is required.


Subject(s)
Computer Simulation , Drug Design , Models, Biological , Pharmacokinetics , Animals , Clinical Trials as Topic , Drug Evaluation, Preclinical , Humans , Pharmacology/trends , Reproducibility of Results , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods
16.
Eur J Pharm Sci ; 34(4-5): 223-5, 2008 Aug 07.
Article in English | MEDLINE | ID: mdl-18514494

ABSTRACT

The key elements of the symposium comprise the fact that for biosimilars--as opposed to generic small molecules--apart from comparable bioavailability also efficacy and safety data are required by registration authorities. Moreover, the importance of transgenic animals in efficacy and safety testing was treated as well as the different forms of immunotoxicity of biopharmaceuticals. Transgenic animals can also be used for the detection of aggregates of a biopharmaceutical. Finally, referral was made to the post-cytokine storm-incident (TGN1412)-developed first-in-human guideline, in which is prescribed that future clinical trials with biopharmaceuticals should start with a low dose, the MABEL.


Subject(s)
Drug Approval , Government Regulation , Proteins/therapeutic use , Technology, Pharmaceutical , Animals , Animals, Genetically Modified , Dose-Response Relationship, Drug , Drug Evaluation, Preclinical , Humans , Models, Animal , Practice Guidelines as Topic , Proteins/adverse effects , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/methods , Treatment Outcome
17.
Theriogenology ; 112: 75-81, 2018 May.
Article in English | MEDLINE | ID: mdl-28716338

ABSTRACT

Innovation in animal health pharmaceuticals is important to address unmet and underserved medical needs, and often comes from products initially developed for human medicine. The purpose of the review is to help readers understand how breakthroughs from human biotechnology may be developed for use in veterinary medicine, while understanding the key drivers to success, the difficulties of regulatory approval, and the realistic risks and rewards of developing applications for animals. The types of human drugs which may be useful for veterinary applications are reviewed, including examples. The regulatory path is discussed, with a review of the various oversight agencies, and the categories of data required to be submitted, including safety, efficacy, manufacturing, environmental impact and human food safety. In conclusion, the cost, development time, and barriers to innovation in veterinary medical pharmaceuticals are discussed.


Subject(s)
Legislation, Drug , Technology, Pharmaceutical/trends , Veterinary Drugs , Animal Welfare , Animals , Biotechnology , European Union , Food Safety , Humans , Technology, Pharmaceutical/legislation & jurisprudence , United States , United States Department of Agriculture , United States Environmental Protection Agency , United States Food and Drug Administration
18.
J Pharm Biomed Anal ; 151: 274-283, 2018 Mar 20.
Article in English | MEDLINE | ID: mdl-29413975

ABSTRACT

A calibration model for in-line API quantification based on near infrared (NIR) spectra collection during tableting in the tablet press feed frame was developed and validated. First, the measurement set-up was optimised and the effect of filling degree of the feed frame on the NIR spectra was investigated. Secondly, a predictive API quantification model was developed and validated by calculating the accuracy profile based on the analysis results of validation experiments. Furthermore, based on the data of the accuracy profile, the measurement uncertainty was determined. Finally, the robustness of the API quantification model was evaluated. An NIR probe (SentroPAT FO) was implemented into the feed frame of a rotary tablet press (Modul™ P) to monitor physical mixtures of a model API (sodium saccharine) and excipients with two different API target concentrations: 5 and 20% (w/w). Cutting notches into the paddle wheel fingers did avoid disturbances of the NIR signal caused by the rotating paddle wheel fingers and hence allowed better and more complete feed frame monitoring. The effect of the design of the notched paddle wheel fingers was also investigated and elucidated that straight paddle wheel fingers did cause less variation in NIR signal compared to curved paddle wheel fingers. The filling degree of the feed frame was reflected in the raw NIR spectra. Several different calibration models for the prediction of the API content were developed, based on the use of single spectra or averaged spectra, and using partial least squares (PLS) regression or ratio models. These predictive models were then evaluated and validated by processing physical mixtures with different API concentrations not used in the calibration models (validation set). The ß-expectation tolerance intervals were calculated for each model and for each of the validated API concentration levels (ß was set at 95%). PLS models showed the best predictive performance. For each examined saccharine concentration range (i.e., between 4.5 and 6.5% and between 15 and 25%), at least 95% of future measurements will not deviate more than 15% from the true value.


Subject(s)
Drug Compounding/methods , Models, Chemical , Spectroscopy, Near-Infrared/methods , Tablets/analysis , Technology, Pharmaceutical/legislation & jurisprudence , Calibration , Chemistry, Pharmaceutical , Drug Compounding/instrumentation , Excipients/analysis , Least-Squares Analysis , Spectroscopy, Near-Infrared/instrumentation , Technology, Pharmaceutical/instrumentation
19.
AAPS J ; 20(6): 101, 2018 09 12.
Article in English | MEDLINE | ID: mdl-30209693

ABSTRACT

Three-dimensional (3D) printing was discovered in the 1980s, and many industries have embraced it, but the pharmaceutical industry is slow or reluctant to adopt it. Spiritam® is the first and only 3D-printed drug product approved by FDA in 2015. Since then, the FDA has not approved any 3D-printed drug product due to technical and regulatory issues. The 3D printing process cannot compete with well-established and understood conventional processes for making solid dosage forms. However, pharmaceutical companies can utilize it where mass production is not required; rather, consistency, precision, and accuracy in quality are paramount. There are many 3D printing technologies available, and not all of them are amenable to pharmaceutical manufacturing. Each 3D technology has certain prerequisites in terms of material that it can handle. Some of the pertinent technical and regulatory issues are as follows: Current Good Manufacturing Practice, in-process tests and process control, and cleaning validation. Other promising area of 3D printing use is printing medications for patients with special needs in a hospital and/or pharmacy setting with minimum regulatory oversight. This technology provides a novel opportunity for in-hospital compounding of necessary medicines to support patient-specific medications. However, aspects of the manufacturing challenges and quality control considerations associated with the varying formulation and processing methods need to be fully understood before 3D printing can emerge as a therapeutic tool. With these points in mind, this review paper focuses on 3D technologies amenable for pharmaceutical manufacturing, excipient requirement, process understanding, and technical and regulatory challenges.


Subject(s)
Drug Industry/methods , Printing, Three-Dimensional/legislation & jurisprudence , Quality Control , Technology, Pharmaceutical/methods , Drug Delivery Systems/methods , Drug Industry/legislation & jurisprudence , Drug Industry/standards , Excipients/chemistry , Pharmacy Service, Hospital/legislation & jurisprudence , Pharmacy Service, Hospital/methods , Pharmacy Service, Hospital/standards , Technology, Pharmaceutical/legislation & jurisprudence , Technology, Pharmaceutical/standards , United States , United States Food and Drug Administration/legislation & jurisprudence
20.
J Pharm Sci ; 96(10): 2566-81, 2007 Oct.
Article in English | MEDLINE | ID: mdl-17701994

ABSTRACT

A review is provided on the general topic of the compatibility of plastic materials with pharmaceutical products, with specific emphasis on the safety aspects associated with extractables and leachables related to such plastic materials.


Subject(s)
Consumer Product Safety , Drug Contamination/prevention & control , Drug Packaging , Pharmaceutical Preparations/chemistry , Plastics/chemistry , Technology, Pharmaceutical/methods , Consumer Product Safety/legislation & jurisprudence , Europe , Guidelines as Topic , Solubility , Technology, Pharmaceutical/legislation & jurisprudence , United States , United States Food and Drug Administration
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