scholarly journals Role of green chemistry in pharmaceutical industry: a review

2021 ◽  
Vol 23 (12) ◽  
pp. 291-299
Author(s):  
Ripudaman M Singh ◽  
◽  
Riya Pramanik ◽  
Subhajit Hazra ◽  
◽  
...  

Sustainability is the ability to nurture or support a process for an extended period without compromising the needs of the future generation. Sustainable chemistry is a term that refers to the creation of chemical products and processes that decreases or remove the use and production of hazardous substances. Even though sustainable and green technologies have evolved in other scientific fields, their use in the pharmaceutical industry is still initial stage. Therefore, we need to work in green chemistry to ensure its growth in the pharmaceutical industry. Thus, the current review aimed to highlight the need for green chemistry or sustainable chemistry and its principles and its application in the pharmaceutical industry to practice environment-friendly production of pharmaceutical products and reduce or stop the production of harmful intermediates and products during the synthesis process.

2000 ◽  
Vol 72 (7) ◽  
pp. iii
Author(s):  
Torbjörn Norin

Modern chemistry is one of the essential tools in pursuing better medical care, more efficient telecommunications and informatics, and increased agricultural production. However, certain chemicals produced and used in large quantities might cause various hazards in environmental sectors, owing to their global (trans-boundary) translocation, as well as their intrinsically hazardous properties. To reduce environmental risk of such chemicals, international regulatory measures have already been taken [e.g., in response to the initiatives of the Intergovernmental Forum in Chemical Safety (IFCS)], including legally binding implementations and national capacity building in developing countries. Herein lies the urgent need for promoting worldwide research into green chemistry (sustainable chemistry), in which the invention and application of chemical products and processes are designed to reduce or to eliminate the use and generation of hazardous substances.Indeed, green chemistry should encompass a variety of disciplines of fundamental chemistry in IUPAC, to encourage new trends of chemical research. Moreover, results of these researches could be effectively applied for solving environmental problems related to the production and use of chemicals and to create a new chemical industry in the future. As such, green chemistry research conforms completely to the mission-oriented activity of IUPAC to meet regulatory requirements for achieving environmentally sound management of chemicals. We sincerely hope that the present special issue highlighting the state of the art and future prospects of green chemistry research will encourage all chemists who intend to serve society through their research efforts.J. MiyamotoPast-President of IUPAC Chemistry and the Environment DivisionThe increasing knowledge in natural sciences and the application of this knowledge are the driving forces for the development and welfare of mankind. Chemistry plays a central role in this development. Chemistry provides the molecular understanding of physical properties of materials and other matters and thus closely interacts with physics. Chemistry also provides the molecular understanding of living systems and is the basis for modern biology and medicine. The development and opportunities of synthetic chemistry have opened a new dimension for tailor-made materials and compounds for specific purposes.The driving forces for developments in chemistry have been very strong, and there is a demand for new and efficient processes and chemicals. Aspects of sustainable and environmentally friendly processes and chemicals have sometimes been lagging behind this demand. Fortunately, chemistry also provides the tools for a green and sustainable development. Knowledge in this general area has to be integrated into the planning of all research and development in chemistry. There are specific research topics related to the development of green and sustainable processes, which need the input of new technology and novel chemistry. The present Symposium-in-Print provides an overview of recent research and development in the field. We hope that it will stimulate further activities in the field. It is planned as a first step in an IUPAC action on this subject. The IUPAC Organic and Biomolecular Chemistry Division is grateful to its Subcommittee on Organic Synthesis and particularly Professor Pietro Tundo for initiating and engaging in this action, and to him and Profs. David StC. Black and Sofia Memoli for editing the Symposium-in-Print.Torbjörn NorinPresident of IUPAC Organic and Biomolecular Chemistry Division


2020 ◽  
Vol 5 (10) ◽  
Author(s):  
Saraswathi Narayan

AbstractGreen Chemistry is also known as sustainable chemistry or benign chemistry. It is concerned with developing processes and products that reduce or eliminate the use of and generation of hazardous substances. In the 21st century today’s students are particularly interested in matters that affect their health and well-being of the planet. To deal with such challenges of students the concept of Green and Sustainable Chemistry not only offers an excellent opportunity to address some of these concerns, but also provides us with a useful way to advance the way we do chemistry. Green chemistry is an ideal focus for undergraduate science education. A strong laboratory component is at the heart of many science courses. In this chapter some of the green chemistry principles and methodologies used to device certain undergraduate laboratory experiments and research are discussed.


2012 ◽  
Vol 84 (3) ◽  
pp. vi ◽  
Author(s):  
Pietro Tundo

The first Special Topic issue devoted to green chemistry was published in Pure and Applied Chemistry in July 2000 [Pure Appl. Chem.72, 1207-1403 (2000)]. Since then, three collections of works have been published, arising from the recently launched IUPAC series of International Conferences on Green Chemistry:- 1st International Conference on Green Chemistry (ICGC-1), Dresden, Germany, 10-15 September 2006: Pure Appl. Chem.79, 1833-2100 (2007)- 2nd International Conference on Green Chemistry (ICGC-2), Moscow, Russia, 14-20 September 2008: Pure Appl. Chem.81, 1961-2129 (2009)- 3rd International Conference on Green Chemistry (ICGC-3), Ottawa, Canada, 15-18 August 2010: Pure Appl. Chem.83, 1343-1406 (2011)This Special Topic issue forms part of the series on green chemistry, and is an outcome of IUPAC Project No. 2008-016-1-300: “Chlorine-free Synthesis for Green Chemistry” previously announced in Chemistry International, May-June, p. 22 (2011).The IUPAC Subcommittee on Green Chemistry was founded in July 2001 and has selected the following definition for green chemistry [1]: “The invention, design and application of chemical products and processes to reduce or to eliminate the use and generation of hazardous substances” [2].Much controversy persists about the appropriate terminology to describe this new field of research. Which term should be selected, “green chemistry” or “sustainable chemistry”? Perhaps consensus can be achieved if different purposes and interests of chemists are reconciled. If we are involved in fundamental research devoted to the discovery of new reaction pathways and reagents, “green” is the best word because it defines these intents, thus the term “green chemistry” would be the best name for this field of research. If we are interested in exploitation of a process or a product that must be profitable, then such chemical manufacture must be sustainable by many criteria (price, competition, profit, environment, etc.), and, accordingly, “sustainable chemistry” is the term that best defines this objective.This Special Topic issue has been designed with the intent to explore the restriction, or preferably prevention, of the use of halogenated compounds, whenever feasible, through the assembly and reporting of already identified information. This intent has been pursued through innovative synthetic pathways using clearly identified production drivers (e.g., energy consumption, environmental impact, economical feasibility, etc.). In past decades, scientific knowledge and feasible technologies were unavailable, but we now have enough expertise to pursue discontinuation of hazardous and toxic reagents. In fact, the replacement of reagents that are toxic, dangerous, and produced by eco-unfriendly processes is still an underdeveloped area of chemistry today.Pietro TundoProject Co-chair1. For a short history of green chemistry, see: P. Tundo, F. Aricò. Chem. Int.29(5), (2007).2. P. Anastas, D. Black, J. Breen, T. Collins, S. Memoli, J. Miyamoto, M. Polyakoff, W. Tumas, P. Tundo. Pure Appl. Chem.72, 1207 (2000).


2017 ◽  
Author(s):  
◽  
Sudhir Ravula

[ACCESS RESTRICTED TO THE UNIVERSITY OF MISSOURI AT AUTHOR'S REQUEST.] Green Chemistry, also called as Sustainable Chemistry, envisions minimum hazard to improve the efficiency and performance of materials while designing new chemical processes. In general, Green Chemistry is defined as " ... the utilization of a set of principles that reduces or eliminates the use or generation of hazardous substances in the design, manufacture, and application of chemical products."[1] In recent decades, there is widespread recognition of the need to adopt cleaner, sustainable practices to enhance the quality and control of commercial products through a knowledge based approach. The goal for the researchers in sustainable chemistry is to meet the objective without compromising the basic needs of future generations. Nanotechnology, much like Green Chemistry, has revolutionized the fundamentals of all fields, serving as a classic example for emerging products in science and technologies. Despite significant achievements involving nanomaterials, the hazardous chemicals and toxicities associated with them are not fully addressed, which causes a major impact on the environment. These phenomena were especially observed for the use of nanocatalysts. Several greener approaches were utilized to produce nanomaterials or nanoparticles, which avoids toxic reducing agents such as borohydrides or hydrazine. However, chemists need to develop simple and cost-effective approaches for sustainable nanocatalysts to meet global challenges. The overall focus of this doctoral dissertation has been paid to the synthesis, controlled surface modification, and functionalization of distinct types of nanoparticles and nanocomposites through sustainable chemical approaches for environmental and biological applications. As a two-dimensional material, molybdenum disulfide (MoS2) has drawn wide attention due to its fascinating properties and exciting application prospects. However, in order to access these properties, which lie within single- or few-layer nanosheets, the inter-sheet van der Waals interactions within the bulk material must be adequately disrupted to exfoliate MoS2 to atomic thicknesses. Chapter 2 present the sonication-assisted aqueous phase exfoliation of bulk MoS2 into dispersed single- or few-layer nanosheets using popular culinary hydrocolloids. In addition, the sterically stabilized nanosheets were successfully decorated with gold nanoparticles via an in-situ reduction by the hydrocolloids to yield plasmonic nanocomposites exhibiting excellent catalytic activity in 4-nitrophenol (4-NP) reduction. Chapter 3 describes one-pot aqueous photo-assisted route to produce tailored metal nanoparticles decorated aminoclay nanosheets. This method uses no heating or external reducing agent (e.g., NaBH4) nor is photocatalyst required. Finally, these nanohybrids were tested as a dual catalyst for 4-NP reduction or antimicrobial activity. Layered transition metal dichalcogenides (TMDs) have attracted increased attention due to their enhanced hydrogen evolution reaction (HER) performance. Chapter 4 accounts the successful synthesis of few-layered MoS2/rGO, SnS2/rGO, and (MoS2)x(SnO2)1-x/rGO nanohybrids anchored on reduced graphene oxide (rGO) through a facile hydrothermal reaction in the presence of ionic liquids (ILs) as stabilizing, delayering agents. Linear sweep voltammetry measurements reveal that incorporation of Sn into the ternary nanohybrids (as a discrete SnO2 phase) greatly reduces the overpotential by 90--130 mV relative to the MoS2 electrocatalyst. The hierarchical structures and large surface areas possessing exposed, active edge sites make few layered (MoS2)x(SnO2)1-x/rGO nanohybrids promising nonprecious metal electrocatalysts for the HER. Conventional ILs have detectable vapor pressures, however, they are still insignificant near ambient temperatures compared with traditional molecular solvents. In Chapter 5, a simple, straightforward, and reliable isothermal gravimetric measurements were conducted on various ILs, deep eutectic solvents (DES), polymeric ionic liquids, protic ionic liquids, and molecular solvents to estimate their vapor pressures with high accuracy. The vapor pressure of ILs and DESs are in the range of 0.1 - 30 Pa at 100 - 250 [degrees]C and 3 - 161 Pa at 60 - 160 [degrees]C, respectively. Moreover, our study elucidates the trends in vapor pressure and ionic constituent's role. Based on the vapor pressure data, an investigator can readily design specific fluids on the mode of applications. In Chapter 6 reports a template-free strategy to attain a hierarchically mesoporous carbon from the cyclotrimerization of alkyne-functionalized ionic liquids (AFILs) as carbon precursors paired with paramagnetic anions. Thus, the current AFILs are shown to be viable precursors to porous carbon materials with several interesting applications, including the sorption of dyes (cationic methylene blue (MB) and anionic thiazine red R (TRR)) from a contaminated aqueous stream and their subsequent degradation by employing the Fenton reaction. In particular, the mesoporous carbons were successfully applied as a selective adsorbent for separation of binary-dye mixtures (MB + TRR). Importantly, the Fe-AFILs@C can be easily removed from the aqueous solution after sorption process, and can be easily regenerated with a simple ethanol-washing step.


2016 ◽  
Vol 2 (4) ◽  
pp. 234-241
Author(s):  
Mohammed Al-Shakka ◽  
Ebtesam Abood ◽  
Adel Al-Dhubhany ◽  
Sami Abdo Radman Aldubai ◽  
Khaled Said ◽  
...  

Because of the almost-instant connection with the welfare and well-being of individuals, pharmaceutical industry stands prominently as a very important factor for the improvement and progress of a healthy productive nation. These days, pharmaceutical industry thrives as one of the largest and exponentially expanding global industries. Nonetheless, millions of people in low income developing countries, have to suffer from the fatal consequences of the inaccessibility and non-availability of essential drugs. This is also happening in Yemen, where the pharmaceutical manufacturers sector have to face up to many challenges. The Yemen Drug Company (YEDCO) was founded in 1964 by the Yemeni government as it collaborated with private investors. It was endorsed as a company with the expertise in the medicinal drug marketing. YEDCO started its work by taking in drugs from foreign companies and then locally marketing and distributing them. In 1982, YEDCO built the first medicinal factory for drugs in Sana’a. Since then, seven companies were set up to manufacture medicines in Yemen. The expanding population has led to the need to have more pharmaceutical products. It may be understandable that pharmaceutical manufacturer companies are also hit by the political crisis in the country. Inadequate amount of fuel and raw material as well as low security status were some of the underlying factors behind these ill-effects in Yemen. Imported drugs make up about nearly 90% % of the pharmaceutical market compared to 10% drugs from the domestic market. This situation has led to an additional burden being shouldered by the national economy, where Yemen spends about US$263 million annually on pharmaceutical drugs, in reference to the national Supreme Drugs Authority. Although there is a very quick growth in the population and drugs consumption, the pharmaceutical industry has not been very active, where global pharmaceutical products play their role dominantly on the domestic market. The pharmaceutical production necessitates skilled human resources like university graduates. By contrast, the government and the private sector should also motivate the pharmaceutical industry and make use of the local employment


Author(s):  
Vadim M. Vasilkevich ◽  
Ruslan V. Bogdanov ◽  
Elena V. Drozdova

Introduction. The working conditions of pharmaceutical industry workers are characterized by the combined effect of unfavorable factors of the production environment, among which the leading one is chemical. The aim of study is to substantiate the basic principles and criteria for hygienic regulation of pharmaceutical products in their production to ensure safe working conditions for employees based on the results of their own research and existing requirements of technical regulations. Materials and methods. Analysis of working conditions and the prevalence of health disorders in pharmaceutical workers (according to literature data), toxicological studies of pharmaceutical substances on laboratory animals, scientific justification of hygiene standards in the air of the working area. Results. Among employees of the pharmaceutical industry, the predominant forms of production-related health disorders are diseases of the respiratory system, as well as skin dermatitis of allergic origin, liver and biliary tract diseases. Based on the results of experimental studies of domestic pharmaceutical products for the treatment of cardiovascular, oncological and mental diseases that have priority socio-economic significance, the basic principles and features of the practice of justifying the hygienic standards of medicines in the air of the working area are developed and systematized. Conclusions. During hygienic rationing of medicines, it is necessary to use a differentiated approach that allows, based on the analysis of information about the chemical structure, physical and chemical characteristics, production conditions, pharmacotherapeutic activity, and the results of studying the toxic effect in an experiment on laboratory animals, to determine the maximum permissible content in the air of the working area of medicines or to justify the prohibition of isolation with reasoned recommendations for their safe production.


2014 ◽  
Vol 4 (1) ◽  
Author(s):  
Rupesh Rastogi ◽  
Virendra Kumar

The first legislation in India relating to patents was the Act VI of 1856. The Indian Patents and Design Act, 1911 (Act II of 1911) replaced all the previous Acts. The Act brought patent administration under the management of Controller of Patents for the first time. After Independence, it was felt that the Indian Patents & Designs Act, 1911 was not fulfilling its objective. Various comities were constituted to recommend, framing a patent law which can fulfill the requirement of Indian Industry and people. The Indian Patent Act of 1970 was enacted to achieve the above objectives. The major provisions of the act, provided for process, not the product patents in food, medicines, chemicals with a term of 14 years and 5-7 for chemicals and drugs. The Act enabled Indian citizens to access cheapest medicines in the world and paved a way for exponential growth of Indian Pharmaceutical Industry. TRIPS agreement, which is one of the important results of the Uruguay Round, mandated strong patent protection, especially for pharmaceutical products, thereby allowing the patenting of NCEs, compounds and processes. India is thereby required to meet the minimum standards under the TRIPS Agreement in relation to patents and the pharmaceutical industry. India’s patent legislation must now include provisions for availability of patents for both pharmaceutical products and processes inventions. The present paper examines the impact of change in Indian Patent law on Pharmaceutical Industry.


2020 ◽  
Vol 5 (5) ◽  
Author(s):  
Laura Raimondi ◽  
Chiara Faverio ◽  
Monica Fiorenza Boselli

AbstractChiral molecules hold a mail position in Organic and Biological Chemistry, so pharmaceutical industry needs suitable strategies for drug synthesis. Moreover, Green Chemistry procedures are increasingly required in order to avoid environment deterioration. Catalytic synthesis, in particular organocatalysis, in thus a continuously expanding field. A survey of more recent researches involving chiral imidazolidinones is here presented, with a particular focus on immobilized catalytic systems.


Processes ◽  
2021 ◽  
Vol 9 (7) ◽  
pp. 1097
Author(s):  
Francisco J. Hernández Fernández ◽  
Antonia Pérez de los Ríos

Sustainable chemical process engineering results from applying the principles of green chemistry or sustainable chemistry to chemical process engineering [...]


2021 ◽  
Author(s):  
Vânia G. Zuin ◽  
Ingo Eilks ◽  
Myriam Elschami ◽  
Klaus Kümmerer

Central role of future professionals in chemistry to promote alternatives towards sustainability.


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