Impacts of Nanotechnology

Impacts of Nanotechnology

DOI: 10.4018/978-1-6684-8325-1.ch002
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Abstract

This chapter presents an overview of positive and negative nanotechnology impacts discussed on a broader plane. Nanotechnology's central tenet is the utilization of sub-micrometer-sized particles for use in a wide variety of disciplines, including medicine, cosmetics, agriculture, and the food industry. Nanotechnology's advantages include better agricultural production, quality in pharmaceuticals, targeted drug delivery, and sensor applications. In order to move forward with its growth, it is crucial to correctly recognize the potential benefits and unintentional threats of nanomaterials to our surroundings. Nanotechnology is more complex, more focused, and a balanced interpretation of risks and benefits is very important to analyze.
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Background Of Nanotechnology

Structural development and application with basic, new and valuable functional properties on basis of structural size within range 1-100 nanometers constitute nanotechnology by involving creation (manipulation or discovery) of structural materials at atomic/molecular/supermolecular atomic scale level (Mansoori & Soelaiman, 2005). Nanotechnology development phase still continues as it starts from 1960’s with biotechnological evolution in 1980’s by allowing unlimited characteristic applications discovery making it 21st century technology including manufacturing industry, human health in terms of nanomedicine development, energy conversion by protecting environment to act as economic driving force (Sheeparamatti, Sheeparamatti, & Kadadevaramath, 2007). US national science foundation (NSF) worldwide estimated that by end of year 2015, about products of worth 1 trillion US dollars that are incorporating nanotechnology as a key component using manpower of about 2 million workers (Hulla, Sahu, & Hayes, 2015; Roco, Mirkin, & Hersam, 2010; Williams & Alivisatos, 2013). Research and development industry investment exceeds about 6 billion US dollars by 2006 keeping in view global risk management factor by holding potential applications to solve technical, economical, ecological and social problems (Kay & Shapira, 2009). National research and development programs during last few years have a tendency to revolutionized digitally involving cognitive sciences owing to funding by agencies by regulating impacts on human health and environment as well (Roco, 2011).

Defining the Term “Impact”

As nanotechnology is continuously investigated by considering public-private as well as commercial research institutions but technological innovation is another question. For technological adoption a scenario needs to be developed but for impact factor calculation, what will be the probability of adoption of that scenario is important. From this we can formulate into a relation as:

Actual impact=Theoretical + Probability of adoption

For making a decision being rational regarding innovation adoption decision has to be made on basis of J-value termed as Judgement value introduced to world by Thomas while considering adoption of safety procedures in nuclear industry (Bhushan, 2017; Malik, Muhammad, & Waheed, 2023; Rickerby & Morrison, 2007). Safety measures designing purpose is to enhance quality while considering that measurement cost can reduces life quality but remember key point that decrease must not be approachable to the increase. In case of nanotechnology, cost means applications development with consideration of benefits enhancement in terms of life quality changing measures.

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