2009
DOI: 10.1177/0306312708097288
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The Long History of Molecular Electronics

Abstract: Long before nanotechnology, the semiconductor industry was miniaturizing microelectronic components. Since the late 1950s, that industry's dominant material has been silicon. Yet there have always been competitors to silicon that supporters hope will upend the semiconductor industry. It is impossible to understand this industry without a more complete picture of these alternatives — how they come about, how they capture organizational support, why they fail. It is equally impossible to understand nanotechnolog… Show more

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Cited by 73 publications
(11 citation statements)
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References 42 publications
(27 reference statements)
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“…In general, recent works on the use of nanoemulsions with EOs as active agents in the control of diseases caused by different agents have reported the diversity of targets and efficiency when compared to other agents already used, as well as their simplicity of production [62,63]. The technology of nanoemulsion production provides several advantages with respect to the dispersed active principle and formulation stability, such as (i) better protection of the active against chemical or biological degradation, (ii) lower probability of creaming or sedimentation of droplets, (iii) greater contact surface of the target with the droplets that contains the active agent, (iv) possibility of dispersion of immiscible substances in a certain solvent, which in the case of EOs is usually water, besides the simplicity of production, (v) low cost of reagents, and (vi) less residual damage to the environment when compared to synthetic products, widely used in modern times [22,27,63].…”
Section: Biological Activities Of Essential Oil Nanoemulsionsmentioning
confidence: 99%
“…In general, recent works on the use of nanoemulsions with EOs as active agents in the control of diseases caused by different agents have reported the diversity of targets and efficiency when compared to other agents already used, as well as their simplicity of production [62,63]. The technology of nanoemulsion production provides several advantages with respect to the dispersed active principle and formulation stability, such as (i) better protection of the active against chemical or biological degradation, (ii) lower probability of creaming or sedimentation of droplets, (iii) greater contact surface of the target with the droplets that contains the active agent, (iv) possibility of dispersion of immiscible substances in a certain solvent, which in the case of EOs is usually water, besides the simplicity of production, (v) low cost of reagents, and (vi) less residual damage to the environment when compared to synthetic products, widely used in modern times [22,27,63].…”
Section: Biological Activities Of Essential Oil Nanoemulsionsmentioning
confidence: 99%
“…New packaging methods such as 3D-stacking will continue the miniaturisation process after solving the associated problems such as high heat density and low manufacturing yield (Das and Markovich 2010;Kyungsu et al 2015;Qiang et al 2012). Nanotechnology especially molecular electronics has a high chance to take over the driver seat for the miniaturisation journey despite its controversial and unfulfilled promises during its up and down in the last 40 years (Choi and Mody 2009;Kelly and Mody 2015). Recent research shows promising results in single-molecular transistor, DNA computing, and nanotube devices that enables followers of molecular electronics to see the light at the end of the long dark tunnel (Boruah and Dutta 2015;Strickland 2016).…”
Section: Disappearing User Interfacesmentioning
confidence: 99%
“…Molecular electronics, which focuses on the single molecules in the electronic junctions used to make electronic devices, has been extensively studied. Molecular electronics aims at investigating single molecules at electrical junctions for fabricating electronic devices, which has been extensively investigated (Cui, 2001;Choi and Mody, 2009;Herrer et al, 2018). A variety of methods have been developed to measure the electrical properties of single molecules by constructing metal-moleculemetal junctions, including scanning probes techniques such as scanning tunneling microscopy (STM) techniques (Xu and Tao, 2003;Haiss et al, 2006;Venkataraman et al, 2006;Chen et al, 2020;Yu et al, 2020), conducting atomic force microscopy (AFM) (Cui, 2001), mechanically controlled break junctions (MCBJ) (Reed et al, 1997;Smit et al, 2002), and nanoparticle dimers (Dadosh et al, 2005;Fernandez et al, 2014).…”
Section: Introductionmentioning
confidence: 99%