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Grant: Discovery Grants Program - Individual

Wilfrid Laurier University

$24,000.00

Model coupling in multiscale mathematics and properties of nanostructures

EF 2014-15

Résumé
Applications provide many examples of physical and biological systems whose properties depend inherently on a multitude of spatial and temporal scales. Studies of such systems and their properties at the nanoscale are particularly intriguing and would be impossible without mathematical models leading to some of the most challenging problems in modern applied mathematics. Many such systems have brought and will be bringing tremendous changes in our everyday lives. Today, we cannot imagine our life without telecommunications systems utilizing nanostructure lasers, without nanostructure-based electron devices encountered everywhere, from satellite television systems to virtually every home as part of CD players. Solar cells incorporating such nanostructures are already used extensively in space and terrestrial programs and are essential component of green-energy development programs, while the usage of nanostructures in the areas ranging from bioimaging and biosensing to cosmetics and personal care products continue to grow.In order to use these structures efficiently, we need to know their properties which are truly fascinating. For example, the color of a piece of gold, while remains golden as it reduces to microns, changes substantially in the regime of nanometers. Decreasing the size of carbon materials to the nanoregime leads to systematic increases in their strength. We enter the entire new realm - the realm of the nanoworld where mathematics offers primary tools for its systematic studies. In this proposal we will first develop mathematical models for studies of properties of physical and biological stuctures at the nanoscale. Then, we will undertake a systematic analysis of such mathematical models for two classes of such nanostructures: low dimensional nanostructures, such as quantum dots or ""artifical atoms"", and Ribonucleic Acid (RNA) nanostructures. Finally, based on this analysis, we will study properties of these nansostructures, answering a number of natural questions that remain unexplored today.
Programme
Discovery Grants Program - Individual
Emplacement
Ontario, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
NSERC's Awards Data

Tel que publié

Application id
312601-2010
Name nom
Melnik, Roderick
Department département
Mathematics
Organization id
35
Institution établissement
Wilfrid Laurier University
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2014
Competition year année de concours
2010
Award amount
24000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1508
Committee name en
Mathematics and Statistics
Committee name fr
Mathématiques et statistique
Area of application code
405
Area of application group en
Environment
Area of application group fr
Environnement
Area of application en
Modelling and mathematical simulation of natural processes
Area of application fr
Modélisation et simulation mathématique des processus naturels
Research subject code
2960
Research subject group en
Applied mathematics
Research subject group fr
Mathématiques appliquées
Research subject en
Mathematical modelling
Research subject fr
Modélisation mathématique
Partie
5
Nb partie
5
Application title
Model coupling in multiscale mathematics and properties of nanostructures
Keyword
NSERC
Application summary
Applications provide many examples of physical and biological systems whose properties depend inherently on a multitude of spatial and temporal scales. Studies of such systems and their properties at the nanoscale are particularly intriguing and would be impossible without mathematical models leading to some of the most challenging problems in modern applied mathematics. Many such systems have brought and will be bringing tremendous changes in our everyday lives. Today, we cannot imagine our life without telecommunications systems utilizing nanostructure lasers, without nanostructure-based electron devices encountered everywhere, from satellite television systems to virtually every home as part of CD players. Solar cells incorporating such nanostructures are already used extensively in space and terrestrial programs and are essential component of green-energy development programs, while the usage of nanostructures in the areas ranging from bioimaging and biosensing to cosmetics and personal care products continue to grow.In order to use these structures efficiently, we need to know their properties which are truly fascinating. For example, the color of a piece of gold, while remains golden as it reduces to microns, changes substantially in the regime of nanometers. Decreasing the size of carbon materials to the nanoregime leads to systematic increases in their strength. We enter the entire new realm - the realm of the nanoworld where mathematics offers primary tools for its systematic studies. In this proposal we will first develop mathematical models for studies of properties of physical and biological stuctures at the nanoscale. Then, we will undertake a systematic analysis of such mathematical models for two classes of such nanostructures: low dimensional nanostructures, such as quantum dots or ""artifical atoms"", and Ribonucleic Acid (RNA) nanostructures. Finally, based on this analysis, we will study properties of these nansostructures, answering a number of natural questions that remain unexplored today.