The advent of graphene technology has led to many promising new opportunities for future applications in the field of electronics, biotechnology, and nanomedicine to aid in the diagnosis and treatment of a variety of debilitating diseases.
With unique properties such as high tensile strength and conductivity, they have been explored in the areas of electronics, biotechnology, medicinal drug delivery, cosmetics, material science, and aerospace engineering.
Over the past decade or so researchers have been developing nanotechnology applications in a broad range of fields including engineering, electronics, biotechnology, medicine, power generation and environmental protection.
Interestingly, even though Engineering Design and Problem Solving had four prerequisites, the enrollment rate in the last year was higher than two courses, Digital Electronics and Practicum in STEM, with no prerequisites and three courses, Electronics, Biotechnology, and Advanced Biotechnology, with recommended prerequisites.
Multiphase transport phenomena must be considered in the design and optimization of many engineering systems such as heat exchangers, heat pipes, cooling devices for electronics, biotechnology, nanotechnology, food processing equipment, and fuel cells.
Since the discovery of carbon nanotubes in 1991 [1], extensive research has been carried out on one-dimensional (1D) tubular nanostructures, owing to their unique size-dependent properties and remarkable potential applications in electronics, optoelectronics, catalysis, biotechnology, separation, and so on [2 7].
Application of nanoscale materials (NMs) displays a rapidly increasing trend in electronics, optics, chemical catalysis, biotechnology, and medicine due to versatile nature of NMs and easily adjustable physical, physicochemical, and chemical properties.
If we export our best software and engineering jobs to developing countries, it is less likely that America will benefit from the next generation innovations in nanotechnology, electronics, and biotechnology.
Hence, the "electron" in "electronics".
Considerable effort has been devoted to the study of gold nanoparticles with variable size and shape due to their unique geometry-dependent optical, electronic, and catalytic properties in electronics and optics [1 5], particularly in the fields of biotechnology and nanotechnology [6 8].
