The introduction of nanostructured materials for biomedical and electronics applications opens tremendous opportunities for biomedical applications as therapeutic and diagnostic tools as well as in the fields of engineering, electronics, optics, consumer products, alternative energy, soil/water remediation, and others.
In the present research, Nd YAG laser micro-drilling of gamma-titanium aluminide, a new material which has performed well in laboratory tests as well as in different fields of engineering, is studied.
Animal congregations, such as herds [1], flocks[2], and schools [3] [11], have long fascinated scientists in the field of biology as well as in the fields of engineering and mathematics because of the beauty of their synchronized and coordinated motions.
Furthermore, using the combination of ferromagnetic and superconducting oxides as a case study, the emerging field of engineering the electronic structure at the interface, and thus design of new functionalities, is highlighted.
Spoken in technical terms a robot may be defined as a machine which includes almost all classical engineering sciences like mechanical engineering and electronics and electrical engineering as well as "modern" fields of engineering like computer science and material sciences.
As the fields of engineering and biology continue to merge, the in vitro fabrication of more complex biological structures is becoming a reality.
This setting is common in many scientific areas, such as in the fields of engineering, medicine and various societal applications.
The application of gene therapy has been widely considered for various diseases, as well as for the field of tissue engineering.
Tissue engineering is classified as an associate field of biomaterials and engineering.
