Abstract:
There are many inventions described and illustrated herein. In one aspect, the present inventions relate to devices, systems and/or methods of encapsulating and fabricating electromechanical structures or elements, for example, accelerometer, gyroscope or other transducer (for example, pressure sensor, strain sensor, tactile sensor, magnetic sensor and/or temperature sensor), filter or resonator. The fabricating or manufacturing microelectromechanical systems of the present invention, and the systems manufactured thereby, employ wafer bonding encapsulation techniques.
Abstract:
Mikromechanische Struktur (100), aufweisend: wenigstens einen elastisch deformierbaren ersten Bereich (10), der wenigstens abschnittsweise einen definiert piezoelektrisch dotierten zweiten Bereich (10a) aufweist; wenigstens einen vierten Bereich (30), in den die im zweiten Bereich (10a) generierten elektrischen Ladungen leitbar sind; und wenigstens einen mit dem zweiten und dem vierten Bereich (10a, 30) elektrisch verbundenen dritten Bereich (20), in welchem ein durchfließender elektrischer Strom in thermische Energie umwandelbar ist.
Abstract:
A method of doping at least one element in an array of elements on a substrate is disclosed. The method comprises providing at least one microfluidic channel passing from a first location external of the at least one element to a second location in fiuidic communication with the at least one element. A dopant fluid is passed through the at least one microfluidic channel to the at least one element for doping the at least one element. A corresponding apparatus is also disclosed.
Abstract:
There are many inventions described and illustrated herein. In one aspect, the present inventions relate to devices, systems and/or methods of encapsulating and fabricating electromechanical structures or elements, for example, accelerometer, gyroscope or other transducer (for example, pressure sensor, strain sensor, tactile sensor, magnetic sensor and/or temperature sensor), filter or resonator. The fabricating or manufacturing microelectromechanical systems of the present invention, and the systems manufactured thereby, employ wafer bonding encapsulation techniques.
Abstract:
A method of processing a semiconductor substrate having a first conductivity type includes, in part, forming a first implant region of a second conductivity type in the semiconductor substrate where the first implant region is characterized by a first depth, forming a second implant region of the first conductivity type in the semiconductor substrate where the second implant region is characterized by a second depth smaller than the first depth, forming a porous layer within the semiconductor substrate where the porous layer is adjacent the first implant region, and growing an epitaxial layer on the semiconductor substrate thereby causing the porous layer to collapse and form a cavity.
Abstract:
Methods of chemically encoding high-resolution shapes in silicon nanowires during metal nanoparticle catalyzed vapor-liquid-solid growth or vapor-solid-solid growth are provided. In situ phosphorus or boron doping of the silicon nanowires can be controlled during the growth of the silicon nanowires such that high-resolution shapes can be etched along a growth axis on the silicon nanowires. Nanowires with an encoded morphology can have high-resolution shapes with a size resolution of about 1,000 nm to about 10 nm and comprise geometrical shapes, conical profiles, nanogaps and gratings.
Abstract:
There are many inventions described and illustrated herein. In one aspect, the present inventions relate to devices, systems and/or methods of encapsulating and fabricating electromechanical structures or elements, for example, accelerometer, • gyroscope or other transducer (for example, pressure sensor, strain sensor, tactile sensor, magnetic sensor and/or temperature sensor), filter or resonator. The fabricating or manufacturing microelectromechanical systems of the present invention, and the systems manufactured thereby, employ wafer bonding encapsulation techniques.
Abstract:
나노구조(10, 10', 10", 10''')는 높은 도전성의 마이크로 결정층(18), 바이폴라 나노와이어(16) 및 다른 층(18, 30)을 포함한다. 높은 도전성의 마이크로 결정층(18)은 마이크로 결정 재료 및 금속을 포함한다. 바이폴라 나노와이어(16)는 높은 도전성의 마이크로 결정층(18)에 부착된 한 단부 및 다른 층(18, 30)에 부착된 다른 단부를 갖는다.
Abstract:
나노구조(10, 10', 10", 10''')는 높은 도전성의 마이크로 결정층(18), 바이폴라 나노와이어(16) 및 다른 층(18, 30)을 포함한다. 높은 도전성의 마이크로 결정층(18)은 마이크로 결정 재료 및 금속을 포함한다. 바이폴라 나노와이어(16)는 높은 도전성의 마이크로 결정층(18)에 부착된 한 단부 및 다른 층(18, 30)에 부착된 다른 단부를 갖는다.
Abstract:
A micromechanical structure is described, including: at least one elastically deformable first area, which includes a defined piezoelectrically doped second area, at least in sections; at least one fourth area, into which the electrical charges generated in the second area may be conducted; and at least one third area connected electrically to the second and fourth area, in which an electrical current flowing through is convertible into thermal energy.