Abstract:
An out-of-plane micro-structure which can be used for on-chip integration of high-Q inductors and transformers places the magnetic field direction parallel to the substrate plane without requiring high aspect ratio processing. The photolithographically patterned coil structure includes an elastic member (61a-65a) having an intrinsic stress profile. The intrinsic stress profile biases a free portion away from the substrate forming a loop winding. An anchor portion remains fixed to the substrate. The free portion end becomes a second anchor portion which may be connected to the substrate via soldering or plating. Alternately, the loop winding can be formed of two elastic members (318, 320) in which the free ends are joined in mid-air. A series of individual coil structures can be joined via their anchor portions to form inductors and transformers.
Abstract:
An out-of-plane micro-structure which can be used for on-chip integration of high-Q inductors and transformers places the magnetic field direction parallel to the substrate (14) plane without requiring high aspect ratio processing. The photolithographically patterned coil structure includes an elastic member (61 a) having an intrinsic stress profile. The intrinsic stress profile biases a free portion (11) away from the substrate (14) forming a loop winding (142). An anchor portion (12) remains fixed to the substrate (14). The free portion end becomes a second anchor portion (61 c) which may be connected to the substrate (14) via soldering or plating. A series of individual coil structures (140) can be joined via their anchor portions to form inductors and transformers.
Abstract:
Planar hergestellte Struktur (201, 401, 501, 601) zur Verwendung in einem zugehörigen Markierungsgerät, das aus mehreren Markierungsgerätearten zur Erzeugung von Markierungen auf einem zugehörigen Substrat ausgewählt ist, wobei die hergestellte Struktur umfasst:ein Substrat (206),einen selbsthebenden Federfinger (200) mit einem nicht angehobenen Ankerbereich (208), der an dem Substrat angebracht ist, und einem Auslösebereich (202), der sich über dem Substrat (206) erstreckt, wobei der Auslösebereich (202) ein zum Rand des nicht angehobenen Ankerbereichs (208) zugewandtes Ende (212) und ein abgewandtes Ende aufweist, wobei das abgewandte Ende eine Spitze (202T) umfasst, die ausgebildet ist, als ein elektrostatischer Feldkonzentrator zu dienen, um die elektrostatische Extraktion von Markierungsfluiden aus einem Reservoir mit Markierungsfluiden des zugehörigen Markierungsgeräts in Richtung einer zu markierenden Oberfläche zu ermöglichen.
Abstract:
An out-of-plane micro-structure which can be used for on-chip integration of high-Q inductors and transformers places the magnetic field direction parallel to the substrate (14) plane without requiring high aspect ratio processing. The photolithographically patterned coil structure includes an elastic member (61 a) having an intrinsic stress profile. The intrinsic stress profile biases a free portion (11) away from the substrate (14) forming a loop winding (142). An anchor portion (12) remains fixed to the substrate (14). The free portion end becomes a second anchor portion (61 c) which may be connected to the substrate (14) via soldering or plating. A series of individual coil structures (140) can be joined via their anchor portions to form inductors and transformers.
Abstract:
An out-of-plane micro-structure which can be used for on-chip integration of high-Q inductors and transformers places the magnetic field direction parallel to the substrate (14) plane without requiring high aspect ratio processing. The photolithographically patterned coil structure includes an elastic member (61 a) having an intrinsic stress profile. The intrinsic stress profile biases a free portion (11) away from the substrate (14) forming a loop winding (142). An anchor portion (12) remains fixed to the substrate (14). The free portion end becomes a second anchor portion (61 c) which may be connected to the substrate (14) via soldering or plating. A series of individual coil structures (140) can be joined via their anchor portions to form inductors and transformers.
Abstract:
An epitaxial (111) magnesium oxide (MgO) layer, suitable for use as a buffer layer (14), on a (111) surface of a tetrahedral semiconductor substrate (12), and method for its manufacture is described. The article may further include an epitaxial oxide overlayer (16) on the (111) MgO layer. The overlayer (16) may be a conducting, superconducting, and/or ferroelectric oxide layer. The method of producing the epitaxial (111) magnesium oxide (MgO) layer (14) on the (111) surface of a tetrahedral semiconductor substrate (12) proceeds at low temperature. The method may further include steps for forming the epitaxial oxide layer on the (111) MgO layer. The methods include the steps of preparing the (111) surface of a tetrahedral semiconductor substrate for deposition and the low temperature depositing of an MgO layer on the prepared surface. Further steps may include the depositing of the oxide layer over the MgO layer.
Abstract:
TITLE: Epitaxial Magnesium Oxide as a Buffer Layer for Formation of Subsequent Layers on Tetrahedral Semiconductors A structure includes a semiconducting substrate on which is formed an epitaxial buffer layer of MgO and an epitaxial layer of ferroelectric material or superconducting material or both. The semiconducting substrate is of the tetrahedral structure type, and may be an elemental or compound material. The MgO buffer layer on the tetrahedral semiconducting substrate allows epitaxial formation of the subsequent layers, facilitating the formation of a number of novel monolithic devices.