Infineon Technologies Ag

Cree Gmbh

Ulrich Krumbein

Alfons Dehe

Wolfgang Klein

Stefan Barzen

Marc Fueldner

Andreas Wiesbauer

Carsten Ahrens

Horst Theuss

Reinhard Gabl

Wolfgang Friza

Helmut Wietschorke

Gerhard Lohninger

Hans Taddiken

Christian Jenkner

David Tumpold

Bernd Goller

Werner Simbuerger

Johann Strasser

Georg Seidemann

Dietmar Straeussnigg

Mark Pavier

Juergen Wagner

Matthias Friedrich Herrmann

Giordano Tosolini

Evangelos Angelopoulos

Konstantin Tkachuk

Stefan Martens

Stefan Geissler

Tze Yang Hin

Stephan Pindl

Daniel Kehrer

Stefan Jost

Berthold Schuderer

Beng Keh See

Marc Füldner

Martin Seidl

Sven Albers

Michael Schneider

Christoph Glacer

Wolfgang Lehnert

Ulrich Schmid

Gunther Mackh

Rudolf Berger

Christian Bretthauer

Cecilia Carbonelli

Uwe Hoeckele

Bernhard Knott

Gerhard Metzger-Brueckl

Arnaud Walther

Niccoló De Milleri

Jakob Huber

Christian Herzum

Martin Wurzer

Klaus Diefenbeck

Stefan Willkofer

Prashanth Makaram

Paul Christopher Westmarland

Klaus Gnannt

Gunar Lorenz

Karl-Heinz Mueller

Manfred Frank

Manuel Dorfmeister

Caterina Travan

Matthias Reinwald

Tobias Mittereder

Beng-Keh See

Siyuan Qi

Patrick Schelauske

Matthias Vobl

Daniel Fruechtl

Stefan Geißler

Hugh Richard

Jürgen Wagner

Daniiel Fruechtl

In an embodiment, a method for forming a microfabricated structure includes depositing a first membrane on a substrate, depositing a first isolation layer on the first membrane, depositing a stator layer on the first isolation layer, forming a perforated stator from the stator layer, wherein the first isolation layer is disposed on a first surface of the perforated stator, depositing a second isolation layer on a second surface of the perforated stator and depositing a second membrane on the second isolation layer, including depositing a pillar coupled between the first membrane and the second membrane, wherein the first isolation layer includes a first glass layer having a low etch rate, and a second glass layer having a high etch rate embedded in the first glass layer.

Membrane support for dual backplate transducers

A thermoresistive micro sensor device includes a semiconductor chip; a through hole, which runs through the semiconductor chip from an upper side to a lower side; electrically conductive structures, wherein the middle section of each of the electrically conductive structures spans over the through hole at the upper side of the semiconductor chip; an electrically insulating arrangement for electrically insulating the electrically conductive structures and the semiconductor chip from each other, wherein the through hole runs through the electrically insulating arrangement; and a contact arrangement including contacts, wherein each of the contacts is electrically connected to one of the first end sections or one of the second end sections, so that electrical energy is fed to at least one of the electrically conductive structures to heat the respective electrically conductive structure, and so that an electrical resistance of one of the electrically conductive structures is measured at the contact arrangement.

Thermoresistive micro sensor device

A method for determining a calibrated measurement value for a concentration of the target gas comprises obtaining a measurement signal based on the concentration of the target gas. The method further comprises determining the calibrated measurement value based on the measurement signal and based on a calibration model. The calibration model is based on calibration data of a plurality of test sensor units having the same type as the sensor unit.

Gas sensing device and method for determining a calibrated measurement value for a concentration of a target gas

An infrared emitter with a glass lid for emitting infrared radiation comprises a package enclosing a cavity, wherein a first part is transparent for infrared radiation and a second part comprises a glass material and a heating structure configured for emitting the infrared radiation, wherein the heating structure is arranged in the cavity between the first part and the second part of the package.

IR emitter with glass lid

A microfabricated structure includes a perforated stator; a first isolation layer on a first surface of the perforated stator; a second isolation layer on a second surface of the perforated stator; a first membrane on the first isolation layer; a second membrane on the second isolation layer; and a pillar coupled between the first membrane and the second membrane, wherein the first isolation layer includes a first tapered edge portion having a common surface with the first membrane, wherein the second isolation layer includes a first tapered edge portion having a common surface with the second membrane, and wherein an endpoint of the first tapered edge portion of the first isolation layer is laterally offset with respect to an endpoint of the first tapered edge portion of the second isolation layer.

Dual membrane transducer

A method includes exposing gas sensitive material of a gas sensor device to different adjusted target gas concentrations, determining measurement values of the resistance of the gas sensitive material between first and second contact regions in response to the adjusted target gas concentration, determining a first gas sensor behavior model based on the measurement values of the resistance of the gas sensitive material as a function of the adjusted target gas concentration, translating the first gas sensor behavior model into a corresponding second gas sensor behavior model for the resistance of the gas sensitive material as a function of a control voltage, and sweeping the control voltage based on the second gas sensor behavior model over a control voltage range for providing control voltage dependent resistance data, wherein the control voltage dependent resistance data over the control voltage range form the calibration data for the gas sensor device.

Method for providing calibration data for a gas sensor device, method of calibrating a gas sensor device, and processing device for a gas sensor device

A MEMS pump includes a basis structure, a membrane structure opposing the basis structure and being deflectable parallel to a surface normal of the basis structure and includes a pump chamber between the basis structure and the membrane structure wherein a volume of the pump chamber is based on a position of the membrane structure with respect to the basis structure. The MEMS pump includes a passage for letting a fluid pass into the pump chamber or exit the pump chamber, wherein the passage is arranged in-plane with respect to the pump chamber. The MEMS pump includes a valve structure coupled to the passage for connecting, in a first state, the passage to a first outer volume and for connecting, in a second state, the passage to a second outer volume.

Thin MEMS pump with membrane and valve lip structure

A structure for fixing a membrane to a carrier including a carrier; a suspended structure; and a holding structure with a rounded concave shape which is configured to fix the suspended structure to the carrier and where a tapered side of the holding structure physically connects to the suspended structure is disclosed. A method of forming the holding structure on a carrier to support a suspended structure is further disclosed. The method may include: forming a holding structure on a carrier; forming a suspended structure on the holding structure; shaping the holding structure such that it has a concave shape; and arranging the holding structure such that a tapered side of the holding structure physically connects to the suspended structure.

Support structure and method of forming a support structure

A method for providing a semiconductor layer arrangement on a substrate which comprises providing a semiconductor layer arrangement having a functional layer and a semiconductor substrate layer, attaching the semiconductor layer arrangement to a glass substrate layer such that the functional layer is arranged between the glass substrate layer and the semiconductor substrate layer, and removing the semiconductor substrate layer at least partially such that the glass substrate layer substitutes the semiconductor substrate layer as the substrate of the semiconductor layer arrangement.

Method and structure for sensors on glass

A sensor element includes a membrane structure suspended on a frame structure, wherein the membrane structure includes a membrane element and an actuator. The membrane structure is deflectable in a first stable deflection state and in a second stable deflection state and is operable in a resonance mode in at least one of the first and the second stable deflection states. The actuator is configured to deflect the membrane structure in a first actuation state into one of the first and the second stable deflection states, and to operate the membrane structure in a second actuation state in a resonance mode having an associated resonance frequency.

Sensor element, particle sensor device and method for detecting a particulate matter density

A MEMS sensor includes a housing with an interior volume, wherein the housing has an access port to the interior volume, a MEMS component in the housing, and a protection structure, which reduces an introduction of electromagnetic disturbance radiation with a wavelength in the range between 10 nm and 20 &#x3bc;m into the interior volume through the access port and reduces a propagation of the electromagnetic disturbance radiation in the interior volume.

MEMS-sensor

A microfabricated structure includes a deflectable membrane, a first clamping layer on a first surface of the deflectable membrane, a second clamping layer on a second surface of the deflectable membrane, a first perforated backplate on the first clamping layer, and a second perforated backplate on the second clamping layer, wherein the first clamping layer comprises a first tapered edge portion having a negative slope between the first perforated backplate and the deflectable membrane.

A MEMS assembly includes a housing having an internal volume V, wherein the housing has a sound opening to the internal volume V, a MEMS component in the housing adjacent to the sound opening, and a layer element arranged at least regionally at a surface region of the housing that faces the internal volume V, wherein the layer element includes a layer material having a lower thermal conductivity and a higher heat capacity than the housing material of the housing that adjoins the layer element.

MEMS assembly

Growing community of inventors

Rosenheim, Germany

Ulrich Krumbein