Ams Ag

Nxp B.v.

Ams-osram Ag

Erik Jan Lous

Colin Steele

Goran Stojanovic

Anderson Pires Singulani

Roel Daamen

Thomas Froehlich

Nebojsa Nenadovic

Anderson Singulani

Simon Mueller

Jagruth Prasanna Kumar

André Van Der Avoird

Filip Frederix

Thomas Stockmeier

Thomas Fröhlich

Bobby Daniel

Boon Chong Cheah

A sensing system comprising a measurement sensor configured to detect electromagnetic radiation and a reference sensor configured to detect a source of measurement uncertainty. The sensing system further comprises a shield configured to reduce an interaction between the electromagnetic radiation and the reference sensor.

Sensing system for the detection of electromagnetic radiation on an electronic device

An integrated optical transducer for detecting dynamic pressure changes comprises a micro-electro-mechanical system, MEMS, die having a MEMS diaphragm with a first side exposed to the dynamic pressure changes and a second side. The transducer further comprises an application specific integrated circuit, ASIC, die having an evaluation circuit configured to detect a deflection of the MEMS diaphragm, in particular of the second side of the MEMS diaphragm. The MEMS die is arranged with respect to the ASIC die such that a gap with a gap height is formed between the second side of the diaphragm and a first surface of the ASIC die and the MEMS diaphragm, the ASIC die and a suspension structure of the MEMS die delineate a back volume of the integrated optical transducer.

Integrated optical transducer and method for fabricating an integrated optical transducer

A gas sensor comprises an electrochemical film, a plurality of electrodes coupled with the electrochemical film and a semiconductor wafer coupled with the plurality of electrodes. A passivation layer is formed between the electrochemical firm and the semiconductor wafer and a dielectric layer is coupled between the electrochemical film and the semiconductor wafer.

Electrochemical gas sensors

A micro-electro-mechanical system, MEMS, microphone assembly comprises an enclosure defining a first cavity, and a MEMS microphone arranged inside the first cavity. The microphone comprises a first die with bonding structures and a MEMS diaphragm, and a second die having an application specific integrated circuit, ASIC. The second die is bonded to the bonding structures such that a gap is formed between a first side of the diaphragm and the second die, with the gap defining a second cavity. The first side of the diaphragm is interfacing with the second cavity and a second side of the diaphragm is interfacing with the environment via an acoustic inlet port of the enclosure. The bonding structures are arranged such that pressure ventilation openings are formed that connect the first cavity and the second cavity.

MEMS microphone assembly and method for fabricating a MEMS microphone assembly

An integrated circuit and a method of making the same. The integrated circuit includes a semiconductor substrate having a major surface. The integrated circuit also includes a directional light sensor. The directional light sensor includes a plurality of photodetectors located on the major surface. The directional light sensor also includes one or more barriers, wherein each barrier is positioned to shade one or more of the photodetectors from light incident upon the integrated circuit from a respective direction. The directional light sensor is operable to determine a direction of light incident upon the integrated circuit by comparing an output signal of at least two of the photodetectors.

Integrated circuit including a directional light sensor

The spatial light modulator device (SLM) for providing a spatial light pattern which is alterable in response to an electric signal comprises a first modulator element (ME) and a second modulator element (ME). The first light beam (LB) processed by the first modulator element (ME) and the second light beam (LB) processed by the second modulator element (ME) can be superimposed for forming the spatial light pattern. In this way a defect in the first modulator element (ME) can be compensated a corresponding pixel of the second modulator element (ME). The spatial light pattern provided by the first modulator element (ME) and the second modulator element (ME) are complementary and combine to the desired spatial light pattern. The spatial light modulator device (SLM) may be used in a lithography apparatus (LA) or a display device (DD).

Spatial light modulator device, lithographic apparatus, display device, method of producing a light beam having a spatial light pattern and method of manufacturing a device

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Veldhoven, Netherlands

Erik Jan Lous