Stmicroelectronics S.r.l.

Sgs-thomson Microelectronics S.r.l.

Stmicroelectronics International N.v.

Stmicroelectronics Gmbh

Stmicroelectronics (grenoble 2) Sas

Stmicroelectronics Asia Pacific Pte Limited

Benedetto Vigna

Paolo Ferrari

Bruno Murari

Ubaldo Mastromatteo

Sarah Zerbini

Marco Ferrera

Simone Sassolini

Flavio Francesco Villa

Pietro Montanini

Lorenzo Baldo

Angelo Merassi

Chantal Combi

Ernesto Lasalandra

Sebastiano Conti

Caterina Riva

Mario Francesco Cortese

Sonia Costantini

Laura Maria Castoldi

Mario Foroni

Marco Salina

Marco Mantovani

Federico Giovanni Ziglioli

Gabriele Barlocchi

Mahesh Chowdhary

Dario Paci

Pietro Corona

Francesco Procopio

Matteo Dameno

Manuela Magugliani

Francesco Ratti

Enrico Maria Alfonso Ravanelli

Dario Cini

Angelo Pesci

Armando Manfredi

Ernestino Galeazzi

Giorgio Allegato

Giuseppe Visalli

Dino Faralli

Chee Yu Ng

Giuseppe Noviello

Luca Fontanella

Marta Mottura

Andrea Rusconi Clerici Beltrami

Alberto Gola

Massimo Garavaglia

Francesco Italia

Matteo Fiorito

Carlo Menescardi

Alberto Alessandri

Herbert Sax

Riccardo Maggi

Gianluca Tomasi

Aurea Cuccia

Angelo Antonio Merassi

A method includes receiving, at a master agent, announcements from candidate consumer agents indicating the presence of the candidate consumer agents. Each announcement includes display parameters for a display of the corresponding candidate consumer agent. The method further includes receiving at the master agent content parameters from a producer agent, the content parameters defining characteristics of content to be provided by the consumer agent. A mosaic screen is configured based on the received announcements and the content parameters. This configuring of the mosaic screen includes selecting ones of the consumer agents for which an announcement was received and generating content distribution parameters based on the content parameters and the display parameters of the selected ones of the consumer agents. The generated content distribution parameters are provided to the consumer agent.

System and method to increase display area utilizing a plurality of discrete displays

An electrostatically actuated oscillating structure includes a first stator subregion, a second stator subregion, a first rotor subregion and a second rotor subregion. Torsional elastic elements mounted to the first and second rotor subregions define an axis of rotation. A mobile element is coupled to the torsional elastic elements. The stator subregions are electrostatically coupled to respective regions of actuation on the mobile element. The stator subregions exhibit an element of structural asymmetry such that the electrostatic coupling surface between the first stator subregion and the first actuation region differs from the electrostatic coupling surface between the second stator subregion and the second actuation region.

Electrostatically actuated oscillating structure with oscillation starting phase control, and manufacturing and driving method thereof

A method of manufacturing a magnetic-field sensor includes forming an insulating layer on a first surface of a substrate. First and second magnetoresistors are formed at different above the first surface of the substrate and are spaced apart from the first surface by different distances. The first and second magnetoresistors have respective main axes of magnetization transverse to one another, and respective secondary axes of magnetization transverse to one another. The method further includes forming a first magnetic-field generator configured to generate a first magnetic field having field lines along the main axis of magnetization of the first magnetoresistor, and forming a second magnetic-field generator configured to generate a second magnetic field having field lines along the main axis of magnetization of the second magnetoresistor.

Manufacturing method for integrated multilayer magnetoresistive sensor

A substrate-level assembly having a device substrate of semiconductor material with a top face and housing a first integrated device, including a buried cavity formed within the device substrate, and with a membrane suspended over the buried cavity in the proximity of the top face. A capping substrate is coupled to the device substrate above the top face so as to cover the first integrated device in such a manner that a first empty space is provided above the membrane. Electrical-contact elements electrically connect the integrated device with the outside of the substrate-level assembly. In one embodiment, the device substrate integrates at least a further integrated device provided with a respective membrane, and a further empty space, fluidly isolated from the first empty space, is provided over the respective membrane of the further integrated device.

Substrate-level assembly for an integrated device, manufacturing process thereof and related integrated device

A process for manufacturing a membrane of nozzles of a spray device, comprising the steps of laying a substrate, forming a membrane layer on the substrate, forming a plurality of nozzles in the membrane layer, forming a plurality of supply channels in the substrate, each supply channel being substantially aligned in a vertical direction to a respective nozzle of the plurality of nozzles and in direct communication with the respective nozzle.

Process for manufacturing an integrated membrane of nozzles in MEMS technology for a spray device and spray device using such membrane

A magnetic-field sensor includes: a chip including a substrate having a first surface and an insulating layer covering the first surface; first and second magnetoresistors each extending into the insulating layer and having a main axis of magnetization and a secondary axis of magnetization; a first magnetic-field generator configured to generate a first magnetic field having field lines along the main axis of magnetization of the first magnetoresistor; a second magnetic-field generator configured to generate a second magnetic field having field lines along the main axis of magnetization of the second magnetoresistor. The main axes of magnetization extending transversely to each other and the secondary axes of magnetization extending transversely to each other. The first and second magnetoresistors extend into the insulating layer at a first distance and a second distance, respectively, that differ from one another, from the first surface.

Integrated multilayer magnetoresistive sensor and manufacturing method thereof

A MEMS device wherein a die of semiconductor material has a first face and a second face. A membrane is formed in or on the die and faces the first surface. A cap is fixed to the first face of the first die and is spaced apart from the membrane by a space. The die is fixed, on its second face, to an ASIC, which integrates a circuit for processing the signals generated by the die. The ASIC is in turn fixed on a support. A packaging region coats the die, the cap, and the ASIC and seals them from the outside environment. A fluidic path is formed through the support, the ASIC, and the first die, and connects the membrane and the first face of the die with the outside, without requiring holes in the cap.

MEMS device incorporating a fluidic path, and manufacturing process thereof

A semiconductor integrated device is provided with: a die having a body of semiconductor material with a front surface, and an active area arranged at the front surface; and a package having a support element carrying the die at a back surface of the body, and a coating material covering the die. The body includes a mechanical decoupling region, which mechanically decouples the active area from mechanical stresses induced by the package; the mechanical decoupling region is a trench arrangement within the body, which releases the active area from an external frame of the body, designed to absorb the mechanical stresses induced by the package.

Semiconductor integrated device with mechanically decoupled active area and related manufacturing process

A microelectromechanical-acoustic-transducer assembly has: a first die integrating a MEMS sensing structure having a membrane, which has a first surface in fluid communication with a front chamber and a second surface, opposite to the first surface, in fluid communication with a back chamber of the microelectromechanical acoustic transducer, is able to undergo deformation as a function of incident acoustic-pressure waves, and faces a rigid electrode so as to form a variable-capacitance capacitor; a second die, integrating an electronic reading circuit operatively coupled to the MEMS sensing structure and supplying an electrical output signal as a function of the capacitive variation; and a package, housing the first die and the second die and having a base substrate with external electrical contacts. The first and second dice are stacked in the package and directly connected together mechanically and electrically; the package delimits at least one of the front and back chambers.

Assembly of a capacitive acoustic transducer of the microelectromechanical type and package thereof

An oscillator device includes: a structural layer extending over a first side of a semiconductor substrate; a semiconductor cap set on the structural layer; a coupling region extending between and hermetically sealing the structural layer and the cap and forming a cavity within the oscillator device; first and second conductive paths extending between the substrate and the structural layer; first and second conductive pads housed in the cavity and electrically coupled to first terminal portions of the first and second conductive paths by first and second connection regions, respectively, which extend through and are insulated from the structural layer; a piezoelectric resonator having first and second ends electrically coupled, respectively, to the first and second conductive pads, and extending in the cavity; and third and fourth conductive pads positioned outside the cavity and electrically coupled to second terminal portions of the first and second conductive paths.

Oscillator device and manufacturing process of the same

A touch sensitive display includes a capacitive touch sensor configured to output capacitance values. A motion sensor makes a motion detection and generates a motion signal including a motion value indicative of sensed motion detection. A touch detection circuit is coupled to receive the capacitance values and motion values. The touch detection circuit processes the capacitance values to make a hovering detection and a touching detection with respect to the display. The touch detection circuit further generates an output signal including the motion value correlated in time with each of the hovering detection and touching detection. The output signal may be processed as a user interface control signal. The output signal may also be processed to determine an impulsive strength of the touching detection as a function of an elapsed time between hover and touch and the measured motion values.

Combining touch screen and other sensing detections for user interface control

A magnetoresistive element formed by a strip of magnetoresistive material which extends on a substrate of semiconductor material having an upper surface. The strip comprises at least one planar portion which extends parallel to the upper surface, and at least one transverse portion which extends in a direction transverse to the upper surface. The transverse portion is formed on a transverse wall of a dig. By providing a number of magnetoresistive elements perpendicular to one another it is possible to obtain an electronic compass that is insensitive to oscillations with respect to the horizontal plane parallel to the surface of the Earth.

Magnetoresistive sensor and manufacturing method thereof

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Pietrapertosa, Italy

Benedetto Vigna