Nokia Technologies Oy

Nokia Corporation

Nokia Mobile Phones Limited

Emberion Oy

Avago Technologies Wireless Ip, Pte. Ltd.

Helena Pohjonen

Juha Ell&auml;

Pekka Korpinen

Kim Blomqvist

Sami Kallioinen

Chris Bower

Markku Rouvala

Jarkko Rouvinen

Lea Myyrylainen

Vuokko Tuulikki Lantz

Lea Myyryläinen

Juha Ella

An apparatus, method and computer program are provided. The apparatus includes a light source; a light sensor configured to sense light signals emitted by the light source; and an actuator configured to lift a surface of skin tissue in order to create an optical path through the skin tissue from the light source to the light sensor, for transmissive photoplethysmography.

Skin lifting for photoplethysmography

A MESFET transistor on a horizontal substrate surface with at least one wiring layer on the substrate surface. The transistor comprises source, drain and gate electrodes which are at least partly covered by a semiconducting channel layer. The source, drain and gate electrodes optionally comprise interface contact materials for changing the junction type between each electrode and the channel. The interface between the source electrode and the channel is an ohmic junction, the interface between the drain electrode and the channel is an ohmic junction, and the interface between the gate electrode and the channel is a Schottky junction. The substrate is a CMOS substrate.

Surface MESFET

An electrode for a user wearable apparatus; the electrode comprising: a conductive part comprising conductive material, wherein the conductive part is configured to provide electrical connection to electronic components of the user wearable device, and an opening configured to provide an optical connection to electronic components of the user wearable apparatus through the electrode.

Electrode for a user wearable apparatus

An apparatus and method, the apparatus including a plurality of sensors; readout circuitry configured to read information from each of the plurality of sensors; and wherein the apparatus has identifier information and calibration information stored with the identifier information and the apparatus is configured to be coupled to at least one other apparatus to form an array of apparatus.

Apparatus and method of forming a sensor array using the apparatus

An apparatus, method and a computer program are provided. The apparatus includes: an array of pixels, configured to detect radiation, provided on a flexible substrate; a conductive shape memory material coupled to the flexible substrate; and drive circuitry configured to apply a current to the conductive shape memory material in order to change a shape of the conductive shape memory material and the flexible substrate.

Flexible pixel array controlled by conductive shape memory material

In some example embodiments, there may be provided an apparatus. The apparatus may include a chamber including a first cavity and a second cavity, wherein the chamber further includes a first fluid suspended in a second fluid; a first electrode adjacent to the first cavity; a second electrode adjacent to the second cavity; a third electrode configured to provide a common electrode to the first electrode and the second electrode; and at least one coil adjacent to at least one of the first cavity or the second cavity, wherein an inductance value of the coil is varied by at least applying a driving signal between the common electrode and the first electrode and/or the second electrode. Related methods, systems, and articles of manufacture are also disclosed.

Microfluidics controlled tunable coil

An antenna arrangement including a first antenna element having one or more surfaces; and a laminate attenuator, positioned adjacent a portion of at least one surface of the first antenna element, wherein the laminate attenuator is arranged or attenuating predetermined radio frequency electromagnetic waves.

Antenna arrangement

A portable radio device is shown with an outer cover () and a radiating antenna element () inside the outer cover (). At a location corresponding to the location of the radiating antenna element (), there is thermoplastic material () the loss tangent value of which is less than 0.005. The outer cover () has, on the outer surface thereof and at a location corresponding to the location of the radiating antenna element (), a coating () that is one of: diamond coating, diamond-like coating, diamond-based nanocomposite coating.

Low loss layered cover for an antenna

A radio frequency (RF) transceiver of the type having at least one radio frequency integrated chip (RFIC), a reference oscillator and a phase-locked oscillator, utilizes non-crystal resonator structures in place of crystal oscillators to produce the reference oscillator frequency functionality and the phase-locked oscillator frequency functionality. Film bulk acoustic resonator (FBAR) structures including bulk acoustic wave (BAW) resonators are monolithically integrated or flip chipped with the RFIC to reduce size, weight and cost of the transceiver. The RF transceiver may be a TDMA or CDMA transceiver.

Crystal-less oscillator transceiver

A function-oriented manufacturing approach in RF front-end architecture for use in a multi-band mobile phone. Electronic components in a front-end module, such as low-noise amplifiers that require the demanding silicon bipolar process, are fabricated separately from those components in an RF-ASIC that require the less demanding, yet more costly, Bi-CMOS process. When the transmission frequency band and the receiving band overlap, separate receiving antenna and transmitting antenna are used, instead of an antenna switch module with a duplexer, connected to separate bandpass filters for band selection. Differential Rx antennas are used so that the whole Rx-chain can be made differential. Furthermore, different impedances for Tx out and Rx in can be realized.

Versatile RF front-end multiband mobile terminals

A method of fabricating a plurality of bulk acoustic wave (BAW) resonators on a single substrate, and the corresponding product, the BAW resonators having substantially different resonant frequencies, the method including the steps of: providing a substrate having an upper facing surface; depositing an isolation structure on the upper facing surface of the substrate; depositing a first metallic layer on the isolation structure, the first metallic layer serving as a bottom electrode; and depositing piezolayer material on the bottom electrode so as to have thicknesses corresponding to each of the different resonant frequencies, each different thickness located in a location where a resonator having a resonant frequency corresponding to the thickness is to be located. In one of several embodiments, the step of depositing piezolayer material on the bottom electrode itself includes the steps of: depositing piezolayer material to a thickness corresponding to the lowest frequency resonator; providing hard mask material over areas where the lowest frequency resonators are to be located; and removing the piezolayer material down to the thickness of the next higher frequency resonators. In some applications of the method, the isolation structure is an acoustic mirror, and the method further includes the step of providing the acoustic mirror, interposed between the substrate and the bottom electrode, according to a design that imparts to the acoustic mirror a desired reflection coefficient over a predetermined range of frequency including the substantially different resonant frequencies.

BAW filters having different center frequencies on a single substrate and a method for providing same

Stacked substrates using passive integration components formed in silicon or stainless steel substrates interconnect with active elements mounted on the surface of the substrate to form a miniaturized power amplification module. Metal filled vias pass through the layers and carry electrical signals to and from the active elements and passive components. The metal filled vias function as thermal transfer heat sinks to transfer heat away from the active elements and the module.

Stacked power amplifier module

The invention relates to resonator structures of radio communication apparatus. According to the invention, at least one resonator structure and at least one switch structure are manufactured on the same substrate during the same process. This is especially advantageous when using bridge type BAW resonators and micromechanical switches, since the same process steps which are used for creating the bridge structures, can be used to create the micromechanical switch structure. Integration of switch structures and resonators on the same substrate allows the manufacture of very compact filter and resonator structures needed for multi-system mobile communication means. According to another aspect of the invention a special property of BAW resonators is utilized, namely that BAW resonators can be integrated on substrates which are commonly used for active circuitry, such as silicon (Si) and gallium arsenide (GaAs) surfaces. According to this aspect of the invention, the switches are realized with transistor structures using, for example, MESFET transistors.

Growing community of inventors

Espoo, Finland

Helena Pohjonen