mhurhangee/patent-ind-claim-en huggingface dataset:
Method for cultivating and enriching stem cells in vitro, comprising the following steps: • providing a sample comprising stem cells and • cultivating the stem cells by subjecting the sample to a treatment for a first period of time, characterized in that the sample is an isolated muscle-fiber containing tissue sample, in that the stem cells are satellite cells and in that the treatment is carried out without oxygenation under hypothermic conditions having a defined temperature and a defined atmosphere, wherein the temperature does not exceed 15 °C and the atmosphere has an oxygen content not exceeding 21 % (v/v), and wherein the first period of time is 4 days to 4 weeks. • providing a sample comprising stem cells and • cultivating the stem cells by subjecting the sample to a treatment for a first period of time,
A vehicle control system for controlling a vehicle transfer case operable in a high range and a low range; the vehicle control system being configured to output a range change signal to implement a transfer case range change; a brake control signal for controlling vehicle braking during the range change; and a selector control signal for locking or inhibiting a gear selection means during the range change.
A transmitting node for a wireless communication network, the transmitting node being adapted for transmission utilizing independently controllable antenna elements of an antenna arrangement , the transmitting node being adapted for switching between different beams or subsets of the antenna elements for transmission based on transmitted power in relation to at least one EMF exposure limit, wherein the transmitting node is configured to transmit with a specific beam or subset of antenna elements for a limited amount of switching time and the transmission is carried on by a different beam or subset of antenna elements when the switching time is over, and wherein the switching time is equal to Tav/N, where Tav is the averaging time relevant for EMF exposure and N is a number of beams transmitted by the transmitting node with a suitable Quality of Service, QoS.
Method for preparing a formaldehyde-free amino resin or amide resin, comprising (i) reacting a triamine or triamide with a monoaldehyde having at least 2 C atoms, where - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, to form an intermediate that has a reactive protective group derived from the monoaldehyde on at least one amine group or amide group, and (ii) reacting the intermediate with a dialdehyde or trialdehyde to form a crosslinkable amino resin or amide resin, where the molar ratio of the dialdehyde or trialdehyde added in step (ii) to the amine groups of the triamine added in step (i) or to the amide groups of the triamide added in step (i) is in the range from 0.1/3 to 2.2/3. (i) reacting a triamine or triamide with a monoaldehyde having at least 2 C atoms, where - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, to form an intermediate that has a reactive protective group derived from the monoaldehyde on at least one amine group or amide group, and - the monoaldehyde is an aldehydecarboxylic acid or a salt of the aldehydecarboxylic acid, an alkoxyaldehyde or a mixture thereof and - the molar ratio of the monoaldehyde to the amine groups of the triamine or the amide groups of the triamide is in the range from 0.5/3 to 2.2/3, (ii) reacting the intermediate with a dialdehyde or trialdehyde to form a crosslinkable amino resin or amide resin, where the molar ratio of the dialdehyde or trialdehyde added in step (ii) to the amine groups of the triamine added in step (i) or to the amide groups of the triamide added in step (i) is in the range from 0.1/3 to 2.2/3.
An antiviral drug for use in treatment and/or prevention of a disease associated with infection with hepatitis B virus, comprising as an active ingredient one or more compounds selected from the group consisting of antisense oligonucleotide, shRNA, siRNA, and dsRNA for a target gene or transcription product thereof, wherein said target gene is one or more genes selected from the group consisting of DOCK11 gene, LIPG gene, DENND2A gene, and HECW2 gene, preferably DOCK11 gene.
Process for producing a composite article at least partially made of metal, such as a disc for disc brake, comprising the following steps: i) coupling by force with interference a first component at least partially made of cast iron and a second component at least partially made of steel; ii) arranging one or more wires of filler material (M) at one or more separation zones between said first and second component; iii) in an inert atmosphere, directing a laser beam (L) mostly or exclusively on the steel of the second component and on the filler material (M) for occupying at least part of the separation zone at least with said molten steel and filler material (M); iv) solidifying by cooling at least the molten steel and filler material (M) in at least three welding zones to join said first and second component, wherein said welding zones are located at a distance from each other, and thus obtaining said article . i) coupling by force with interference a first component at least partially made of cast iron and a second component at least partially made of steel; ii) arranging one or more wires of filler material (M) at one or more separation zones between said first and second component; iii) in an inert atmosphere, directing a laser beam (L) mostly or exclusively on the steel of the second component and on the filler material (M) for occupying at least part of the separation zone at least with said molten steel and filler material (M); iv) solidifying by cooling at least the molten steel and filler material (M) in at least three welding zones to join said first and second component, wherein said welding zones are located at a distance from each other, and thus obtaining said article .
A method for use in a first wireless transmit/receive unit (WTRU), the method comprising: determining a base pattern length to use for device to device (D2D) communication directly with a second WTRU based on at least a transmission configuration, wherein the base pattern length comprises a number of subframes; selecting, based on an indication from a network, a base pattern having the determined base pattern length, wherein the base pattern comprises one or more transmission opportunities in the number of subframes; and transmitting one or more data packets to the second WTRU in at least one of the one or more transmission opportunities of the base pattern. determining a base pattern length to use for device to device (D2D) communication directly with a second WTRU based on at least a transmission configuration, wherein the base pattern length comprises a number of subframes; selecting, based on an indication from a network, a base pattern having the determined base pattern length, wherein the base pattern comprises one or more transmission opportunities in the number of subframes; and transmitting one or more data packets to the second WTRU in at least one of the one or more transmission opportunities of the base pattern.
Illumination device for a motor vehicle, comprising a light guide for guiding light along a light propagation direction by total internal reflection, wherein the light originates from at least one light source and is able to be coupled in via at least one input-coupling face on a front side of the light guide , having an output-coupling face , arranged along the light propagation direction, for coupling out light that exits from the light guide at an exit face arranged along the light propagation direction with the removal of the total internal reflection condition, wherein the at least one light source , the light of which is able to be coupled in via the at least one input-coupling face , is a laser light source, characterized in that the laser light source is a point-shaped light source that has, in plan view, a maximum extent of 20 μm or less, and/or in that a converter device for the conversion of the light of the laser light source into a point-shaped light source is provided that has, in plan view, a maximum extent of 20 μm or less.
Movable assembly for aerating a litter covering the ground of an enclosure, comprising a motorised movable base capable of travelling autonomously across said enclosure and a scarifying system towed by said movable base comprising a scarifying shaft on which scarifying blades (20-20'') are installed, said scarifying shaft being rotated by motorised drive means (30-32), the scarifying system being installed movable in rotation relative to the movable base , the movable assembly comprising: - means for measuring the available energy load for the movable assembly ; characterised by : - means for measuring the attitude (α, ω) of the movable base ; and - a device for controlling the scarifying system capable of modifying the height of the scarifying shaft relative to the movable base , so as to adapt the penetration depth of the scarifying blades in said litter based on at least the measured available energy load and the measured attitude (α, ω) of the movable base . - means for measuring the available energy load for the movable assembly ; - means for measuring the attitude (α, ω) of the movable base ; and - a device for controlling the scarifying system capable of modifying the height of the scarifying shaft relative to the movable base , so as to adapt the penetration depth of the scarifying blades in said litter based on at least the measured available energy load and the measured attitude (α, ω) of the movable base .
A handheld kitchen appliance assembly comprising: a drive unit including a housing , a rechargeable battery disposed within the housing, and a motor disposed within the housing and powered by the battery; a tool including an attachment portion for releasably connecting the tool to the drive unit, the tool selectively driven by the drive unit when the tool is connected to the drive unit; a charging unit including a cavity sized and shaped to receive a portion of the drive unit, the charging unit having a power supply and configured to send a charging current to the battery of the drive unit to recharge the battery when the drive unit is received within the cavity; and a cradle including an opening sized and shaped to support the tool when the tool is disconnected from the drive unit, characterized by the cradle having a linkage engageable with the charging unit for selectively connecting the cradle to the charging unit. a drive unit including a housing , a rechargeable battery disposed within the housing, and a motor disposed within the housing and powered by the battery; a tool including an attachment portion for releasably connecting the tool to the drive unit, the tool selectively driven by the drive unit when the tool is connected to the drive unit; a charging unit including a cavity sized and shaped to receive a portion of the drive unit, the charging unit having a power supply and configured to send a charging current to the battery of the drive unit to recharge the battery when the drive unit is received within the cavity; and a cradle including an opening sized and shaped to support the tool when the tool is disconnected from the drive unit, characterized by the cradle having a linkage engageable with the charging unit for selectively connecting the cradle to the charging unit.
A heat shield comprising, a first layer comprising a first material; a second layer radially outward of the first layer comprising a second material; at least one post or at least one support extending between the first layer and the second layer ; an air pocket between a radially outer surface of the first layer and a radially inner surface of the second layer ; and a third layer radially outward of the second layer comprising a third material. a first layer comprising a first material; a second layer radially outward of the first layer comprising a second material; at least one post or at least one support extending between the first layer and the second layer ; an air pocket between a radially outer surface of the first layer and a radially inner surface of the second layer ; and a third layer radially outward of the second layer comprising a third material.
Electrode for a spark plug , having an electrode main body and a cylindrical wearing part , wherein the wearing part has a longitudinal axis (x-x) which extends from one end side of the wearing part facing the electrode main body to an end side opposite the said end side , and wherein the wearing part has at least one first region and at least one second region , wherein the wearing part is not melted in the at least one first region and the wearing part is melted in the at least one second region , and wherein the cylindrical wearing part has a height (H) and a radius (R), wherein the height (H) can be measured along the longitudinal axis (x-x) in the first region , and wherein the radius (R) is a circumcircle radius for polygonal end faces or a circle radius for round end faces , wherein the height (H) of the wearing part is not less than 0.4 mm, and in that a first transition between the at least one first region and the at least one second region is designated as point A on a lateral surface of the wearing part in a sectional plane of the longitudinal axis, and wherein a second transition between the at least one first region and the at least one second region is designated as point C in the sectional plane, point C lying closest to the longitudinal axis (x-x) in the sectional plane, and the line AC is at an angle α in relation to the longitudinal axis (x-x) and α is greater than or equal to 45°, characterized in that R ≥ 2H.
A razor cartridge , comprising: a plurality of blades ; a plurality of blade housings extended in a first direction and having seats configured to support the plurality of blades ; a cartridge frame having one or more rails configured to support the plurality of blade housings such that the plurality of housings are movable along the one or more rails in a second direction perpendicular to the first direction; and a span adjusting shifter coupled to the plurality of blade housings and configured to cause the plurality of blade housings to move along the one or more rails in the second direction. a plurality of blades ; a plurality of blade housings extended in a first direction and having seats configured to support the plurality of blades ; a cartridge frame having one or more rails configured to support the plurality of blade housings such that the plurality of housings are movable along the one or more rails in a second direction perpendicular to the first direction; and a span adjusting shifter coupled to the plurality of blade housings and configured to cause the plurality of blade housings to move along the one or more rails in the second direction.
A validation sub-system for a telecommunications system , the validation sub-system comprising: a measurement receiver configured to simultaneously receive over a same frequency a first beacon signal with a first data sequence from a first access point while receiving a second beacon signal with a second data sequence from a second access point , wherein the first data sequence and the second data sequence are different data sequences carried by respective beacon signals; and to process the received beacon signals to identify the first and second data sequences; and a computing device configured to receive, from the measurement receiver, the first data sequence and the second data sequence and determine channel responses for communication channels between the measurement receiver and the access points via which the beacon signals were received, based on the first data sequence and the second data sequence; wherein the computing device is configured to determine one or more parameters associated with the performance of the telecommunication system based on the channel responses. a measurement receiver configured to simultaneously receive over a same frequency a first beacon signal with a first data sequence from a first access point while receiving a second beacon signal with a second data sequence from a second access point , wherein the first data sequence and the second data sequence are different data sequences carried by respective beacon signals; and to process the received beacon signals to identify the first and second data sequences; and a computing device configured to receive, from the measurement receiver, the first data sequence and the second data sequence and determine channel responses for communication channels between the measurement receiver and the access points via which the beacon signals were received, based on the first data sequence and the second data sequence; wherein the computing device is configured to determine one or more parameters associated with the performance of the telecommunication system based on the channel responses.
A multi-carrier transmitter apparatus comprising: an outer encoder configured to receive a signal, perform error correction using an outer code on the received signal and generate an outer encoder signal; a shell mapper configured to perform constellation shaping on a subset of bits from the outer encoder signal and generate one or more constellation shaping bits in a shell mapper signal; an inner encoder configured to perform inner error correction using an inner code on a second subset of bits from the outer encoder signal and generate an inner correction signal, wherein the inner code is a low density parity check, LDPC, code; and a QAM modulator configured to generate one or more modulated symbols in an output signal based on the received output encoder signal, the shell mapper signal, and the inner correction signal, wherein the inner code protects b lcm least significant bits of each carrier or all bits if the number of bits per carrier is less than or equal to b lcm , and the inner code creates b lcm ·K=N ldpc output bits for K carriers. an outer encoder configured to receive a signal, perform error correction using an outer code on the received signal and generate an outer encoder signal; a shell mapper configured to perform constellation shaping on a subset of bits from the outer encoder signal and generate one or more constellation shaping bits in a shell mapper signal; an inner encoder configured to perform inner error correction using an inner code on a second subset of bits from the outer encoder signal and generate an inner correction signal, wherein the inner code is a low density parity check, LDPC, code; and a QAM modulator configured to generate one or more modulated symbols in an output signal based on the received output encoder signal, the shell mapper signal, and the inner correction signal, wherein the inner code protects b lcm least significant bits of each carrier or all bits if the number of bits per carrier is less than or equal to b lcm , and the inner code creates b lcm ·K=N ldpc output bits for K carriers.
Wind turbine blade oscillation preventer comprising an aperture and a sleeve and having a peripheral extent and a longitudinal extent, said preventer being configured for removable application over a wind turbine blade and configured to extend longitudinally thereover and peripherally thereabout; said preventer having a non-aerodynamic exterior surface which exhibits a rough surface capable of disrupting smooth or laminar airflow over a substantial portion of said longitudinal and peripheral extent of said sleeve when said preventer is in place on a wind turbine blade ; characterised in that said preventer further comprises a smooth interior surface extending along a substantial portion of said longitudinal extent of said sleeve , wherein said smooth interior surface is provided in the form of a lining inside said sleeve and extending from an aperture region thereof, and wherein said preventer comprises a resilient collar at said aperture portion .
A method , comprising: selecting , via a processor , at least one grid system contingency from a plurality of grid system contingencies; deriving , via the processor , one or more eigen-sensitivity values based on the at least one grid system contingency by perturbing a power of a generator system included in a plurality of generator systems via a perturbation and distributing the perturbation among a remainder of the plurality of generator systems , wherein a real part of a first eigenvalue of the one or more eigenvalues comprises a base case ( σ base ) representative of one of a pre-contingency settling time, damping ratio or combination thereof for a specific oscillation mode of the grid system : characterised by moving the real part of the first eigenvalue ( σ base ) so that one of a settling time, a damping ratio, or a combination thereof corresponding to a post-redispatch post-contingency condition lies beyond a threshold representative of a desired settling time, damping ratio or a combination, thereof, deriving , via the processor , one or more control actions at least partially based on the eigen-sensitivity values; and applying , via the processor, the one or more control actions for generation re-dispatch of a grid system . selecting , via a processor , at least one grid system contingency from a plurality of grid system contingencies; deriving , via the processor , one or more eigen-sensitivity values based on the at least one grid system contingency by perturbing a power of a generator system included in a plurality of generator systems via a perturbation and distributing the perturbation among a remainder of the plurality of generator systems , wherein a real part of a first eigenvalue of the one or more eigenvalues comprises a base case ( σ base ) representative of one of a pre-contingency settling time, damping ratio or combination thereof for a specific oscillation mode of the grid system : characterised by moving the real part of the first eigenvalue ( σ base ) so that one of a settling time, a damping ratio, or a combination thereof corresponding to a post-redispatch post-contingency condition lies beyond a threshold representative of a desired settling time, damping ratio or a combination, thereof, deriving , via the processor , one or more control actions at least partially based on the eigen-sensitivity values; and applying , via the processor, the one or more control actions for generation re-dispatch of a grid system .
An automatic scoring system for a beer pong game to implement an automatic scoring function of the beer pong game using a radio frequency identification (RFID) technology, comprising: a game table equipped with an RFID reader and a plurality of RFID antennas; a plurality of game cups with electronic tags being attached at bottoms thereof; at least one game ball inlaid with an electronic tag, and a computer that processes data read by the reader from the electronic tags and controls a scoring procedure of the beer pong game, wherein the RFID antennas are placed at a plurality of predetermined positions in a game zone of the game table, the plurality of predetermined positions corresponding to possible positions of the game cups placed according to game rules