mhurhangee/ep-ind-claims huggingface dataset:
A scroll compressor employing therein a single-component refrigerant mainly comprising hydrofluoroolefin having a carbon-carbon double bond or a mixture refrigerant containing this refrigerant, the scroll compressor comprising: a stationary scroll having a stationary end plate and a stationary scroll wrap rising up from the stationary end plate, the stationary end plate having a discharge port defined therein at a central portion thereof so as to open into a discharge chamber; and an orbiting scroll having an orbiting end plate and an orbiting scroll wrap rising up from the orbiting end plate, the orbiting scroll being held in engagement with the stationary scroll to define a plurality of compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) therebetween, wherein the stationary end plate has a plurality of bypass holes (68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) defined therein to allow the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) to communicate with the discharge chamber before the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) communicate with the discharge port, and a check valve is provided on the bypass hole (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) to allow the refrigerant to flow from the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) to the discharge chamber, characterized in that at least one of the bypass holes (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) has a diameter D, the stationary end plate has at the location of the at least one bypass hole (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) a length L in a thickness direction, and a ratio D/L ranges from 2.4 to 7.2. a stationary scroll having a stationary end plate and a stationary scroll wrap rising up from the stationary end plate, the stationary end plate having a discharge port defined therein at a central portion thereof so as to open into a discharge chamber; and an orbiting scroll having an orbiting end plate and an orbiting scroll wrap rising up from the orbiting end plate, the orbiting scroll being held in engagement with the stationary scroll to define a plurality of compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) therebetween, wherein the stationary end plate has a plurality of bypass holes (68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) defined therein to allow the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) to communicate with the discharge chamber before the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) communicate with the discharge port, and a check valve is provided on the bypass hole (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) to allow the refrigerant to flow from the compression chambers (15, 15a, 15a-1, 15a-2, 15b, 15b-1, 15b-2) to the discharge chamber, characterized in that at least one of the bypass holes (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) has a diameter D, the stationary end plate has at the location of the at least one bypass hole (68, 68a-1, 68a-2, 68a-3, 68b-1, 68b-2, 68b-3) a length L in a thickness direction, and a ratio D/L ranges from 2.4 to 7.2.
An apparatus comprising: a capacitively-coupled isolator assembly (102, 202, 302) positioned between at least two antennas (108, 110, 204, 206, 304, 306, 404, 406), the capacitively-coupled isolator assembly providing isolation between the at least two antennas (108, 110), wherein the at least two antennas are electrically connected by a ground plane and the isolator assembly comprises: a grounded conductive element electrically connected to the ground plane; and an electrically-floating element (116, 216, 316) capacitively coupled to the grounded conductive element, wherein the electrically-floating coupling element is routed around two sides of the grounded conductive element. a grounded conductive element electrically connected to the ground plane; and an electrically-floating element (116, 216, 316) capacitively coupled to the grounded conductive element, wherein the electrically-floating coupling element is routed around two sides of the grounded conductive element.
A method of producing slice-shaped moldings from portions of a viscous mass, in particular minced meat slices for rotating meat spits, hamburgers or moldings composed of meatless or vegan raw materials, in which the respective mass of a portion is filled under pressure between two mutually spaced apart mold surfaces (13, 15) and the spacing between the mold surfaces (13, 15) is changed during the filling process in dependence on the filling pressure, characterized in that, in a control loop, the filling pressure or a measure for the filling pressure is measured as an actual value, compared with a predefined desired value and influenced by changing the spacing between the mold surfaces (13, 15), with the mold surfaces (13, 15) being moved relative to one another by means of at least one controlled drive in order to change the spacing.
A process for treating biomass comprising the steps of: Feeding biomass into a pressurized prehydrolysis reactor unit by means of a feeding system; Feeding steam into the pressurized prehydrolysis reactor unit; Thermally treating the biomass in the pressurized prehydrolysis reactor unit by contacting the biomass with steam; Diluting the thermally treated biomass; Discharging the diluted thermally treated biomass from the pressurized prehydrolysis reactor unit; characterized in that a steam/gas mixture is withdrawn from at least one outlet situated in an area at the upper part of the pressurized prehydrolysis reactor unit. Feeding biomass into a pressurized prehydrolysis reactor unit by means of a feeding system; Feeding steam into the pressurized prehydrolysis reactor unit; Thermally treating the biomass in the pressurized prehydrolysis reactor unit by contacting the biomass with steam; Diluting the thermally treated biomass; Discharging the diluted thermally treated biomass from the pressurized prehydrolysis reactor unit;
An isolated V H H monoclonal antibody comprising a heavy chain domain, wherein the heavy chain variable domain comprises a heavy chain complementarity determining region (HCDR)1, an HCDR2 and an HCDR3, wherein the HCDR1 comprises amino acids 26-33 of SEQ ID NO: 1, the HCDR2 comprises amino acids 51-57 of SEQ ID NO: 1, the HCDR3 comprises amino acids 96-109 of SEQ ID NO: 1, and the V H H monoclonal antibody specifically binds a Genogroup II Norovirus polypeptide.
Strain wave gear system comprising, in combination: an input; a ring gear; a wave generator of a non-circular shape and connected to and rotatable with the input; an output; a flexspline connected to and rotatable with the output, with the flexspline in gearing engagement with the ring gear and located intermediate the ring gear and the wave generator, a first bearing and a second bearing, characterized in that the input includes a radially extending disc having first and second axially spaced faces; and in that the strain wave gear system further comprises first and second radially extending and axially spaced races connected to the output; with the first bearing located intermediate the first face and the first race and the second bearing located intermediate the second face and the second race.
A Poppet valve for a piston compressor, comprising a catcher, a valve body with a plurality of inlet channels, each inlet channel opening into a valve seat, and comprising a plurality of closing elements movable in an axial direction, each inlet wherein channel being assigned a closing element, and wherein the valve seat being arranged opposite the associated closing element in the axial direction in such a way that the valve seat can be closed by the closing element, wherein a spring being arranged between the catcher and the closing element in order to bring about a prestressing force directed towards the valve seat on the closing element, wherein the spring enclosing an interior space, and wherein a guide part which extends in the axial direction and extends as far as a guide part end is arranged on the catcher, wherein the closing element is mounted on the guide part so as to be movable in the axial direction, in particular slidingly, characterized in that the spring surrounds the guide part and the closing element from the outside in the axial direction along a partial section, so that both the guide part and the closing element are arranged along this partial section within the interior of the spring, and that the guide part starting from the catcher extends further in the axial direction to the guide part end following the partial section.
A seal cap for a piercing needle-attached barrel comprising a piercing needle-attached barrel including a barrel body having a piercing needle mounting portion and a hollow piercing needle which has a piercing needle tip at a distal end thereof and whose proximal end portion is fixed to said piercing needle mounting portion; wherein said seal cap has a pierceable part into which said piercing needle can be pierced and is water vapor permeable, characterized in that at least said pierceable part of said seal cap is formed of an elastic material containing silicone rubber as a main material thereof, silicone particles, and a lubricant. wherein said seal cap has a pierceable part into which said piercing needle can be pierced and is water vapor permeable, characterized in that at least said pierceable part of said seal cap is formed of an elastic material containing silicone rubber as a main material thereof, silicone particles, and a lubricant.
User equipment for communicating with a base station in a mobile communication system, comprising: an indication unit configured to indicate that the user equipment has a capability of changing a sequence number length of a Radio Link Control Packet Data Unit, RLC PDU; a reception unit configured to receive an indication from the base station to change the sequence number length of an RLC PDU; a re-establishment unit configured to perform re-establishment of (S206, S207) an RLC entity upon receiving the indication; and a communication unit configured to use the RLC PDU with the changed sequence number length to communicate with the base station after completion of the re-establishment, wherein the changed sequence number length of the RLC PDU in an RLC-Acknowledge Mode, RLC-AM, is more than or equal to 11 bits, wherein the indication further includes an indication to perform an intra-cell handover operation, and in response to receiving the indication to perform the intra-cell handover operation, the re-establishment unit is adapted to perform the handover operation to re-establish the RLC entity, wherein in response to receiving the indication to perform the handover operation and the indication to change the sequence number length of the RLC PDU, a Medium Access Control, MAC, processing unit is adapted to prevent an already configured Secondary Cell, SCell, from being deactivated in the intra-cell handover operation. an indication unit configured to indicate that the user equipment has a capability of changing a sequence number length of a Radio Link Control Packet Data Unit, RLC PDU; a reception unit configured to receive an indication from the base station to change the sequence number length of an RLC PDU; a re-establishment unit configured to perform re-establishment of (S206, S207) an RLC entity upon receiving the indication; and a communication unit configured to use the RLC PDU with the changed sequence number length to communicate with the base station after completion of the re-establishment, wherein the changed sequence number length of the RLC PDU in an RLC-Acknowledge Mode, RLC-AM, is more than or equal to 11 bits, wherein the indication further includes an indication to perform an intra-cell handover operation, and in response to receiving the indication to perform the intra-cell handover operation, the re-establishment unit is adapted to perform the handover operation to re-establish the RLC entity, wherein in response to receiving the indication to perform the handover operation and the indication to change the sequence number length of the RLC PDU, a Medium Access Control, MAC, processing unit is adapted to prevent an already configured Secondary Cell, SCell, from being deactivated in the intra-cell handover operation.
A computer-implemented method for generating a magnetic resonance imaging image of a subject using an MRI device comprising: obtaining first k-space grid data associated with a first MRI scan and second k-space grid data associated with a second MRI scan; identifying (58,60), based on the first and second k-space grid data, at least one instance of subject movement during acquisition of scan line data for the first or second k-space grid data as part of one or more of the first MRI scan and the second MRI scan; determining, using a motion sensor, for each identified instance of subject movement whether the subject movement was during the first MRI scan or the second MRI scan; generating at least one of: corrected first k-space grid data using second k-space grid data and corrected second k-space grid data using first k-space grid data; and generating an MRI image based on one of: the corrected first k-space data and second k-space data; the corrected first k-space data and the corrected second k-space data; and the first k-space data and the corrected second k-space data. obtaining first k-space grid data associated with a first MRI scan and second k-space grid data associated with a second MRI scan; identifying (58,60), based on the first and second k-space grid data, at least one instance of subject movement during acquisition of scan line data for the first or second k-space grid data as part of one or more of the first MRI scan and the second MRI scan; determining, using a motion sensor, for each identified instance of subject movement whether the subject movement was during the first MRI scan or the second MRI scan; generating at least one of: corrected first k-space grid data using second k-space grid data and corrected second k-space grid data using first k-space grid data; and generating an MRI image based on one of: the corrected first k-space data and second k-space data; the corrected first k-space data and the corrected second k-space data; and the first k-space data and the corrected second k-space data.
Motor vehicle front end with an assembly support member, wherein the assembly support member has side supports and the assembly support member has in the region of the side supports a connecting means with connecting portions (2a, 2b, 2c, 2d) to connect the assembly support member to a vehicle longitudinal support member and also to a crashbox, and also crashboxes connected to the assembly support member, wherein the crashboxes have a base body extending in the vehicle longitudinal direction and a flange plate provided at the end face of the base body, wherein the flange plate has abutment portions (3.1, 3.2) for abutment against corresponding connecting portions (2a, 2b, 2c, 2d) of the assembly support member, characterised in that the connecting portions (2a, 2b, 2c, 2d) are sprayed in or on the assembly support carrier and at least a first of the connecting portions has an opening to guide through fixing means, in particular screws, and this is arranged laterally on the base body, wherein the first of the connecting portions lies in the travel direction before the flange plate and a further (2b, 2c) of the connecting portions lies in the travel direction behind the flange plate of the crashbox.
A method for evaluating renal status in a subject, comprising: performing one or more assays configured to detect as a kidney injury marker soluble tumor necrosis factor receptor superfamily member 6 in a body fluid sample obtained from the subject to provide one or more assay results; and correlating the assay result(s) to the renal status of the subject wherein said correlating step comprises assigning a likelihood of one or more future changes in renal status to the subject based on the assay result(s), and wherein said one or more future changes in renal status is future acute renal failure. performing one or more assays configured to detect as a kidney injury marker soluble tumor necrosis factor receptor superfamily member 6 in a body fluid sample obtained from the subject to provide one or more assay results; and correlating the assay result(s) to the renal status of the subject wherein said correlating step comprises assigning a likelihood of one or more future changes in renal status to the subject based on the assay result(s), and wherein said one or more future changes in renal status is future acute renal failure.
An apparatus for encoding video signal data for an image block, the apparatus comprising: an encoder for encoding color components of the video signal data without applying a residual color transform thereto, wherein sampling of the video signal data corresponds to a 4:4:4 format of the International Telecommunication Union, Telecommunication Sector H.264 standard, wherein color components of the video signal data input to the encoder are color components of YUV, YCrCb or YCOCG, characterized in that the encoder is configured to encode each color component of the video signal data using a respective one of three separate spatial predictors. an encoder for encoding color components of the video signal data without applying a residual color transform thereto, wherein sampling of the video signal data corresponds to a 4:4:4 format of the International Telecommunication Union, Telecommunication Sector H.264 standard, wherein color components of the video signal data input to the encoder are color components of YUV, YCrCb or YCOCG, characterized in that the encoder is configured to encode each color component of the video signal data using a respective one of three separate spatial predictors.
A touch screen configured to sense a touch object on or near a surface of the touch screen comprising: a plurality of display pixels, the display pixels including display circuitry that is configured to display an image on the touch screen, the display circuitry including one or more circuit elements; self-capacitive touch sensing circuitry in one or more of the plurality of display pixels, the self-capacitive touch sensing circuitry including a conductive portion that includes one of the circuit elements, the self-capacitive touch sensing circuitry configured to sense a self-capacitance of the conductive portion, wherein the self-capacitance is based on the proximity of the touch object to the surface of the touch screen, first and second conductive lines (407, 413), each of the first and the second conductive lines extending from at least one of the plurality of display pixels to an outer edge of the plurality of display pixels; a first switch that is configured to connect and disconnect a conductive line of the first conductive lines to the conductive portion; and a second switch that is configured to connect and disconnect a conductive line of the second conductive lines to the conductive portion. a plurality of display pixels, the display pixels including display circuitry that is configured to display an image on the touch screen, the display circuitry including one or more circuit elements; self-capacitive touch sensing circuitry in one or more of the plurality of display pixels, the self-capacitive touch sensing circuitry including a conductive portion that includes one of the circuit elements, the self-capacitive touch sensing circuitry configured to sense a self-capacitance of the conductive portion, wherein the self-capacitance is based on the proximity of the touch object to the surface of the touch screen, first and second conductive lines (407, 413), each of the first and the second conductive lines extending from at least one of the plurality of display pixels to an outer edge of the plurality of display pixels; a first switch that is configured to connect and disconnect a conductive line of the first conductive lines to the conductive portion; and a second switch that is configured to connect and disconnect a conductive line of the second conductive lines to the conductive portion.
A method performed by a wireless device in a wireless communication system, the method comprising: receiving information on an offset between a synchronization signal, SS, block and a system bandwidth from a network through the SS block; determining a physical resource block, PRB, index of the system bandwidth based on the information on the offset; receiving a transmission of a reference signal from the network; and receiving data from the network via a bandwidth specified to the wireless device based on the reference signal, wherein, in case the data comprises remaining minimum system information, RMSI, the reference signal is processed for the transmission based on a PRB indexing for a partial frequency region in the system bandwidth, and wherein, in case the data excludes the RMSI, the reference signal is processed for the transmission based on a PRB indexing for the system bandwidth. receiving information on an offset between a synchronization signal, SS, block and a system bandwidth from a network through the SS block; determining a physical resource block, PRB, index of the system bandwidth based on the information on the offset; receiving a transmission of a reference signal from the network; and receiving data from the network via a bandwidth specified to the wireless device based on the reference signal, wherein, in case the data comprises remaining minimum system information, RMSI, the reference signal is processed for the transmission based on a PRB indexing for a partial frequency region in the system bandwidth, and wherein, in case the data excludes the RMSI, the reference signal is processed for the transmission based on a PRB indexing for the system bandwidth.
An ultra-high strength weathering steel pile comprising: a web (610; 710) and a pair of opposing flanges (620, 630; 720, 730), each having discontinuities (613, 622, 632; 713, 722, 732) formed therein, a thickness of about 2.5 mm or less, and a composition comprising, by weight, (i) between 0.20% and 0.35% carbon, less than 1.0% chromium, between 0.7% and 2.0% manganese, between 0.10% and 0.50% silicon, between 0.1% and 1.0% copper, less than or equal to 0.12% niobium, less than 0.5% molybdenum, between 0.5% and 1.5% nickel, and silicon killed containing less than 0.01% aluminum, and (ii) the remainder iron and impurities resulting from melting; the pile having a corrosion index of 6.0 or greater calculated in accordance with the formula defined in paragraph 6.3.1.1 of ASTM G101, a yield strength of between 700 and 1600 MPa, a tensile strength of between 1000 and 2100 MPa, and an elongation of between 1% and 10%. a web (610; 710) and a pair of opposing flanges (620, 630; 720, 730), each having discontinuities (613, 622, 632; 713, 722, 732) formed therein, a thickness of about 2.5 mm or less, and a composition comprising, by weight, (i) between 0.20% and 0.35% carbon, less than 1.0% chromium, between 0.7% and 2.0% manganese, between 0.10% and 0.50% silicon, between 0.1% and 1.0% copper, less than or equal to 0.12% niobium, less than 0.5% molybdenum, between 0.5% and 1.5% nickel, and silicon killed containing less than 0.01% aluminum, and (ii) the remainder iron and impurities resulting from melting; (i) between 0.20% and 0.35% carbon, less than 1.0% chromium, between 0.7% and 2.0% manganese, between 0.10% and 0.50% silicon, between 0.1% and 1.0% copper, less than or equal to 0.12% niobium, less than 0.5% molybdenum, between 0.5% and 1.5% nickel, and silicon killed containing less than 0.01% aluminum, and (ii) the remainder iron and impurities resulting from melting; the pile having a corrosion index of 6.0 or greater calculated in accordance with the formula defined in paragraph 6.3.1.1 of ASTM G101, a yield strength of between 700 and 1600 MPa, a tensile strength of between 1000 and 2100 MPa, and an elongation of between 1% and 10%.