mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising five nonaqueous electrolyte batteries electrically connected in series, each of the five nonaqueous electrolyte batteries comprising: a positive electrode (5, 13); a negative electrode (3, 14); and a nonaqueous electrolyte, wherein the negative electrode (3, 14) includes an active material including a titanium composite oxide, the titanium composite oxide has an orthorhombic crystal structure, and the crystal structure of the titanium composite oxide has symmetry belonging to a space group Cmca or Fmmm, the composite oxide being represented by general formula Li 2+w Na 2-x2 Mα y2 Ti 6-z2 Mβ z2 O 14+δ2: herein, Mα is at least one selected from the group consisting of Cs and K; Mβ is at least one selected from the group consisting of trivalent Fe, Co, Mn and Al, tetravalent Zr and Sn, pentavalent V, Nb and Ta, and hexavalent Mo and W; the total valence of Ti is 4 × (6 - z2); w is within a range of 0 ≤ w ≤ 4; x2 is within a range of 0 < x2 < 2; y2 is within a range of 0 ≤ y2 < 2; z2 is within a range of 0 < z2 < 6; and δ2 is within a range of -0.5 ≤ δ2 ≤ 0.5. a positive electrode (5, 13); a negative electrode (3, 14); and a nonaqueous electrolyte, wherein the negative electrode (3, 14) includes an active material including a titanium composite oxide, the titanium composite oxide has an orthorhombic crystal structure, and the crystal structure of the titanium composite oxide has symmetry belonging to a space group Cmca or Fmmm, the composite oxide being represented by general formula Li 2+w Na 2-x2 Mα y2 Ti 6-z2 Mβ z2 O 14+δ2: herein, Mα is at least one selected from the group consisting of Cs and K; Mβ is at least one selected from the group consisting of trivalent Fe, Co, Mn and Al, tetravalent Zr and Sn, pentavalent V, Nb and Ta, and hexavalent Mo and W; the total valence of Ti is 4 × (6 - z2); w is within a range of 0 ≤ w ≤ 4; x2 is within a range of 0 < x2 < 2; y2 is within a range of 0 ≤ y2 < 2; z2 is within a range of 0 < z2 < 6; and δ2 is within a range of -0.5 ≤ δ2 ≤ 0.5. herein, Mα is at least one selected from the group consisting of Cs and K; Mβ is at least one selected from the group consisting of trivalent Fe, Co, Mn and Al, tetravalent Zr and Sn, pentavalent V, Nb and Ta, and hexavalent Mo and W; the total valence of Ti is 4 × (6 - z2); w is within a range of 0 ≤ w ≤ 4; x2 is within a range of 0 < x2 < 2; y2 is within a range of 0 ≤ y2 < 2; z2 is within a range of 0 < z2 < 6; and δ2 is within a range of -0.5 ≤ δ2 ≤ 0.5.
Construction machine, comprising an undercarriage in the form of a chassis, - an upper carriage arranged on the undercarriage, - a main drive unit comprising -- a main drive, -- a transfer case driven by the main drive, and -- at least one energy converter, which converts mechanical energy of the transfer case into a different energy form, -- wherein the main drive, the transfer case and the energy converter are enclosed and housed by a housing of the upper carriage, and - at least one consumption device, which is arranged outside the housing and is supplied with the converted energy from at least one of the energy converters, characterised in that - the main drive is a main electric motor and, as a main energy supply, a power line connection is provided, with which the main electric motor can be supplied with electricity with an external power source, and - outside the housing, for energy generation and for energy transfer into the housing, at least one auxiliary drive unit is arranged, by which the transfer case can additionally be driven in place of or in support of the main electric motor. - an upper carriage arranged on the undercarriage, - a main drive unit comprising -- a main drive, -- a transfer case driven by the main drive, and -- at least one energy converter, which converts mechanical energy of the transfer case into a different energy form, -- wherein the main drive, the transfer case and the energy converter are enclosed and housed by a housing of the upper carriage, and -- a main drive, -- a transfer case driven by the main drive, and -- at least one energy converter, which converts mechanical energy of the transfer case into a different energy form, -- wherein the main drive, the transfer case and the energy converter are enclosed and housed by a housing of the upper carriage, and - at least one consumption device, which is arranged outside the housing and is supplied with the converted energy from at least one of the energy converters, - the main drive is a main electric motor and, as a main energy supply, a power line connection is provided, with which the main electric motor can be supplied with electricity with an external power source, and - outside the housing, for energy generation and for energy transfer into the housing, at least one auxiliary drive unit is arranged, by which the transfer case can additionally be driven in place of or in support of the main electric motor.
A system for asymmetric memory access in an integrated circuit, comprising: a memory including a plurality of memory banks (122, 124, 126); and a memory controller including a plurality of access ports (112, 114) coupled to the memory banks (122, 124, 126), each access port (112, 114) being coupled to each of the memory banks (122, 124, 126); the memory controller being configured to provide asymmetric memory access for access requests to the memory banks (122, 124, 126) based upon an access port (112; 114) to be used for each memory access request, wherein the memory controller is configured to use at least two different memory access times to the memory banks (122, 124, 126) to provide the asymmetric memory access based upon the access port (112; 114) to be used for each memory access request; characterized in that: the different access times comprise a plurality of sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214), each set of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) being associated with one of the access ports (112, 114); wherein each of the sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) comprises a separate access time for each memory bank (122, 124, 126) within the memory; wherein the memory and the memory controller are within a single integrated circuit. a memory including a plurality of memory banks (122, 124, 126); and a memory controller including a plurality of access ports (112, 114) coupled to the memory banks (122, 124, 126), each access port (112, 114) being coupled to each of the memory banks (122, 124, 126); the memory controller being configured to provide asymmetric memory access for access requests to the memory banks (122, 124, 126) based upon an access port (112; 114) to be used for each memory access request, wherein the memory controller is configured to use at least two different memory access times to the memory banks (122, 124, 126) to provide the asymmetric memory access based upon the access port (112; 114) to be used for each memory access request; characterized in that: the different access times comprise a plurality of sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214), each set of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) being associated with one of the access ports (112, 114); wherein each of the sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) comprises a separate access time for each memory bank (122, 124, 126) within the memory; wherein the memory and the memory controller are within a single integrated circuit. the different access times comprise a plurality of sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214), each set of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) being associated with one of the access ports (112, 114); wherein each of the sets of access times (AT-A1 202, AT-A2 204; AT-B1 212, AT-B2 214) comprises a separate access time for each memory bank (122, 124, 126) within the memory; wherein the memory and the memory controller are within a single integrated circuit.
A walkable baseboard for placement onto a rafter structure of a roof characterized in that • the baseboard is made of a non-woven fabric produced in a drying process, • the non-woven fabric is made rigid mechanically and compacted, as well as thermally solidified, • the non-woven fabric is made of stacked synthetic fibres comprising a crimping, • at least 30% by weight of the fibres that make up the non-woven fabric are stacked fibres which have hydrophobic characteristics before and/or after thermal treatment and which have a fibre diameter of less than 21μm, • at least 40% by weight of the fibres that make up the non-woven fabric consist of melted fibres, • a maximum of 30% by weight of the fibres that make up the non-woven fabric are coarse fibres which have a fibre diameter of greater than 30 μm. • the baseboard is made of a non-woven fabric produced in a drying process, • the non-woven fabric is made rigid mechanically and compacted, as well as thermally solidified, • the non-woven fabric is made of stacked synthetic fibres comprising a crimping, • at least 30% by weight of the fibres that make up the non-woven fabric are stacked fibres which have hydrophobic characteristics before and/or after thermal treatment and which have a fibre diameter of less than 21μm, • at least 40% by weight of the fibres that make up the non-woven fabric consist of melted fibres, • a maximum of 30% by weight of the fibres that make up the non-woven fabric are coarse fibres which have a fibre diameter of greater than 30 μm.
A head-up display device for projecting an image on a curved image surface, the device comprising: - a waveguide capable of guiding light carrying the image to be displayed, and - an optical correction element, wherein the waveguide is configured to couple light propagating therein towards the optical correction element, and the optical correction element is configured to perform an optical function for said light that corrects image distortions caused by the curved image surface and to further direct said light towards said curved image surface through said waveguide, and characterized in that the device further comprising a quarter-wave plate capable of altering the polarization of light and being arranged between the waveguide and the optical correction element so that said light passes twice through the quarter-wave plate. - a waveguide capable of guiding light carrying the image to be displayed, and - an optical correction element, wherein the waveguide is configured to couple light propagating therein towards the optical correction element, and the optical correction element is configured to perform an optical function for said light that corrects image distortions caused by the curved image surface and to further direct said light towards said curved image surface through said waveguide, and characterized in that the device further comprising a quarter-wave plate capable of altering the polarization of light and being arranged between the waveguide and the optical correction element so that said light passes twice through the quarter-wave plate.
Method for producing a control device, comprising the following steps: - providing a housing, at least one groove with two opposite groove walls being formed in the housing, - pushing an electronic assembly into the housing, the electronic assembly being at least partially pushed into the groove, and a gap remaining in the groove between the electronic assembly and at least one of the groove walls, - positioning a liquid heat conducting medium outside the gap in the interior of the housing, characterized in that the introduction of the heat conducting medium into the gap is performed by tilting and/or moving the housing with the pushed-in electronic assembly, so that the heat conducting medium flows into the gap and/or is drawn into the gap by capillary action. - providing a housing, at least one groove with two opposite groove walls being formed in the housing, - pushing an electronic assembly into the housing, the electronic assembly being at least partially pushed into the groove, and a gap remaining in the groove between the electronic assembly and at least one of the groove walls, - positioning a liquid heat conducting medium outside the gap in the interior of the housing,
A method for sending multi-carrier enhanced dedicated channel data, comprising: when a drift radio network controller receives an enhanced dedicated channel uplink data frame sent by a node B which only has an enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier; wherein, cells of a same carrier frequency layer have a same carrier frequency, and if all the nodes B governed by the drift radio network controller are all nodes B of the enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier and are in an identical carrier frequency layer, the drift radio network controller not processing (680, 710) the received enhanced dedicated channel uplink data frame and sending (690, 710) the received enhanced dedicated channel uplink data frame to the serving radio network controller; if all the nodes B governed by the drift radio network controller are nodes B of the enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier but do not belong to an identical carrier frequency layer, or if all the nodes B governed by the drift radio network controller are not all nodes B of the enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier, the drift radio network controller setting (550, 580, 650) "uplink multiplexing information" which is "null" in the received enhanced dedicated channel uplink data frame as carrier identifier information of the carrier for receiving data carried in the enhanced dedicated channel uplink data frame and sending (560, 590, 660) that enhanced dedicated channel uplink data frame to the serving radio network controller; wherein, the carrier identifier information is used for identifying carriers. when a drift radio network controller receives an enhanced dedicated channel uplink data frame sent by a node B which only has an enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier; wherein, cells of a same carrier frequency layer have a same carrier frequency, and if all the nodes B governed by the drift radio network controller are all nodes B of the enhanced dedicated channel cell of a single carrier frequency layer in the multi-carrier and are in an identical carrier frequency layer, the drift radio network controller not processing (680, 710) the received enhanced dedicated channel uplink data frame and sending (690, 710) the received enhanced dedicated channel uplink data frame to the serving radio network controller;
A method for measuring the level of the human Epidermal Growth Factor Receptor (EGFR) protein in a human biological sample of formalin fixed and paraffin embedded tissue, wherein the tissue is human breast cancer tissue, the method comprising detecting and quantifying the amount of a EGFR fragment peptide in a protein digest prepared from said human biological sample using mass spectrometry; and calculating the level of EGFR protein in said sample; wherein the EGFR fragment peptide is the peptide of SEQ ID NO: 4, and wherein said level is a relative level or an absolute level.
Radio access network, RAN, slice for providing radio access to a communication network for a user equipment, wherein the RAN slice is uniquely identified by a RAN slice identifier and comprises exclusive resources that are reserved for prioritized user equipment, the RAN slice comprising: a base station for providing access to the RAN slice for the user equipment; an access and mobility management function, AMF, entity, which is configured to handle the RAN slice identifier that is identifying the RAN slice; a session management function, SMF, entity which is configured to handle data communications of the user equipment over the RAN slice; wherein the base station is configured to receive an attach request originating from the user equipment to connect to the RAN slice, and to reject access to the RAN slice if the attach request does not comprise the RAN slice identifier; to grant access to the RAN slice to the user equipment if the attach request comprises the RAN slice identifier; and to check an identification of the user equipment; and to provide exclusive resources of the RAN slice to the user equipment, if the identification of the user equipment is deposited in a memory related to the RAN slice. a base station for providing access to the RAN slice for the user equipment; an access and mobility management function, AMF, entity, which is configured to handle the RAN slice identifier that is identifying the RAN slice; a session management function, SMF, entity which is configured to handle data communications of the user equipment over the RAN slice; wherein the base station is configured to receive an attach request originating from the user equipment to connect to the RAN slice, and to reject access to the RAN slice if the attach request does not comprise the RAN slice identifier; to grant access to the RAN slice to the user equipment if the attach request comprises the RAN slice identifier; and to check an identification of the user equipment; and to provide exclusive resources of the RAN slice to the user equipment, if the identification of the user equipment is deposited in a memory related to the RAN slice.
Vedolizumab for use in treating a patient suffering from Inflammatory Bowel Disease, the use comprising either: a) in vitro measuring the concentration of albumin in a patient wherein the patient was administered an induction phase dosing regimen of vedolizumab at least two weeks prior; b) selecting the patient whose measurement of albumin in step a) is >3.2 g/dL; and c) administering vedolizumab to the selected patient, thereby treating IBD; or d) obtaining a serum sample from a patient who has received at least one dose of vedolizumab in the previous two months; e) in vitro measuring the concentration of albumin in the sample; and f) administering vedolizumab thereafter every eight weeks if the albumin concentration is >3.2 g/dL. a) in vitro measuring the concentration of albumin in a patient wherein the patient was administered an induction phase dosing regimen of vedolizumab at least two weeks prior; b) selecting the patient whose measurement of albumin in step a) is >3.2 g/dL; and c) administering vedolizumab to the selected patient, thereby treating IBD; or d) obtaining a serum sample from a patient who has received at least one dose of vedolizumab in the previous two months; e) in vitro measuring the concentration of albumin in the sample; and f) administering vedolizumab thereafter every eight weeks if the albumin concentration is >3.2 g/dL.
1. A process for obtaining membrane polysaccharides from an organism selected from microorganisms, unicellular organisms and filamentous fungi, said process comprising at least one step of extracting said membrane polysaccharides, accompanied by a reduced extraction of the soluble proteins, by mechanical treatment of said organism in a ball mill or by physical treatment of said organism by means of ultrasound, wherein: - the process is performed by mechanical treatment using a ball mill equipped with glass balls with a ball filling rate of the mill ranging from 50% to 80% volume/volume, at a temperature ranging from 18 to 40°C, the mean diameter of the balls (d GM) ranges from 1.5 × 10 -3 to 2.5 × 10 -3 m and the stirring speed at the blade end (v) ranges from 5 to 20 m.sec -1, or - the process is performed by physical treatment of said organism by means of ultrasound according to the following conditions: - the energy ranges from 500 to 5000 J, - the power ranges from 200 W to 400 W, and - the feed flow rate of the reactor ranges from 0.150 l/min to 3 l/min. - the process is performed by mechanical treatment using a ball mill equipped with glass balls with a ball filling rate of the mill ranging from 50% to 80% volume/volume, at a temperature ranging from 18 to 40°C, the mean diameter of the balls (d GM) ranges from 1.5 × 10 -3 to 2.5 × 10 -3 m and the stirring speed at the blade end (v) ranges from 5 to 20 m.sec -1, or - the process is performed by physical treatment of said organism by means of ultrasound according to the following conditions: - the energy ranges from 500 to 5000 J, - the power ranges from 200 W to 400 W, and - the feed flow rate of the reactor ranges from 0.150 l/min to 3 l/min. - the energy ranges from 500 to 5000 J, - the power ranges from 200 W to 400 W, and - the feed flow rate of the reactor ranges from 0.150 l/min to 3 l/min.
A tire comprising: a tread portion provided with shoulder blocks defined by a tread edge (Te), a shoulder circumferential groove located adjacent to the tread edge (Te) and extending continuously in the tire circumferential direction in a zigzag manner, and shoulder lateral grooves extending from the shoulder circumferential groove to the tread edge (Te), the tread edge (Te) being an axial outermost edge of a ground contacting patch of the tire which occurs under the normally loaded condition when the camber angle of the tire is zero, wherein each of the shoulder blocks comprises a convex portion which projects toward the axially inside of the tire and is formed by one of corners of zigzag of the shoulder circumferential groove, and each of the shoulder blocks is provided with a longitudinal groove extending in the tire circumferential direction so that at least one of ends of the longitudinal groove is located within the shoulder block, characterized in that the longitudinal groove has a groove depth less than groove depths of the shoulder circumferential groove and the shoulder lateral grooves, the groove depth of the longitudinal groove being in a range from 5 % to 20 % of the groove depth (d1a) of the shoulder circumferential groove. a tread portion provided with shoulder blocks defined by a tread edge (Te), a shoulder circumferential groove located adjacent to the tread edge (Te) and extending continuously in the tire circumferential direction in a zigzag manner, and shoulder lateral grooves extending from the shoulder circumferential groove to the tread edge (Te), the tread edge (Te) being an axial outermost edge of a ground contacting patch of the tire which occurs under the normally loaded condition when the camber angle of the tire is zero, wherein each of the shoulder blocks comprises a convex portion which projects toward the axially inside of the tire and is formed by one of corners of zigzag of the shoulder circumferential groove, and each of the shoulder blocks is provided with a longitudinal groove extending in the tire circumferential direction so that at least one of ends of the longitudinal groove is located within the shoulder block, characterized in that the longitudinal groove has a groove depth less than groove depths of the shoulder circumferential groove and the shoulder lateral grooves, the groove depth of the longitudinal groove being in a range from 5 % to 20 % of the groove depth (d1a) of the shoulder circumferential groove.