mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody for use in the treatment of rheumatoid arthritis in a subject, wherein the subject was previously ineffectively treated for rheumatoid arthritis with at least one disease-modifying anti-rheumatic drug (DMARD), wherein the at least one DMARD is selected from the group consisting of methotrexate, leflunomide, sulfasalazine, hydroxychloroquine, abatacept, rituximab, tocilizumab, adalimumab, certolizumab pegol, etanercept, golimumab and infliximab, wherein the antibody comprises the heavy chain variable region of sequence SEQ ID NO:1 and the light chain variable region sequence of SEQ ID NO:2, wherein the antibody is administered in an amount of 150 mg or 200 mg per every two weeks and methotrexate is administered in an amount of 6 to 25 mg per week, and wherein the use of the antibody improves the subject's Health-Related Quality of Life, wherein the improvement in Health-Related Quality of Life is characterized by : (i) a change from baseline (BL) in Short Form-36 Mental Health (SF-36 MH) of at least 5, and (ii) a change from BL in Short Form-36 Mental Component Summary (SF-36 MCS) of at least 2.5 after 24 weeks of treatment with the antibody. (i) a change from baseline (BL) in Short Form-36 Mental Health (SF-36 MH) of at least 5, and (ii) a change from BL in Short Form-36 Mental Component Summary (SF-36 MCS) of at least 2.5
Use of an electrically conductive composition containing the constituents: (A1a) 30 to 50% by weight of electrically conductive particles with an average particle size in the range of from 1 to 25 μm and an aspect ratio in the range of from 5 to 30 : 1 and (A1b) 20 to 60% by weight of non-metallic particles with an average particle size in the range of from 1 to 25 μm and an aspect ratio in the range of from 1 to 3 : 1 or (A2a) 70 to 90% by weight of electrically conductive particles and (A2b) 0 to 15% by weight of non-metallic particles, (B) 5 to 25% by weight of particles different from (A1a) and (A2a) of an alloy, which melts in the range of from 50 to 180 ∼ C and which contains indium and/or tin, (C) 5 to 25% by weight of a curable resin system, and (D) 0 to 10% by weight of at least one additive, for adhering a component to a substrate across the contact surfaces thereof, wherein at least one of the contact surfaces is a tin contact surface, and wherein the electrically conductive composition is free from substances with one or several cyanate groups. (A1a) 30 to 50% by weight of electrically conductive particles with an average particle size in the range of from 1 to 25 μm and an aspect ratio in the range of from 5 to 30 : 1 and (A1b) 20 to 60% by weight of non-metallic particles with an average particle size in the range of from 1 to 25 μm and an aspect ratio in the range of from 1 to 3 : 1 or (A2a) 70 to 90% by weight of electrically conductive particles and (A2b) 0 to 15% by weight of non-metallic particles, (B) 5 to 25% by weight of particles different from (A1a) and (A2a) of an alloy, which melts in the range of from 50 to 180 ∼ C and which contains indium and/or tin, (C) 5 to 25% by weight of a curable resin system, and (D) 0 to 10% by weight of at least one additive,
A terminally modified polycarbonate resin comprising a structure represented by General formula (A) and a structural unit derived from a dihydric phenol: (in General formula (A) above, R 1 represents a hydrogen atom or a C1-C6 alkyl group, R 2 represents a C1-C6 alkylene group, R 3 represents a hydrogen atom or a methyl group, R 4 represents a hydrogen atom or a halogen atom, and * represents the position of the bond to the main chain of the polycarbonate resin.)
A conductor and a feeder connected to the conductor, wherein the conductor comprises a split ring resonator and an opening ; a split in the split ring resonator and the opening are spatially continuous to each other; and the opening is adjacent to the split and a first conductor of the split ring resonator , characterized in that a first end of the feeder is connected to the first conductor of the split ring resonator ; and a second end of the feeder extends across a ring resonator opening of the split ring resonator and a second conductor of the split ring resonator when viewed from the first end of the feeder.
A vertical wind turbine with a plurality of vertical blades , which are each fastened to a respective vertical blade axis such that they are pivotable around a respective blade rotation axis (C 7 ) independently of one another and are supported rotatable on a common circular path (K) around a vertical rotor rotation axis (C 2 ), characterized in that the vertical wind turbine is configured to control a pitch angle (β) of the blades at least (a.) in a partial load mode of the vertical axis wind turbine such that the blades rotate with an essentially constant tip speed ratio (λ), and (b.) in a nominal operating mode of the vertical axis wind turbine such that the blades rotate with a variable tip speed ratio (λ).
A miniaturized medical device , comprising: an electronic functional device for performing a function of said miniaturized medical device , said functional device having an operational state for performing said function and a switched-off state, and a wake-up device for transferring said functional device from said switched-off state to said operational state, characterized in that the wake-up device comprises an electrical detection circuit configured to generate a wake-up signal (VS) for waking up said functional device and a switch device arranged in the electrical detection circuit , the switch device comprising a switch member , a magnet device attached to the switch member and at least one switch contact associated with the electrical detection circuit , wherein the switch member is excitable by a time-varying magnetic field (M) to perform an oscillating movement, wherein the switch member is configured, caused by said oscillating movement, to act onto said at least one switch contact to perform a switching action of the switching device in the electrical detection circuit for generating the wake-up signal (VS).
A memory device comprising: a nonvolatile semiconductor memory having a plurality of physical storage areas that includes a user area , which is an area externally accessible using a command, and are divided into plurality of management units; and a control unit configured to control the nonvolatile semiconductor memory, characterized in that the control unit is adapted to receive a control command having a first argument to designate a sequential write area (SeqW-AU) and to receive a read command or a write command, to assign a management unit represented by an address of the read command or the write command as the sequential write area using the first argument, and to change memory access control including at least one of control of the time representing that the write command is being processed, control to maintain data in unwritten areas, and control of a cache by judging whether an address of a memory access command to access the user area indicates access in the sequential write area whose size is equivalent to the management unit. a nonvolatile semiconductor memory having a plurality of physical storage areas that includes a user area , which is an area externally accessible using a command, and are divided into plurality of management units; and a control unit configured to control the nonvolatile semiconductor memory, characterized in that the control unit is adapted to receive a control command having a first argument to designate a sequential write area (SeqW-AU) and to receive a read command or a write command, to assign a management unit represented by an address of the read command or the write command as the sequential write area using the first argument, and to change memory access control including at least one of control of the time representing that the write command is being processed, control to maintain data in unwritten areas, and control of a cache by judging whether an address of a memory access command to access the user area indicates access in the sequential write area whose size is equivalent to the management unit.
An inflatable bone tamp comprising: a shaft defining a lumen ; a balloon coupled to the shaft such that a material can flow through the lumen and into the balloon to inflate the balloon ; a connector coupled to the shaft , the connector comprising a first port and a second port , the ports being in communication with the lumen ; a flow control device coupled to the first port that controls flow of the material through the first port and into the lumen ; and a damper coupled to the second port that control pressure within the inflatable bone tamp when pressure within the inflatable bone tamp reaches a threshold, characterized in that the inflatable bone tamp further comprises a cannula that surrounds the shaft , an inner surface of the cannula and an outer surface of the shaft defining a passageway that is in communication with the lumen . a shaft defining a lumen ; a balloon coupled to the shaft such that a material can flow through the lumen and into the balloon to inflate the balloon ; a connector coupled to the shaft , the connector comprising a first port and a second port , the ports being in communication with the lumen ; a flow control device coupled to the first port that controls flow of the material through the first port and into the lumen ; and a damper coupled to the second port that control pressure within the inflatable bone tamp when pressure within the inflatable bone tamp reaches a threshold, characterized in that the inflatable bone tamp further comprises a cannula that surrounds the shaft , an inner surface of the cannula and an outer surface of the shaft defining a passageway that is in communication with the lumen .
A method for establishing a wireless connection with an electronic device performed by glasses , the method comprising: obtaining, through a camera of the glasses , an image including the electronic device based on a direction of a user gaze, wherein the direction of the user gaze is determined by an eye-tracking camera of the glasses ; determining whether the user gaze is maintained on the electronic device included in the image for a predetermined period of time; determining the electronic device to pair with based on the determination identifying iris information of a user based on an image of the eyes of the user wearing the glasses ; performing authentication using the identified iris information; transmitting the iris information of the user to the electronic device for a user authentication by the electronic device ; controlling the glasses to pair with the electronic device ; and controlling the glasses to control the electronic device based on the user authentication by the electronic device . obtaining, through a camera of the glasses , an image including the electronic device based on a direction of a user gaze, wherein the direction of the user gaze is determined by an eye-tracking camera of the glasses ; determining whether the user gaze is maintained on the electronic device included in the image for a predetermined period of time; determining the electronic device to pair with based on the determination identifying iris information of a user based on an image of the eyes of the user wearing the glasses ; performing authentication using the identified iris information; transmitting the iris information of the user to the electronic device for a user authentication by the electronic device ; controlling the glasses to pair with the electronic device ; and controlling the glasses to control the electronic device based on the user authentication by the electronic device .
A neutron capture therapy system for eliminating amyloid β-protein deposition plaque, comprising: a neutron capture therapy device, and a 10 B-containing compound having a structure shown in structural formula I: wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound. a neutron capture therapy device, and a 10 B-containing compound having a structure shown in structural formula I: wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound. wherein, R is a phenylboronic acid group, and the boron in the phenylboronic acid group is 10 B; wherein the 10 B-containing compound is capable of specifically binding to the amyloid β-protein deposition plaque, and the energy generated by action of a neutron beam generated by the neutron capture therapy device on the 10 B-containing compound destroys the amyloid β-protein deposition plaque that is specifically bound to the 10 B-containing compound.
A digital inkjet printing process for forming a 2.5D pattern on a surface region of a substrate, the process comprising depositing by inkjet printing a water-based color ink formulation on a substrate having a recipient surface region to thereby form a layered 2.5D pattern comprising a plurality of material layers structured to adopt the 2.5D pattern with a preselected design; wherein the water-based color ink formulation optionally contains a pigment, the 2.5D pattern has a thickness of not greater than 1 mm, wherein the process does not comprise deposition of UV-based ink formulations or UV-irradiation steps, and wherein the recipient surface is a recipient layer comprising at least one ink fixation agent and a vinyl acetate/ethylene copolymer (VAE)-based material, wherein the VAE-based material is selected from VAE and a VAE derivative. the water-based color ink formulation optionally contains a pigment, the 2.5D pattern has a thickness of not greater than 1 mm, wherein the process does not comprise deposition of UV-based ink formulations or UV-irradiation steps, and wherein the recipient surface is a recipient layer comprising at least one ink fixation agent and a vinyl acetate/ethylene copolymer (VAE)-based material, wherein the VAE-based material is selected from VAE and a VAE derivative.
Cooling system for cooling dosing valves of a reducing-agent-dosing system for dosing a reducing agent into an exhaust-gas system of an internal combustion engine , wherein the cooling system comprises a first coolant circuit , which supplies coolant to an engine block of the internal combustion engine , and a second coolant circuit , which supplies coolant to a charge-air cooler of the internal combustion engine , wherein the first coolant circuit comprises a first coolant pump and the second coolant circuit comprises a second coolant pump , characterized in that a first dosing valve which, in the flow direction of an exhaust-gas stream of the internal combustion engine through an exhaust-gas system of the internal combustion engine , is close to the engine is connected to the second coolant circuit and a second dosing valve which is remote from the engine is connected to the first coolant circuit .
A method for wireless communications at a user equipment, UE, the method comprising: receiving , from a base station and while operating in a first bandwidth part, downlink control information, DCI, having a plurality of DCI fields, one or more DCI fields of the plurality of DCI fields having a respective first size based on the first bandwidth part, wherein the DCI includes an indication that the UE is to switch from operating in the first bandwidth part to operating in a second bandwidth part; identifying , from the plurality of DCI fields, a first set of DCI fields having content in the first bandwidth part, wherein each DCI field in the first set of fields is able to be updated via a transformation rule from DCI fields having the respective first size to DCI fields having a respective second size corresponding to the second bandwidth part; and identifying , from the plurality of DCI fields, a second set of DCI fields corresponding to the first bandwidth part, wherein the second set of DCI fields comprise an exception to the transformation rule, the second set of DCI fields having content in the first bandwidth part and being unable to be updated via the transformation rule; determining an updated content of the plurality of DCI fields for application to the second bandwidth part based at least in part on whether each DCI field is from the first set of DCI fields or the second set of DCI fields. receiving , from a base station and while operating in a first bandwidth part, downlink control information, DCI, having a plurality of DCI fields, one or more DCI fields of the plurality of DCI fields having a respective first size based on the first bandwidth part, wherein the DCI includes an indication that the UE is to switch from operating in the first bandwidth part to operating in a second bandwidth part; identifying , from the plurality of DCI fields, a first set of DCI fields having content in the first bandwidth part, wherein each DCI field in the first set of fields is able to be updated via a transformation rule from DCI fields having the respective first size to DCI fields having a respective second size corresponding to the second bandwidth part; and identifying , from the plurality of DCI fields, a second set of DCI fields corresponding to the first bandwidth part, wherein the second set of DCI fields comprise an exception to the transformation rule, the second set of DCI fields having content in the first bandwidth part and being unable to be updated via the transformation rule; determining an updated content of the plurality of DCI fields for application to the second bandwidth part based at least in part on whether each DCI field is from the first set of DCI fields or the second set of DCI fields.
A process for the separation of a first diol, selected from the group consisting of C3 to C7 diols from a first mixture comprising two or more C3 to C7 diols, said process comprising the steps of: (i) providing said first mixture comprising two or more C3 to C7 diols as a feed to a first distillation column; (ii) providing a feed comprising an extractant to the first distillation column above the first mixture; (iii) operating the first distillation column at a temperature in the range of from 50 to 250 °C and a pressure in the range of from 0.1 to 400 kPa; (iv) removing a stream comprising the first diol and the extractant as a bottoms stream from the first distillation column; and (v) subjecting the stream comprising the first diol and the extractant to distillation in a second distillation column to provide a stream from the top-section of the second distillation column comprising the first diol in high purity and a stream from the bottom section of the second distillation column comprising a used extractant stream, wherein the extractant is selected from the group of C3 to C6 sugar alcohols and mixtures thereof, and wherein the first diol is a close-boiler to and/or forms an azeotrope with one or more of the other C3 to C7 diols present in the first mixture. (i) providing said first mixture comprising two or more C3 to C7 diols as a feed to a first distillation column; (ii) providing a feed comprising an extractant to the first distillation column above the first mixture; (iii) operating the first distillation column at a temperature in the range of from 50 to 250 °C and a pressure in the range of from 0.1 to 400 kPa; (iv) removing a stream comprising the first diol and the extractant as a bottoms stream from the first distillation column; and (v) subjecting the stream comprising the first diol and the extractant to distillation in a second distillation column to provide a stream from the top-section of the second distillation column comprising the first diol in high purity and a stream from the bottom section of the second distillation column comprising a used extractant stream, wherein the extractant is selected from the group of C3 to C6 sugar alcohols and mixtures thereof, and wherein the first diol is a close-boiler to and/or forms an azeotrope with one or more of the other C3 to C7 diols present in the first mixture.
A flush valve suitable for being connected with a pump that is located in a reservoir containing liquid, the flush valve comprising: - an inlet configured to be in fluid communication with a volute of said pump , - an outlet configured to open into said reservoir , and - a valve arrangement , wherein the valve arrangement comprises: - a first chamber , a second chamber that is partly delimited by a diaphragm , and a conduit extending between and connecting the first chamber and the second chamber , - a third chamber that connects the inlet and the outlet of the flush valve and that is partly delimited by said diaphragm , the third chamber comprising a valve member configured to control a fluid flow from the inlet to the outlet based on the position of said diaphragm , and - a control mechanism arranged in said conduit , the flush valve being characterized in that said control mechanism comprises a stepper and a plunger , the plunger being displaceable back and forth between an inactive position and an active position, the plunger being biased towards said inactive position and being displaced towards said active position by means of the second pressure [P2] in the second chamber when said second pressure [P2] in the second chamber is greater than a threshold value [PT], the plunger being configured to engage the stepper when the plunger is displaced towards the active position, wherein the stepper , each time the plunger engages the stepper , changes position once in a repeated set of positions according to a step-by-step routine, and wherein the stepper in at least one position of said set of positions enables fluid communication between the first chamber and the second chamber via said conduit . - an inlet configured to be in fluid communication with a volute of said pump , - an outlet configured to open into said reservoir , and - a valve arrangement , wherein the valve arrangement comprises: - a first chamber , a second chamber that is partly delimited by a diaphragm , and a conduit extending between and connecting the first chamber and the second chamber , - a third chamber that connects the inlet and the outlet of the flush valve and that is partly delimited by said diaphragm , the third chamber comprising a valve member configured to control a fluid flow from the inlet to the outlet based on the position of said diaphragm , and - a control mechanism arranged in said conduit , - a first chamber , a second chamber that is partly delimited by a diaphragm , and a conduit extending between and connecting the first chamber and the second chamber , - a third chamber that connects the inlet and the outlet of the flush valve and that is partly delimited by said diaphragm , the third chamber comprising a valve member configured to control a fluid flow from the inlet to the outlet based on the position of said diaphragm , and - a control mechanism arranged in said conduit ,