mhurhangee/patent-ind-claim-en huggingface dataset:
One or more preconditioning agents for use in a method for treating a cancer in a patient suitable for a T cell therapy, the method comprising (i) administering to the patient one or more preconditioning agents that are capable of increasing a serum level of interleukin-15 ("IL-15"), interleukin-7 ("IL-7"), and at least one additional cytokine selected from the group consisting of monocyte chemotactic protein 1 ("MCP-1"), C-reactive protein ("CRP"), placental growth factor ("PLGF"), interferon gamma-induced protein 10 ("IP-10"), and any combination thereof and (ii) administering a T cell therapy when the patient exhibits an increased serum level of IL-15, IL-7, and the at least one additional cytokine.
An automatic analyzer configured to dispense a sample and a reagent to a reaction container , to react the sample and the reagent, and to measure a liquid that has reacted to determine the concentration of a predetermined component in the sample, the automatic analyzer comprising: a reagent disk configured to store a reagent bottle containing the reagent, the reagent disk including a reagent probe suction port accessed by a reagent probe when the reagent is to be dispensed in the reaction container and a loading port for loading the reagent bottle into the reagent disk ; a reagent bottle mounting unit in which the plurality of the reagent bottles are installed when the reagent bottle is loaded into the automatic analyzer; and a reagent bottle conveying unit including a gripper unit configured to grip the reagent bottle for conveying the reagent bottle installed in the reagent bottle mounting unit into the reagent disk via said loading port of the reagent disk , characterized by a linear conveying line , a position of which is present between the reagent probe suction port and the loading port , the conveying line being for moving the reagent bottle mounting unit between an installation position at which an operator installs the reagent bottle in the reagent bottle mounting unit and a position at which the gripper unit grips the reagent bottle for loading the reagent bottle into the reagent disk . a reagent disk configured to store a reagent bottle containing the reagent, the reagent disk including a reagent probe suction port accessed by a reagent probe when the reagent is to be dispensed in the reaction container and a loading port for loading the reagent bottle into the reagent disk ; a reagent bottle mounting unit in which the plurality of the reagent bottles are installed when the reagent bottle is loaded into the automatic analyzer; and a reagent bottle conveying unit including a gripper unit configured to grip the reagent bottle for conveying the reagent bottle installed in the reagent bottle mounting unit into the reagent disk via said loading port of the reagent disk , characterized by a linear conveying line , a position of which is present between the reagent probe suction port and the loading port , the conveying line being for moving the reagent bottle mounting unit between an installation position at which an operator installs the reagent bottle in the reagent bottle mounting unit and a position at which the gripper unit grips the reagent bottle for loading the reagent bottle into the reagent disk .
A turbine engine system (200; 300; 400), comprising: a combustor (212; 312; 412) arranged along a core flow path (C) of the turbine engine; a cryogenic fuel tank (222; 322; 422) configured to supply a fuel to the combustor; a fuel supply line having a first flow supply line (226; 326; 426) and a second flow supply line (228; 328; 428), the first flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a first core flow path heat exchanger (232; 332; 432), and the second flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a second core flow path heat exchanger (240; 342; 442); a flow controller (224; 324; 424) arranged along the fuel supply line and configured to respectively control a flow of fuel into the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428); and an expansion turbine (234; 334; 434) configured to receive fuel from at least one of the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428) downstream of the respective first core flow path heat exchanger (232; 332; 432) and second core flow path heat exchanger (240; 342; 442) and upstream of the combustor (212; 312; 412); characterized by at least one additional heat exchanger (238; 446) arranged between the expansion turbine (234; 434) and the combustor (212; 412). a combustor (212; 312; 412) arranged along a core flow path (C) of the turbine engine; a cryogenic fuel tank (222; 322; 422) configured to supply a fuel to the combustor; a fuel supply line having a first flow supply line (226; 326; 426) and a second flow supply line (228; 328; 428), the first flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a first core flow path heat exchanger (232; 332; 432), and the second flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a second core flow path heat exchanger (240; 342; 442); a flow controller (224; 324; 424) arranged along the fuel supply line and configured to respectively control a flow of fuel into the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428); and an expansion turbine (234; 334; 434) configured to receive fuel from at least one of the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428) downstream of the respective first core flow path heat exchanger (232; 332; 432) and second core flow path heat exchanger (240; 342; 442) and upstream of the combustor (212; 312; 412); characterized by at least one additional heat exchanger (238; 446) arranged between the expansion turbine (234; 434) and the combustor (212; 412).
A seal plate for maintaining a continuous aerodynamic surface between a fixed part of an aerodynamic structure and a movable surface , the seal plate comprising a first resilient material and defining a said aerodynamic surface thereon and being configured to be mounted to the fixed part along a first edge thereof and slidably to engage the movable surface at a second, distal edge , the distal edge defining a sealing surface , sealably to contact the movable surface , and a rigid lever to transfer a bending moment from the movable surface to the seal plate thereby to bend the seal plate in precise correspondence with movement of the movable surface and maintain the said continuous aerodynamic surface, the seal plate defining a step whereby the rigid lever is stepped away from the aerodynamic surface slidably to engage behind the movable surface .
An electronic device comprising: a continuous time linear equalizer, CTLE, comprising: a first inverter ; a second inverter having an input to receive an input signal (IN); a capacitor coupled between an input of the first inverter and the input of the second inverter ; a first resistor coupled between a common-mode voltage (VCM) and the input of the first inverter ; a third inverter having an output to provide an output signal (Out); and a node comprising an output of the first inverter , an output of the second inverter , an input of the third inverter , and the output of the third inverter . a first inverter ; a second inverter having an input to receive an input signal (IN); a capacitor coupled between an input of the first inverter and the input of the second inverter ; a first resistor coupled between a common-mode voltage (VCM) and the input of the first inverter ; a third inverter having an output to provide an output signal (Out); and a node comprising an output of the first inverter , an output of the second inverter , an input of the third inverter , and the output of the third inverter .
A method performed by a wireless device for performing one or more operations based on available energy, wherein the wireless device is configured to operate in a wireless communications network , and wherein the method comprises: - based on an amount of energy available for operation and based on control information, determining an allocation of the amount of available energy between at least a first energy part and a second energy part, wherein the first energy part of the amount of available energy is to be used in a sensing operation using a sensing operation configuration and the second energy part of the amount of available energy is to be used in a communicating operation using a communicating operation configuration; and - performing based on the determined allocation, one or more operations out of: the sensing operation using the first energy part and the sensing operation configuration, and the communicating operation using the second energy part and the communicating operation configuration, characterized in that: the control information comprises information relating to a priority relation between the sensing operation and the communicating operation; performing, in accordance with the priority relation between the sensing operation and the communicating operation, at least one of: the sensing operation using the first energy part and the sensing operation configuration; and the communicating operation using the second energy part and the communicating operation configuration. - based on an amount of energy available for operation and based on control information, determining an allocation of the amount of available energy between at least a first energy part and a second energy part, wherein the first energy part of the amount of available energy is to be used in a sensing operation using a sensing operation configuration and the second energy part of the amount of available energy is to be used in a communicating operation using a communicating operation configuration; and - performing based on the determined allocation, one or more operations out of: the sensing operation using the first energy part and the sensing operation configuration, and the communicating operation using the second energy part and the communicating operation configuration, characterized in that: the control information comprises information relating to a priority relation between the sensing operation and the communicating operation; performing, in accordance with the priority relation between the sensing operation and the communicating operation, at least one of: the sensing operation using the first energy part and the sensing operation configuration; and the communicating operation using the second energy part and the communicating operation configuration.
Power semiconductor module - comprising at least two interconnected power semiconductor units having controllable power semiconductor components , - comprising a module housing , in which the power semiconductor units are arranged, the module housing having a housing wall , and - comprising an electrical conductor for connecting one of the power semiconductor units , the electrical conductor extending through the housing wall , - the housing wall having a coolant channel for cooling the electrical conductor , characterized in that - the coolant channel is open towards the electrical conductor at least sectionally, such that the cutout in the housing wall that forms the coolant channel is in direct contact with the electrical conductor. - comprising at least two interconnected power semiconductor units having controllable power semiconductor components , - comprising a module housing , in which the power semiconductor units are arranged, the module housing having a housing wall , and - comprising an electrical conductor for connecting one of the power semiconductor units , the electrical conductor extending through the housing wall , - the housing wall having a coolant channel for cooling the electrical conductor , - the coolant channel is open towards the electrical conductor at least sectionally, such that the cutout in the housing wall that forms the coolant channel is in direct contact with the electrical conductor.
An apparatus comprising means configured to: in respect of a video provided to a user, the video having a plurality of comments associated therewith and wherein the comments are displayed such that they overlay and scroll across the video, based on the plurality of comments and one or more comment filtering rules; provide for user interactive control for comment filtering as each of the plurality of comments scrolls to meet a particular point overlaying the video defined by a filter line, wherein the filter line extends across at least part of the video to define a first area overlaying the video and a non-overlapping second area overlaying the video, such that in the first area the plurality of comments are provided for display scrolling therethrough towards the filter line prior to comment filtering, the plurality of comments are filtered at the filter line, and in the second area some of the plurality of comments are provided for display, where all other comments of the plurality of comments that satisfy the one or more comment filtering rules have been removed from display at the filter line. in respect of a video provided to a user, the video having a plurality of comments associated therewith and wherein the comments are displayed such that they overlay and scroll across the video, based on the plurality of comments and one or more comment filtering rules; provide for user interactive control for comment filtering as each of the plurality of comments scrolls to meet a particular point overlaying the video defined by a filter line, wherein the filter line extends across at least part of the video to define a first area overlaying the video and a non-overlapping second area overlaying the video, such that in the first area the plurality of comments are provided for display scrolling therethrough towards the filter line prior to comment filtering, the plurality of comments are filtered at the filter line, and in the second area some of the plurality of comments are provided for display, where all other comments of the plurality of comments that satisfy the one or more comment filtering rules have been removed from display at the filter line.
Photonic device comprising: - a support layer , - an optical layer extending in a main plane (x, y), subdivided into at least a first region (R1) and a second region (R2) which are adjacent in said main plane (x, y), and comprising a first optical waveguide in the first region (R1) and a second optical waveguide in the second region (R2), - a stack of III-V semiconductor compounds, arranged on a dielectric layer , which is itself arranged on the first waveguide , in the first region (R1), the stack forming a laser source with the first optical waveguide , - an intermediate layer , between the optical layer and the support layer , comprising a thermally conductive material forming a single-piece block, arranged in line with the first region (R1), and an optical and/or electrical cladding material arranged in line with the second region (R2), characterized in that the optical layer and/or the intermediate layer comprise at least one metal interconnection level to form electrical contacts of an active optical component, and/or to form at least one heat dissipation via between the first waveguide and the thermally conductive material . - a support layer , - an optical layer extending in a main plane (x, y), subdivided into at least a first region (R1) and a second region (R2) which are adjacent in said main plane (x, y), and comprising a first optical waveguide in the first region (R1) and a second optical waveguide in the second region (R2), - a stack of III-V semiconductor compounds, arranged on a dielectric layer , which is itself arranged on the first waveguide , in the first region (R1), the stack forming a laser source with the first optical waveguide , - an intermediate layer , between the optical layer and the support layer , comprising a thermally conductive material forming a single-piece block, arranged in line with the first region (R1), and an optical and/or electrical cladding material arranged in line with the second region (R2),
A power converter assembly , comprising: a semi-conductor module ; a heat sink mechanically connected to the semi-conductor module; a first busbar assembly on a first side of the heat sink; and a second busbar assembly on a second side of the heat sink opposite from the first side, wherein the first and second busbar assemblies are electrically connected to one another; the assembly characterized in that : the first busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer , and the second busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer . a semi-conductor module ; a heat sink mechanically connected to the semi-conductor module; a first busbar assembly on a first side of the heat sink; and a second busbar assembly on a second side of the heat sink opposite from the first side, wherein the first and second busbar assemblies are electrically connected to one another; the assembly characterized in that : the first busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer , and the second busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer . the first busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer , and the second busbar assembly includes a DC positive layer , a DC negative layer and a DC neutral layer .
An expandable attachment device for biological implantation having a longitudinal axis and a longitudinal length, a distal end and a proximal end having a tip , wherein the longitudinal axis spans from the tip to the distal end, comprising: a screw having a radially expandable section and a radially non-expandable section , wherein the radially expandable section has an expandable section distal end and a radially expandable radius; and an expander slidably received by the screw, wherein the expander comprises an expander head, and a first expander shaft longitudinally extending from the expander head; and wherein the screw comprises radially extending threads , and wherein the expander comprises radially extending threads; and wherein the screw has a first configuration, and wherein the screw has a second configuration where the expander is slid along the screw, and wherein the radius of the expandable section distal end in the first configuration is equal to the radius of the expandable section distal end in the second configuration; and characterized by the screw having a first cell and a second cell , and wherein the first cell is longitudinally offset from the second cell . a screw having a radially expandable section and a radially non-expandable section , wherein the radially expandable section has an expandable section distal end and a radially expandable radius; and an expander slidably received by the screw, wherein the expander comprises an expander head, and a first expander shaft longitudinally extending from the expander head; and wherein the screw comprises radially extending threads , and wherein the expander comprises radially extending threads; and wherein the screw has a first configuration, and wherein the screw has a second configuration where the expander is slid along the screw, and wherein the radius of the expandable section distal end in the first configuration is equal to the radius of the expandable section distal end in the second configuration; and characterized by the screw having a first cell and a second cell , and wherein the first cell is longitudinally offset from the second cell .
Gateway device capable of interconnecting a first bus of a first communication network of a motor vehicle and a second bus of a second communication network of the motor vehicle, the two communication networks being two communication networks provided with redundancy, said gateway device comprising a first bus interface , which is coupled to said first bus and comprises a reception line (RX) and a transmission line (TX) for receiving messages from said first bus and transmitting messages to said first bus, respectively, and a second bus interface , which is coupled to said second bus and comprises a reception line (RX) and a transmission line (TX) for receiving messages from said second bus and transmitting messages to said second bus, respectively, a first local processor , which is connected to said two bus interfaces, said first local processor being designed exclusively to transfer messages received over said reception line (RX) of said first bus interface to said transmission line (TX) of said second bus interface so as to act as a first unidirectional gateway between said first network and said second network , and a second local processor , which is independent of said first local processor , said second local processor being designed exclusively to transfer messages received over said reception line (RX) of said second bus interface to said transmission line (TX) of said first bus interface so as to act as a second unidirectional gateway between said second network and said first network .
Expansion dowel comprising - at least one dowel body and - a bolt , the bolt having an expanding body which pushes the dowel body radially outward when the expanding body is displaced in a pullout direction relative to the dowel body , - a corrosion protection layer and an anti-friction layer covering the corrosion protection layer being provided on the expanding body , characterized in that the corrosion protection layer is a Zn/Ni coating or a Zn/Fe coating. - at least one dowel body and - a bolt , the bolt having an expanding body which pushes the dowel body radially outward when the expanding body is displaced in a pullout direction relative to the dowel body , - a corrosion protection layer and an anti-friction layer covering the corrosion protection layer being provided on the expanding body , characterized in that the corrosion protection layer is a Zn/Ni coating or a Zn/Fe coating.