mhurhangee/ep-ind-claims huggingface dataset:
A rechargeable galvanic cell comprising: a negative electrode compartment housing a negative electrode material, wherein the negative electrode material comprises an alkali metal in a liquid phase; a positive electrode compartment; a polar solvent within the positive electrode compartment, wherein the polar solvent is a non-aqueous polar solvent; a positive electrode active material within the positive electrode compartment, wherein the positive electrode active material comprises a non-gaseous material that has a specific gravity greater than the polar solvent; an ion-conductive separator separating the negative electrode compartment from the positive electrode compartment; and a positive electrode current collector that provides electrical contact to the interface between the positive electrode active material and the polar solvent even when the interface changes location; the galvanic cell is configured to allow the polar solvent to leave the galvanic cell and re-enter the galvanic cell as the galvanic cell charges or discharges; and the galvanic cell is configured to allow an inert gas in a headspace within the negative electrode compartment to leave the galvanic cell and re-enter the galvanic cell as the galvanic cell charges or discharges; characterised in that the positive electrode current collector comprises one or more fins extending upward from a base of the positive electrode compartment. a negative electrode compartment housing a negative electrode material, wherein the negative electrode material comprises an alkali metal in a liquid phase; a positive electrode compartment; a polar solvent within the positive electrode compartment, wherein the polar solvent is a non-aqueous polar solvent; a positive electrode active material within the positive electrode compartment, wherein the positive electrode active material comprises a non-gaseous material that has a specific gravity greater than the polar solvent; an ion-conductive separator separating the negative electrode compartment from the positive electrode compartment; and a positive electrode current collector that provides electrical contact to the interface between the positive electrode active material and the polar solvent even when the interface changes location; the galvanic cell is configured to allow the polar solvent to leave the galvanic cell and re-enter the galvanic cell as the galvanic cell charges or discharges; and the galvanic cell is configured to allow an inert gas in a headspace within the negative electrode compartment to leave the galvanic cell and re-enter the galvanic cell as the galvanic cell charges or discharges; characterised in that the positive electrode current collector comprises one or more fins extending upward from a base of the positive electrode compartment.
A computer-implemented method when executed on data processing hardware causes the data processing hardware to perform operations comprising: receiving a first-pass speech recognition hypothesis and an encoded acoustic frame, the first-pass speech recognition hypothesis generated by a recurrent neural network decoder model for the encoded acoustic frame; the computer-implemented method being characterised by further comprising: encoding the first-pass speech recognition hypothesis at a hypothesis encoder; generating, using a first attention mechanism attending to the encoded acoustic frame, a first context vector; generating, using a second attention mechanism attending to the encoded first-pass speech recognition hypothesis, a second context vector; and decoding the first context vector and the second context vector at a context vector decoder to form a second-pass speech recognition hypothesis. encoding the first-pass speech recognition hypothesis at a hypothesis encoder; generating, using a first attention mechanism attending to the encoded acoustic frame, a first context vector; generating, using a second attention mechanism attending to the encoded first-pass speech recognition hypothesis, a second context vector; and decoding the first context vector and the second context vector at a context vector decoder to form a second-pass speech recognition hypothesis.
A method for forming an elastomeric laminate that is extensible in a first extensibility direction comprising the steps of: providing a first coverstock material; activating the first coverstock material by passing the first coverstock material under tension between the surfaces of a pair of stretching members having discontinuously intermeshing ridges and valleys, and thereby forming a pre-activated layer having a primary activation pattern comprising land areas that extend in the first extensibility direction; providing an elastomeric layer; and joining the elastomeric layer to the pre-activated layer at one or more bonding sites, wherein the method further comprises the steps of providing a second coverstock material; activating the second coverstock material to create a second pre-activated coverstock layer having a secondary activation pattern; joining the second pre-activated coverstock layer to the elastomeric layer; and comprising offsetting the primary and secondary activation patterns, wherein the primary activation pattern and the secondary activation pattern are the same. providing a first coverstock material; activating the first coverstock material by passing the first coverstock material under tension between the surfaces of a pair of stretching members having discontinuously intermeshing ridges and valleys, and thereby forming a pre-activated layer having a primary activation pattern comprising land areas that extend in the first extensibility direction; providing an elastomeric layer; and joining the elastomeric layer to the pre-activated layer at one or more bonding sites, wherein the method further comprises the steps of providing a second coverstock material; activating the second coverstock material to create a second pre-activated coverstock layer having a secondary activation pattern; joining the second pre-activated coverstock layer to the elastomeric layer; and comprising offsetting the primary and secondary activation patterns, wherein the primary activation pattern and the secondary activation pattern are the same.
A rearview assembly comprising: a rearview device; a housing supporting the rearview device; a cavity defined by the housing and the rearview device; a first printed circuit board having a processor and disposed within the cavity; a channel; and an air moving device disposed within the cavity and configured to draw air from an area exterior to the housing into the cavity; characterized in that the rearview assembly further comprises: a second printed circuit board having a first surface and a second surface and in communication with the first printed circuit board and disposed within the cavity; a memory card holder disposed on the first surface of the second printed circuit board; and at least one rib having an outer edge and extending from the housing into the cavity; wherein sidewalls of the channel are defined by a portion of the housing, the at least one rib, and a portion of the second surface of the second printed circuit board. a rearview device; a housing supporting the rearview device; a cavity defined by the housing and the rearview device; a first printed circuit board having a processor and disposed within the cavity; a channel; and an air moving device disposed within the cavity and configured to draw air from an area exterior to the housing into the cavity; characterized in that the rearview assembly further comprises: a second printed circuit board having a first surface and a second surface and in communication with the first printed circuit board and disposed within the cavity; a memory card holder disposed on the first surface of the second printed circuit board; and at least one rib having an outer edge and extending from the housing into the cavity; wherein sidewalls of the channel are defined by a portion of the housing, the at least one rib, and a portion of the second surface of the second printed circuit board. a second printed circuit board having a first surface and a second surface and in communication with the first printed circuit board and disposed within the cavity; a memory card holder disposed on the first surface of the second printed circuit board; and at least one rib having an outer edge and extending from the housing into the cavity; wherein sidewalls of the channel are defined by a portion of the housing, the at least one rib, and a portion of the second surface of the second printed circuit board.
Remote control device for a crane, for a construction machine, or for a pallet truck, comprising a control station that has at least one input means for inputting control commands and that has a signal transmission device for transmitting the input control commands to the control apparatus (25, 250) of the crane, of the construction machine, or of the pallet truck; a display apparatus for displaying a representation of a piece of work equipment and/or the machine surroundings; and a movement determination module for determining movements and/or deformations of machine components such as the crane boom or the lifting hook in dependence on the input control commands, characterized in that a configuration module for the selective preconfiguration of the remote control device for one of a plurality of machine types is provided, and at least one camera is provided for detecting live images at the control station and a superposition device is associated with at least one display apparatus, said superposition device being provided to superpose the representation of the machine surroundings and/or of the piece of working equipment with the live image of the control station provided by the camera on the display apparatus.
A flow delivery article to deliver a gaseous flow to the mouth of a user, characterised in that the flow delivery article comprises: a flow control component to provide at least one flow during a draw on the flow delivery article, said at least one flow comprising a plurality of flow pulses each having a respective flow peak; and a plurality of flow pathways (11, 12), wherein the flow control component is arranged to repeatedly change the relative amount of flow through said pathways. a flow control component to provide at least one flow during a draw on the flow delivery article, said at least one flow comprising a plurality of flow pulses each having a respective flow peak; and a plurality of flow pathways (11, 12), wherein the flow control component is arranged to repeatedly change the relative amount of flow through said pathways.
A method for producing a 1C polyurethane adhesive, the method comprising: - creating an initial mixture comprising: • a mixture of MDI monomers, the MDI monomers comprising 2,2' MDI, 2,4' MDI and 4,4' MDI; • polymeric MDI; • a polyol component comprising: • an EO-end-capped polypropylene glycol; and • a further polyol; - reacting the initial mixture into a prepolymer mixture, the prepolymer mixture comprising a prepolymer being the reaction product of the MDI monomers, the polymeric MDI and the polyol component, wherein the prepolymer mixture is the 1C polyurethane adhesive. - creating an initial mixture comprising: • a mixture of MDI monomers, the MDI monomers comprising 2,2' MDI, 2,4' MDI and 4,4' MDI; • polymeric MDI; • a polyol component comprising: • an EO-end-capped polypropylene glycol; and • a further polyol; • a mixture of MDI monomers, the MDI monomers comprising 2,2' MDI, 2,4' MDI and 4,4' MDI; • polymeric MDI; • a polyol component comprising: • an EO-end-capped polypropylene glycol; and • a further polyol; • an EO-end-capped polypropylene glycol; and • a further polyol; - reacting the initial mixture into a prepolymer mixture, the prepolymer mixture comprising a prepolymer being the reaction product of the MDI monomers, the polymeric MDI and the polyol component, wherein the prepolymer mixture is the 1C polyurethane adhesive.
An even-hop Relay Station, RS, apparatus of a wireless communication system, comprising: a timing controller for providing a timing signal for supporting a relay service using a superframe (500, 800) including consecutive frames i th (510, 810, 900) and (i+1) th (520, 820, 940) in accordance with a frame configuring scheme; and a frame configurer for configuring, within the i th frame, a downlink, DL, subframe (400, 511, 700, 811, 910) comprising a first section (401, 701, 911) and a second section (403, 703, 913, 915, 917), the first section (401, 701, 911) comprising the even-hop RS to Mobile Station, MS, link, the second section (403, 703, 913, 915, 917) comprising the even-hop RS to next odd-hop RS link, configuring, within the (i+1) th frame, a downlink, DL, subframe (410, 521, 710, 821, 950) comprising a first section (411, 711, 951) and second section (413, 713, 953, 915, 917), the first section (411, 711, 951) comprising the even-hop RS to MS link, and the second section (413, 713, 953, 915, 917) comprising a previous odd-hop RS to the even-hop RS link in accordance with the timing signal, wherein, if sizes of the first and second sections are fixed, an RS sync channel is located at a front end of the second section in the DL subframe, and, if the sizes of the first section and the second section change dynamically depending on loads of the RS and the MS, the RS sync channel is located at a rear end of the second section in the DL subframe. a timing controller for providing a timing signal for supporting a relay service using a superframe (500, 800) including consecutive frames i th (510, 810, 900) and (i+1) th (520, 820, 940) in accordance with a frame configuring scheme; and a frame configurer for configuring, within the i th frame, a downlink, DL, subframe (400, 511, 700, 811, 910) comprising a first section (401, 701, 911) and a second section (403, 703, 913, 915, 917), the first section (401, 701, 911) comprising the even-hop RS to Mobile Station, MS, link, the second section (403, 703, 913, 915, 917) comprising the even-hop RS to next odd-hop RS link, configuring, within the (i+1) th frame, a downlink, DL, subframe (410, 521, 710, 821, 950) comprising a first section (411, 711, 951) and second section (413, 713, 953, 915, 917), the first section (411, 711, 951) comprising the even-hop RS to MS link, and the second section (413, 713, 953, 915, 917) comprising a previous odd-hop RS to the even-hop RS link in accordance with the timing signal, wherein, if sizes of the first and second sections are fixed, an RS sync channel is located at a front end of the second section in the DL subframe, and, if the sizes of the first section and the second section change dynamically depending on loads of the RS and the MS, the RS sync channel is located at a rear end of the second section in the DL subframe.
A nacelle for a wind turbine, the nacelle comprising: a housing defining an outer wall; and, a heat transfer assembly embedded at least partially within the outer wall of the housing, the heat transfer assembly comprising a heat transfer apparatus, the heat transfer apparatus comprising a body comprising a flow path formed in an outer surface thereof and a working fluid configured to flow through the flow path, the heat transfer apparatus further comprising a plate member arranged adjacent to the flow path of the body, wherein the plate member and the outer wall of the housing of the nacelle are configured to conduct heat from the working fluid to ambient air, wherein the body is formed of a non-thermally conductive material, and wherein the plate member is formed of a thermally-conductive material so as to conduct the heat from the working fluid to the ambient air. a housing defining an outer wall; and, a heat transfer assembly embedded at least partially within the outer wall of the housing, the heat transfer assembly comprising a heat transfer apparatus, the heat transfer apparatus comprising a body comprising a flow path formed in an outer surface thereof and a working fluid configured to flow through the flow path, the heat transfer apparatus further comprising a plate member arranged adjacent to the flow path of the body, wherein the plate member and the outer wall of the housing of the nacelle are configured to conduct heat from the working fluid to ambient air, wherein the body is formed of a non-thermally conductive material, and wherein the plate member is formed of a thermally-conductive material so as to conduct the heat from the working fluid to the ambient air.
A method for balancing a battery pack comprising a plurality of battery cells (5a, 5b, 5c) for an electric vehicle; said method comprising: - determining the state of charge for each of said battery cells (5a, 5b, 5c); - receiving information related to the expected use of the electric vehicle to a prediction horizon; and - determining a state of balance value (SOB c) at the current time and an expected state of balance value (SOB p) at the end of the prediction horizon; characterized in that it comprises: - balancing the battery cells (5a, 5b, 5c) based on the state of balance value (SOB c) at the current time and the expected state of balance value (SOB p) at the end of said prediction horizon, such that the state of balance and the use of the cell balancing process is optimized so as to minimize the energy usage of the battery pack - balancing said battery cells (5a, 5b, 5c) by means of controllable switches (S1, S2, S3) being associated with each battery cell (5a, 5b, 5c), each switch (S1, S2, S3) being configured for connecting a resistor (R1, R2, R3) in parallel with each battery cell (5a, 5b, 5c); - balancing said battery cells (5a, 5b, 5c) in a manner so as to optimize the use of the switches (S1, S2, S3) with regard to the power losses in said resistors during said balancing step, said optimizing of the use of the switches (S1, S2, S3) is done by minimizing the time during which the switches (S1, S2, S3) are activated, said time being equivalent to the power loss during the cell balancing. - determining the state of charge for each of said battery cells (5a, 5b, 5c); - receiving information related to the expected use of the electric vehicle to a prediction horizon; and - determining a state of balance value (SOB c) at the current time and an expected state of balance value (SOB p) at the end of the prediction horizon; - balancing the battery cells (5a, 5b, 5c) based on the state of balance value (SOB c) at the current time and the expected state of balance value (SOB p) at the end of said prediction horizon, such that the state of balance and the use of the cell balancing process is optimized so as to minimize the energy usage of the battery pack - balancing said battery cells (5a, 5b, 5c) by means of controllable switches (S1, S2, S3) being associated with each battery cell (5a, 5b, 5c), each switch (S1, S2, S3) being configured for connecting a resistor (R1, R2, R3) in parallel with each battery cell (5a, 5b, 5c); - balancing said battery cells (5a, 5b, 5c) in a manner so as to optimize the use of the switches (S1, S2, S3) with regard to the power losses in said resistors during said balancing step, said optimizing of the use of the switches (S1, S2, S3) is done by minimizing the time during which the switches (S1, S2, S3) are activated, said time being equivalent to the power loss during the cell balancing.
A machine-to-machine, M2M, server for managing communication with a M2M device, the M2M server comprising; - a configuration module for configuring (404, 408, 412) the M2M device with a finite number of predetermined states and predetermined transitions for changing between the states; and characterized by comprising: - a communication module for sending a message (420, 424) to the M2M device for executing at least one of the predetermined transitions, wherein the message comprises a command to execute a specific state transition. - a configuration module for configuring (404, 408, 412) the M2M device with a finite number of predetermined states and predetermined transitions for changing between the states; and characterized by comprising: - a communication module for sending a message (420, 424) to the M2M device for executing at least one of the predetermined transitions, wherein the message comprises a command to execute a specific state transition.
A delta-like ligand 4 antagonist antibody for use in a method of treating cancer, inhibiting tumor growth, enhancing the antigen-specific memory response to a tumor or inducing activating or enhancing a persistent immune response to a tumor, wherein the method comprises administering to a subject a therapeutically effective amount of the DLL4 antagonist antibody and a therapeutically effective amount of a second agent, wherein the second agent is an immune checkpoint inhibitor, and wherein the immune checkpoint inhibitor is an antibody that specifically binds PD-1 or an antibody that specifically binds PD-L1. wherein the method comprises administering to a subject a therapeutically effective amount of the DLL4 antagonist antibody and a therapeutically effective amount of a second agent, wherein the second agent is an immune checkpoint inhibitor, and wherein the immune checkpoint inhibitor is an antibody that specifically binds PD-1 or an antibody that specifically binds PD-L1.
A motor controller for controlling a motor including a rotor and a stator opposed to the rotor, the motor controller comprising: an electric current driving unit ( 31 to 36; 31A; 45) which is configured to drive the motor with an axis electric current value defined in a rotating coordinate system defined with respect to a control angle ( θc) that is a rotation angle for control; characterized by a control angle computing unit which is configured to compute a current value of the control angle ( θc) by adding an addition angle to a previous value of the control angle ( θc) in each predetermined computing cycle, wherein by the addition of the addition angle the control angle ( θc) is updated in each computing cycle; and an addition angle computing unit ( 22, 23) which is configured to compute the addition angle according to a torque to be generated by the motor or a response of the motor to the axis electric current value, wherein the motor is a three-phase motor, the rotating coordinate system defined with respect to a control angle ( θc) is a virtual two-phase rotating coordinate system having a γ-axis and a δ-axis, and a three-phase stationary coordinate system having a U phase axis, a V phase axis and a W phase axis is defined, and coordinate conversion between the three-phase stationary coordinate system and the virtual two-phase rotating coordinate system is performed with the use of the control angle ( θc). an electric current driving unit ( 31 to 36; 31A; 45) which is configured to drive the motor with an axis electric current value defined in a rotating coordinate system defined with respect to a control angle ( θc) that is a rotation angle for control; characterized by a control angle computing unit which is configured to compute a current value of the control angle ( θc) by adding an addition angle to a previous value of the control angle ( θc) in each predetermined computing cycle, wherein by the addition of the addition angle the control angle ( θc) is updated in each computing cycle; and an addition angle computing unit ( 22, 23) which is configured to compute the addition angle according to a torque to be generated by the motor or a response of the motor to the axis electric current value, wherein the motor is a three-phase motor, the rotating coordinate system defined with respect to a control angle ( θc) is a virtual two-phase rotating coordinate system having a γ-axis and a δ-axis, and a three-phase stationary coordinate system having a U phase axis, a V phase axis and a W phase axis is defined, and coordinate conversion between the three-phase stationary coordinate system and the virtual two-phase rotating coordinate system is performed with the use of the control angle ( θc).