mhurhangee/ep-ind-claims huggingface dataset:
A battery pack, comprising: a plurality of battery modules, each having a plurality of unit cells (110A, 110B), a case for accommodating the unit cell (110A, 110B) and a bus bar electrically connected to the unit cell (110A, 110B); and a connecting bar for connecting bus bars of battery modules adjacent to each other among the plurality of battery modules, wherein at least one of the connecting bars includes: a first metal plate; a second metal plate spaced apart from the first metal plate; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate (21, 22), the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%. a plurality of battery modules, each having a plurality of unit cells (110A, 110B), a case for accommodating the unit cell (110A, 110B) and a bus bar electrically connected to the unit cell (110A, 110B); and a connecting bar for connecting bus bars of battery modules adjacent to each other among the plurality of battery modules, wherein at least one of the connecting bars includes: a first metal plate; a second metal plate spaced apart from the first metal plate; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate (21, 22), the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%. a first metal plate; a second metal plate spaced apart from the first metal plate; and a metal bridge configured to connect the first metal plate and the second metal plate and having a lower melting point than the metal plate (21, 22), the metal bridge being a lead-free alloy containing tin (Sn) and copper (Cu) as main components, the content of the tin being 80 to 98 wt%, and the content of the copper being 2 to 20 wt%.
A method of allocating transmission resources including an uplink, UL,-dedicated region and a downlink, DL,-dedicated region by a base station (120, 1100), the method comprising: identifying a ratio of the DL-dedicated region to the UL-dedicated region; changing the ratio of the DL-dedicated region to the UL-dedicated region based on electric field property information of a user equipment, UE; and allocating the UL-dedicated region and the DL-dedicated region according to the changed ratio of the DL-dedicated region to the UL-dedicated region, wherein the transmission resources include first transmission resources and second transmission resources distinguished from each other on a frequency axis, the first transmission resources supporting transmission of more delay-sensitive data than the second transmission resources, and wherein a maximum length on a time axis of a first UL-dedicated region included in the first transmission resources is different from a maximum length on the time axis of a second UL-dedicated region included in the second transmission resources. identifying a ratio of the DL-dedicated region to the UL-dedicated region; changing the ratio of the DL-dedicated region to the UL-dedicated region based on electric field property information of a user equipment, UE; and allocating the UL-dedicated region and the DL-dedicated region according to the changed ratio of the DL-dedicated region to the UL-dedicated region, wherein the transmission resources include first transmission resources and second transmission resources distinguished from each other on a frequency axis, the first transmission resources supporting transmission of more delay-sensitive data than the second transmission resources, and wherein a maximum length on a time axis of a first UL-dedicated region included in the first transmission resources is different from a maximum length on the time axis of a second UL-dedicated region included in the second transmission resources.
Subsea cooling assembly comprising a block module for the accommodation of electronics or power components and a cover element, and the block module is arranged with at least one recess wherein the electronics or power components are arranged in the at least one recess of the block module for the transfer of heat between the electronics or power components and the surrounding sea through the block module, and the cover element has outer rim portions arranged to fit with outer rim portions of the at least one recess for closing off the interior of the at least one recess wherein the block module has at least one strength supporting structure arranged to provide load support to at least a portion of the cover element which is distanced away from the outer rim portions of the cover element.
An ink cartridge comprising: an ink container for storing ink; a supply opening for connecting an inner section and an outer section of the ink container; an inner plug containing a plug part for opening and closing the supply opening, and a shaft part extending from the plug part; a biasing unit for applying force on the inner plug in a closing direction; and a covering member restricting a movement direction of the shaft part of the inner plug, and covering at least a portion of the shaft part, said ink cartridge characterised in that: the covering member is mounted in the inner section of the ink container and prevents contact by the shaft part with the ink container in a state in which the plug part seals the supply opening, and in a state in which the plug part opens the supply opening. an ink container for storing ink; a supply opening for connecting an inner section and an outer section of the ink container; an inner plug containing a plug part for opening and closing the supply opening, and a shaft part extending from the plug part; a biasing unit for applying force on the inner plug in a closing direction; and a covering member restricting a movement direction of the shaft part of the inner plug, and covering at least a portion of the shaft part, said ink cartridge characterised in that: the covering member is mounted in the inner section of the ink container and prevents contact by the shaft part with the ink container in a state in which the plug part seals the supply opening, and in a state in which the plug part opens the supply opening.
A closure device for point of use dosing comprising an inverted press part dispensing closure having a press part (150, 430), a dose chamber and a housing wherein the housing comprises a septum, the dose chamber, the press part (150, 430), and an end cap, wherein the press part (150, 430), septum and end cap are attached, and wherein a distal end of the septum receives the end cap in mating engagement, characterized in that the end cap is in interfering sealing engagement with an inner diameter of the housing with polished mating surfaces, and in that the press part (150, 430) is inverted by pressing downwardly onto the press part (150, 430), wherein the press part (150, 430) when inverted to a concave configuration results in the septum moving vertically downward pressing the end cap from its assembled position, thereby releasing a dose from the dose chamber, wherein the inverted press part (150, 430) remains in a concave configuration.
A medical fluid system comprising: a medical fluid pumping machine; a magnet assembly defining a cavity in which a radio frequency device is positioned, the magnet assembly being configured to generate a magnetic field within the cavity; and a medical fluid cartridge (500, 1500) comprising: a body having a first portion defining a first fluid passageway and a second portion defining a second fluid passageway in fluid communication with the first fluid passageway, wherein the first portion of the body is configured to be disposed within the radio frequency device positioned within the cavity of the magnet assembly, and the second portion of the body is configured to be disposed within the cavity defined by the magnet assembly and to remain outside the radio frequency device. a medical fluid pumping machine; a magnet assembly defining a cavity in which a radio frequency device is positioned, the magnet assembly being configured to generate a magnetic field within the cavity; and a medical fluid cartridge (500, 1500) comprising: a body having a first portion defining a first fluid passageway and a second portion defining a second fluid passageway in fluid communication with the first fluid passageway, a body having a first portion defining a first fluid passageway and a second portion defining a second fluid passageway in fluid communication with the first fluid passageway, a first portion defining a first fluid passageway and a second portion defining a second fluid passageway in fluid communication with the first fluid passageway,
A dead-time correction system for a pulse rate measurement device, the system comprising: a. a pulse counter that increments in response to pulses, the pulse counter having a selectable pulse counter read-out rate; b. a pulse counter read-out (PCRO) storage register that stores an immediately preceding PCRO count; c. a pulse-burst counter that also increments in response to pulses, the pulse-burst counter having a pulse-burst counter read-out rate that is faster than all but the fastest selectable pulse counter read-out rate; d. a subtractor module in electronic communication with the pulse counter and the PCRO storage register that subtracts the preceding PCRO count from the pulse counter read-out count to output an uncorrected pulse count; e. a selection module in electronic communication with the pulse-burst counter that selects the pulse counter read-out rate in response to input from the pulse-burst counter; f. a multiplexer in electronic communication with the subtractor module and the selection module, the MUX selecting from among at least two dead-time correction transforms (DTCT), the DTCT corresponding to the selected pulse counter read-out rate; and g. a control-and-readout module in electronic communication with the MUX that applies the DTCT selected by the MUX to the uncorrected pulse count divided by the pulse counter read-out rate to output a dead-time corrected pulse rate. a. a pulse counter that increments in response to pulses, the pulse counter having a selectable pulse counter read-out rate; b. a pulse counter read-out (PCRO) storage register that stores an immediately preceding PCRO count; c. a pulse-burst counter that also increments in response to pulses, the pulse-burst counter having a pulse-burst counter read-out rate that is faster than all but the fastest selectable pulse counter read-out rate; d. a subtractor module in electronic communication with the pulse counter and the PCRO storage register that subtracts the preceding PCRO count from the pulse counter read-out count to output an uncorrected pulse count; e. a selection module in electronic communication with the pulse-burst counter that selects the pulse counter read-out rate in response to input from the pulse-burst counter; f. a multiplexer in electronic communication with the subtractor module and the selection module, the MUX selecting from among at least two dead-time correction transforms (DTCT), the DTCT corresponding to the selected pulse counter read-out rate; and g. a control-and-readout module in electronic communication with the MUX that applies the DTCT selected by the MUX to the uncorrected pulse count divided by the pulse counter read-out rate to output a dead-time corrected pulse rate.
Oral pharmaceutical solution free of ethanol comprising Nortriptyline hydrochloride, sodium or potassium benzoate within the range from 0.1 mg/ml to 20 mg/ml, and purified water; wherein the pH of the oral solution is from 3.5 to 5.0.
A user equipment, comprising: a selector configured to select, in a random access procedure, whether to transmit a first uplink message or a second uplink message to a base station device, the first uplink message being an uplink message of a two-step random access procedure, the second uplink message being an uplink message of a four-step random access procedure; a transmitter/receiver configured to: transmit the selected first uplink message or the selected second uplink message to the base station device; and receive a random access response for the transmitted first uplink message or the transmitted second uplink message, characterized in that the random access response is scheduled by a Physical Downlink Control Channel, PDCCH, whose Cyclic Redundancy Check, CRC, is scrambled by a Random Access Radio Network Temporary Identifier, RA-RNTI, wherein the RA-RNTI is a first RA-RNTI used in the two-step random access procedure or a second RA-RNTI used in the four-step random access procedure, and wherein the first RA-RNTI used in the two-step random access procedure is calculated to include a predetermined offset value for the second RA-RNTI used in the four-step random access procedure. a selector configured to select, in a random access procedure, whether to transmit a first uplink message or a second uplink message to a base station device, the first uplink message being an uplink message of a two-step random access procedure, the second uplink message being an uplink message of a four-step random access procedure; a transmitter/receiver configured to: transmit the selected first uplink message or the selected second uplink message to the base station device; and receive a random access response for the transmitted first uplink message or the transmitted second uplink message, transmit the selected first uplink message or the selected second uplink message to the base station device; and receive a random access response for the transmitted first uplink message or the transmitted second uplink message, characterized in that the random access response is scheduled by a Physical Downlink Control Channel, PDCCH, whose Cyclic Redundancy Check, CRC, is scrambled by a Random Access Radio Network Temporary Identifier, RA-RNTI, wherein the RA-RNTI is a first RA-RNTI used in the two-step random access procedure or a second RA-RNTI used in the four-step random access procedure, and wherein the first RA-RNTI used in the two-step random access procedure is calculated to include a predetermined offset value for the second RA-RNTI used in the four-step random access procedure.
A method for processing a fuel feedstock for a fuel cell, the method comprising: providing a fuel feedstock that includes oxygen, lower hydrocarbons, which are hydrocarbons having 2 or fewer carbons, and higher hydrocarbons, which are hydrocarbons having more than 2 carbons; reducing oxygen in said fuel feedstock using a deoxidizing unit having a deoxidizing bed, said deoxidizing bed in reducing said oxygen produces hydrogen, the step of reducing oxygen in said fuel feedstock comprising: conveying the fuel feedstock through said deoxidizing unit at a space velocity that is between 5,000 and 12,000 h -1; reducing said higher hydrocarbons in said fuel feedstock, and converting the lower hydrocarbons to hydrogen, using a pre-reforming unit having a pre-reforming bed having a larger volume than the deoxidizing bed, the step of reducing said higher hydrocarbons and converting the lower hydrocarbons comprising: conveying the fuel feedstock through the pre-reforming unit at a space velocity between 2,000 and 5,000 h - 1 and through the reforming bed at maximum superficial velocities of 0.4 m/s (1.3 ft/s), such that hydrogen back diffusion is developed and maintained in said pre-reforming bed, and a reducing atmosphere is maintained in the pre-reforming bed; wherein said deoxidizing unit and said pre-reforming unit are disposed within a common vessel such that said fuel feedstock first flows through said deoxidizing unit and thereafter through said pre-reforming unit. providing a fuel feedstock that includes oxygen, lower hydrocarbons, which are hydrocarbons having 2 or fewer carbons, and higher hydrocarbons, which are hydrocarbons having more than 2 carbons; reducing oxygen in said fuel feedstock using a deoxidizing unit having a deoxidizing bed, said deoxidizing bed in reducing said oxygen produces hydrogen, the step of reducing oxygen in said fuel feedstock comprising: conveying the fuel feedstock through said deoxidizing unit at a space velocity that is between 5,000 and 12,000 h -1; reducing said higher hydrocarbons in said fuel feedstock, and converting the lower hydrocarbons to hydrogen, using a pre-reforming unit having a pre-reforming bed having a larger volume than the deoxidizing bed, the step of reducing said higher hydrocarbons and converting the lower hydrocarbons comprising: conveying the fuel feedstock through the pre-reforming unit at a space velocity between 2,000 and 5,000 h - 1 and through the reforming bed at maximum superficial velocities of 0.4 m/s (1.3 ft/s), such that hydrogen back diffusion is developed and maintained in said pre-reforming bed, and a reducing atmosphere is maintained in the pre-reforming bed; wherein said deoxidizing unit and said pre-reforming unit are disposed within a common vessel such that said fuel feedstock first flows through said deoxidizing unit and thereafter through said pre-reforming unit.
Coffee capsule recycler comprising a first arm provided at its end with a perforated capsule container, where in said cylinder the end diametrically opposite the union to the first arm is provided with a hinged union to a second arm that is provided with a piston connected by a hinged union, so that it can be housed in the inner space of the perforated cylinder. Characterized in that - The capsule container has an inner annular lip - the piston is connected by the hinged union at the bottom third thereof to said second arm - The capsule container has an inner annular lip - the piston is connected by the hinged union at the bottom third thereof to said second arm
A protective device for a milking cup, which milking cup has a teat opening which defines a longitudinal direction of the milking cup, wherein the milking cup is provided with a milk discharge line and a pulsating line, wherein at least one of the milk discharge line and the pulsating line makes an angle with the longitudinal direction at the location of a connection thereof to the milking cup which is unequal to zero, and preferably a substantially right angle, characterized in that the protective device comprises - a milking cup part for enclosing a portion of the milking cup at the location of said connection, which milking cup part comprises a wall which is connectable to form a circumferential wall, wherein the milking cup part has an opening in the wall for passing through said at least one of the milk discharge line and the pulsating line, and - a single-part or multipart line part which is connectable to form a circumferential wall for enclosing at least a part of said at least one of the milk discharge line and the pulsating line, wherein the line part is connected to the milking cup part around said opening in the wall, wherein the line part, from the milking cup part, successively encloses a first part, a second part and a third part, wherein at least the third part is dimensionally stable and wherein the second part is flexible in use, in particular at least ten times more flexible than the third part. - a milking cup part for enclosing a portion of the milking cup at the location of said connection, which milking cup part comprises a wall which is connectable to form a circumferential wall, wherein the milking cup part has an opening in the wall for passing through said at least one of the milk discharge line and the pulsating line, and - a single-part or multipart line part which is connectable to form a circumferential wall for enclosing at least a part of said at least one of the milk discharge line and the pulsating line, wherein the line part is connected to the milking cup part around said opening in the wall,
An electrode loop assembly for a catheter, said electrode loop assembly comprising a form wire shaped as a loop, an activation wire coupled to the form wire and operable to selectively vary a diameter of the loop, the activation wire routed along a radial inner side of the form wire, and a support tube (328; 500) defining a lumen (332; 508) and enclosing the form wire and the activation wire therein, wherein the support tube (328; 500) extends along a longitudinal axis from a proximal end to a distal end, wherein the support tube (328; 500) has an oblong cross-section having a major axis, characterised in that the support tube (328; 500) is twisted about the longitudinal axis such that an orientation of the major axis changes along a length of the support tube (328; 500). a form wire shaped as a loop, an activation wire coupled to the form wire and operable to selectively vary a diameter of the loop, the activation wire routed along a radial inner side of the form wire, and a support tube (328; 500) defining a lumen (332; 508) and enclosing the form wire and the activation wire therein, wherein the support tube (328; 500) extends along a longitudinal axis from a proximal end to a distal end, wherein the support tube (328; 500) has an oblong cross-section having a major axis, characterised in that the support tube (328; 500) is twisted about the longitudinal axis such that an orientation of the major axis changes along a length of the support tube (328; 500).
Method for detecting a defect in a vibration sensor, comprising the spectral whitening of a vibratory signal ( X ( n)) delivered by the vibration sensor and the calculation of an indicator of asymmetry in the whitened vibratory signal ( X b (n)), wherein the calculation of the asymmetry indicator comprises the calculation of a number of positive aberrant points and a number of negative aberrant points in the whitened vibratory signal, a point in the whitened vibratory signal being a positive or negative aberrant point when the absolute value thereof is higher than an aberration threshold (α), and the calculation of the difference between the number of positive aberrant points and a number of negative aberrant points, the method further comprising a step in which a defect in the vibration sensor is detected when the asymmetry indicator exceeds an alarm threshold (μ).