mhurhangee/ep-ind-claims huggingface dataset:
A heater-sensor sub-assembly (20; 520; 610) comprising: a pipe (24; 524; 602); a heater wire (30; 530; 630) made of first metallic material, the heater wire (30; 530; 630) including a distal wire (36; 590) forming a thermocouple (28; 528; 628), a proximal wire opposite to the distal wire (36; 590), and forming a central winding portion (34; 534; 634) wrapped around the pipe (24; 524; 602) between the distal wire (36; 590) and the proximal wire; a first non-heating wire (38; 538; 638) made of the first metallic material, the first non-heating wire (38; 538; 638) including a first distal portion connected to the proximal wire, and a first proximal portion opposite to the first distal portion; and a second non-heating wire (26; 526; 626) made of second metallic material, the second non-heating wire (26; 526; 626) including a second distal portion connected to the distal wire (36; 590) so as to form the thermocouple (28; 528; 628); characterized in that the heater-sensor sub-assembly (20; 520; 610) further comprises a third non-heating wire (70; 670) connected to the first proximal portion, wherein the third non-heating wire (70; 670) is formed from a metallic material identical to the second metallic material or a metallic material having lower volume resistivity than the first metallic material. a pipe (24; 524; 602); a heater wire (30; 530; 630) made of first metallic material, the heater wire (30; 530; 630) including a distal wire (36; 590) forming a thermocouple (28; 528; 628), a proximal wire opposite to the distal wire (36; 590), and forming a central winding portion (34; 534; 634) wrapped around the pipe (24; 524; 602) between the distal wire (36; 590) and the proximal wire; a first non-heating wire (38; 538; 638) made of the first metallic material, the first non-heating wire (38; 538; 638) including a first distal portion connected to the proximal wire, and a first proximal portion opposite to the first distal portion; and a second non-heating wire (26; 526; 626) made of second metallic material, the second non-heating wire (26; 526; 626) including a second distal portion connected to the distal wire (36; 590) so as to form the thermocouple (28; 528; 628); characterized in that the heater-sensor sub-assembly (20; 520; 610) further comprises a third non-heating wire (70; 670) connected to the first proximal portion, wherein the third non-heating wire (70; 670) is formed from a metallic material identical to the second metallic material or a metallic material having lower volume resistivity than the first metallic material.
A closure (0, 10, 20) for bottles, said bottles comprising a neck and an outlet opening, wherein the closure is intended to be connected temporarily to a bottle in order to close off the latter's neck and opening, the closure comprising a cap (1, 11), for manipulating the closure, which comprises an upper face (3, 12), a lower face (4, 13) opposite the upper face (3, 12), a lateral face (5, 14, 15, 16) defined between the upper (3, 12) and lower (4, 13) faces, and a stopper made from resilient material, intended to be inserted into the neck of the bottle, the cap incorporating a tubular extension that, starting from the lower face, extends longitudinally from a perimeter edge of the hole, said tubular extension intended to partially house the stopper and to be inserted into the neck of the bottle together with the stopper, characterized in that the cap comprises a through-hole that extends longitudinally between the upper face (3, 12) and the lower face (4, 13), the stopper being partially press-fitted in the hole of the cap (1, 11), the stopper being flush with the upper face (3, 12) of the cap (1, 11).
A pellicle comprising a pellicle frame having an inner wall and an outer wall, a pellicle membrane bonded to an upper annular face of said pellicle frame, an air passage penetrating a bar of said pellicle frame for communicating a pellicle closed space with an external atmosphere, and a filter disposed to close at least part of said air passage, characterized in that at least one or both of an opening of said air passage that opens in said pellicle closed space and an opening of said air passage that opens outside said pellicle closed space is/are disposed to look either in an upward direction or in a downward direction independently, the upward direction being a direction facing a plane which includes the pellicle membrane, and wherein said air passage is formed to pass through a protrusion which protrudes from either the inner wall of said pellicle frame or the outer wall of said pellicle frame.
An apparatus, comprising: an energy transfer device configured to supply power from a primary side of an isolation barrier through the isolation barrier to a secondary side of the of the isolation barrier to directly drive a gate of a switch for controlling output of the switch at the secondary side, wherein the gate of the switch is driven directly by the power supplied from the primary side and without a gate driver inbetween; a pulldown device configured to passively deactivate the switch when no power transfer is being performed by the energy transfer device to drive the gate of the switch; a charge pump configured to disable the pulldown device from passively deactivating the switch when the power transfer is being performed, and wherein a load at the charge pump enables the pulldown device to passively deactivate the switch when the power transfer is not being performed; and a monitoring component configured to: monitor an operating state of the switch; evaluate the operating state to determine whether a fault has occurred; and in response to the operating state indicating the fault, implement a countermeasure to turn off the switch, and wherein the pulldown device at the secondary side is activated to turn off the switch. an energy transfer device configured to supply power from a primary side of an isolation barrier through the isolation barrier to a secondary side of the of the isolation barrier to directly drive a gate of a switch for controlling output of the switch at the secondary side, wherein the gate of the switch is driven directly by the power supplied from the primary side and without a gate driver inbetween; a pulldown device configured to passively deactivate the switch when no power transfer is being performed by the energy transfer device to drive the gate of the switch; a charge pump configured to disable the pulldown device from passively deactivating the switch when the power transfer is being performed, and wherein a load at the charge pump enables the pulldown device to passively deactivate the switch when the power transfer is not being performed; and a monitoring component configured to: monitor an operating state of the switch; evaluate the operating state to determine whether a fault has occurred; and in response to the operating state indicating the fault, implement a countermeasure to turn off the switch, and wherein the pulldown device at the secondary side is activated to turn off the switch. monitor an operating state of the switch; evaluate the operating state to determine whether a fault has occurred; and in response to the operating state indicating the fault, implement a countermeasure to turn off the switch, and wherein the pulldown device at the secondary side is activated to turn off the switch.
Use of a wire made of an austenitic steel comprising 0.1 to 0.3 % by weight carbon 0.01 to 0.1 % by weight nitrogen 0.01 to 1 % by weight silicon 0.01 to 2 % by weight manganese 11 to 16 % by weight chromium 0.01 to 2 % by weight molybdenum 0.01 to 0.5 % by weight nickel 0.01 to 0.4 % by weight copper 0.01 to 0.1 % by weight niobium 0 to 0.1 % by weight titanium 0 to 0.1 % by weight vanadium 0 to 0.02 % by weight sulphur 0 to 0.02 % by weight phosphor 0 to 0.02 % by weight boron remainder iron including smelting-related impurities for the production of wear-resistant coatings with a martensitic structure and a hardness of at least 450 HVI by thermal coating of metal substrates. 0.1 to 0.3 % by weight carbon 0.01 to 0.1 % by weight nitrogen 0.01 to 1 % by weight silicon 0.01 to 2 % by weight manganese 11 to 16 % by weight chromium 0.01 to 2 % by weight molybdenum 0.01 to 0.5 % by weight nickel 0.01 to 0.4 % by weight copper 0.01 to 0.1 % by weight niobium 0 to 0.1 % by weight titanium 0 to 0.1 % by weight vanadium 0 to 0.02 % by weight sulphur 0 to 0.02 % by weight phosphor 0 to 0.02 % by weight boron remainder iron including smelting-related impurities for the production of wear-resistant coatings with a martensitic structure and a hardness of at least 450 HVI by thermal coating of metal substrates.
A method for manufacturing a cylindrical battery, comprising: a step of housing an electrode assembly in a cylindrical can; a step of mounting a cap assembly at the top end of the electrode assembly; a step of processing the upper end part of the cylindrical can to form a crimping part; characterized by a step of pressing an exposed part of a gasket protruding outside from a space between the cylindrical can and the cap assembly to be bent into a trimming part side of the cylindrical can, wherein a pressure rod is used to press the exposed part of the gasket, and the pressure rod includes a heating member, and wherein the exposed part of the gasket is pressed in a state in which the cylindrical battery is rotated. a step of housing an electrode assembly in a cylindrical can; a step of mounting a cap assembly at the top end of the electrode assembly; a step of processing the upper end part of the cylindrical can to form a crimping part; characterized by a step of pressing an exposed part of a gasket protruding outside from a space between the cylindrical can and the cap assembly to be bent into a trimming part side of the cylindrical can, wherein a pressure rod is used to press the exposed part of the gasket, and the pressure rod includes a heating member, and wherein the exposed part of the gasket is pressed in a state in which the cylindrical battery is rotated.
Device for feeding a fluid, as an operating medium for treating biological tissue, to a medical instrument which is connected to the device via a fluid line and has a cryogenic tip, wherein the fluid line comprises both a supply line and a return line, wherein at least one of the two lines (17, 18) is configured to be electrically conductive or comprises an electrical conductor so that the cryogenic tip, which serves for direct contact with the biological tissue, can be reached by an electrical test signal which runs from the device via the line to the instrument and its cryogenic tip, and from this back to the device via the fluid line, with a test signal emitter which is configured to emit test signals to the fluid line, with an echo signal receiver which is configured to receive an echo signal provoked by the test signal, and with an analysis device which is configured to detect, by means of the echo signal, a change of the physical state in or at the instrument and/or in or at the fluid line.
An arbor assembly comprising: an arbor having an elongated shank having a proximal end and a distal end, a collar having proximal end and a distal end and extending from said distal end of said shank, and a nose having a proximal end and a distal end and extending from said distal end of said collar, said collar having a diameter larger than a diameter of said shank and a diameter of said nose, said collar having at least one pin passageway (56a, 56b) extending therethrough, and a pin sleeve having a passageway therethrough, said arbor extending through said passageway, said pin sleeve having a main body portion and at least one pin (74a, 74b) extending from said main body portion, said at least one pin capable of engagement with said at least one pin passageway (56a, 56b), characterised by said nose having a pair of threaded portions (62a, 62b) which are diametrically opposed and which alternate with unthreaded portions (64a, 64b) on an external surface thereof, wherein the unthreaded portions have an outer profile, which is cylindrical. an arbor having an elongated shank having a proximal end and a distal end, a collar having proximal end and a distal end and extending from said distal end of said shank, and a nose having a proximal end and a distal end and extending from said distal end of said collar, said collar having a diameter larger than a diameter of said shank and a diameter of said nose, said collar having at least one pin passageway (56a, 56b) extending therethrough, and a pin sleeve having a passageway therethrough, said arbor extending through said passageway, said pin sleeve having a main body portion and at least one pin (74a, 74b) extending from said main body portion, said at least one pin capable of engagement with said at least one pin passageway (56a, 56b), characterised by said nose having a pair of threaded portions (62a, 62b) which are diametrically opposed and which alternate with unthreaded portions (64a, 64b) on an external surface thereof, wherein the unthreaded portions have an outer profile, which is cylindrical.
A method of switching operation modes, the method comprising: receiving current location information; determining an on-the-map location corresponding to the current location information; extracting a location property of the determined on-the-map location, wherein the location property is a name representing a property of a place, which is included within a name of a place on a map corresponding to the determined on-the-map location, wherein the location property is extracted from the name of the place on the map corresponding to the determined on-the-map location; and setting an operation mode of the mobile device based on the extracted location property. receiving current location information; determining an on-the-map location corresponding to the current location information; extracting a location property of the determined on-the-map location, wherein the location property is a name representing a property of a place, which is included within a name of a place on a map corresponding to the determined on-the-map location, wherein the location property is extracted from the name of the place on the map corresponding to the determined on-the-map location; and setting an operation mode of the mobile device based on the extracted location property.
An injection system comprising: - at least one supply station (105a; 105b; 105c) for supplying a fluid to be injected into a patient's vasculature; - a pressurizing unit comprising a motor for pressurizing the fluid received from said at least one supply station; - a delivery arrangement in fluid communication with said at least one supply station; - a patient set assembly in fluid communication with said delivery arrangement, said patient set assembly comprising: - a delivery tube for delivering the pressurized fluid to the patient, and - a peristaltic pump component comprising a casing (402, 403) which includes an inlet port and an exit port, the inlet port being in fluid communication with the delivery arrangement, and the exit port being in fluid communication with the delivery tube, characterized in that, in proximity of said inlet port, the casing of the peristaltic pump component has a substantially U-shaped configuration. - at least one supply station (105a; 105b; 105c) for supplying a fluid to be injected into a patient's vasculature; - a pressurizing unit comprising a motor for pressurizing the fluid received from said at least one supply station; - a delivery arrangement in fluid communication with said at least one supply station; - a patient set assembly in fluid communication with said delivery arrangement, said patient set assembly comprising: - a delivery tube for delivering the pressurized fluid to the patient, and - a peristaltic pump component comprising a casing (402, 403) which includes an inlet port and an exit port, the inlet port being in fluid communication with the delivery arrangement, and the exit port being in fluid communication with the delivery tube, - a delivery tube for delivering the pressurized fluid to the patient, and - a peristaltic pump component comprising a casing (402, 403) which includes an inlet port and an exit port, the inlet port being in fluid communication with the delivery arrangement, and the exit port being in fluid communication with the delivery tube,
A secondary battery comprising: a jelly-roll electrode assembly having a structure in which a positive electrode, a negative electrode, and a separator interposed between the positive electrode and the negative electrode are wound together; a can main body inside of which a hollow having an open side is formed and in which the electrode assembly is accommodated in a shape surrounding the hollow; and a top cover mounted on an open upper end portion of the can main body to seal the can main body, wherein one of a bottom portion of the can main body and the top cover is formed with a through-hole communicating with the hollow of the can main body, and at least 50 % of a total volume of the hollow is filled with a thermally conductive resin, wherein the thermally conductive resin is a polymer made of urethane or silicon as a base material and alumina or boron nitride as an auxiliary material. a jelly-roll electrode assembly having a structure in which a positive electrode, a negative electrode, and a separator interposed between the positive electrode and the negative electrode are wound together; a can main body inside of which a hollow having an open side is formed and in which the electrode assembly is accommodated in a shape surrounding the hollow; and a top cover mounted on an open upper end portion of the can main body to seal the can main body, wherein one of a bottom portion of the can main body and the top cover is formed with a through-hole communicating with the hollow of the can main body, and at least 50 % of a total volume of the hollow is filled with a thermally conductive resin, wherein the thermally conductive resin is a polymer made of urethane or silicon as a base material and alumina or boron nitride as an auxiliary material.
A method for reporting channel state information, CSI, from a user equipment, UE, to a base station in a wireless communication system, the method comprising: calculating legacy CSI; comparing the calculated legacy CSI with most recently reported legacy CSI; reporting the legacy CSI to the base station when the calculated legacy CSI is not the same as the most recently reported legacy CSI; characterized in that the method further comprises: reporting Multi-User Superposition Transmission, MUST, CSI to the base station when the calculated legacy CSI is the same as the most recently reported legacy CSI, wherein the MUST CSI is calculated on the basis of the assumption that interference affecting the UE has been canceled, wherein the reporting of each of the legacy CSI and the MUST CSI is done together with an indicator indicating whether corresponding CSI is the legacy CSI or the MUST CSI. calculating legacy CSI; comparing the calculated legacy CSI with most recently reported legacy CSI; reporting the legacy CSI to the base station when the calculated legacy CSI is not the same as the most recently reported legacy CSI; characterized in that the method further comprises: reporting Multi-User Superposition Transmission, MUST, CSI to the base station when the calculated legacy CSI is the same as the most recently reported legacy CSI, wherein the MUST CSI is calculated on the basis of the assumption that interference affecting the UE has been canceled, wherein the reporting of each of the legacy CSI and the MUST CSI is done together with an indicator indicating whether corresponding CSI is the legacy CSI or the MUST CSI. reporting Multi-User Superposition Transmission, MUST, CSI to the base station when the calculated legacy CSI is the same as the most recently reported legacy CSI, wherein the MUST CSI is calculated on the basis of the assumption that interference affecting the UE has been canceled, wherein the reporting of each of the legacy CSI and the MUST CSI is done together with an indicator indicating whether corresponding CSI is the legacy CSI or the MUST CSI.
A method for producing a lube basestock, comprising: exposing a feedstock to a first catalyst comprising at least one Group VIII metal supported on a M41S catalyst support and having a density, determined as the catalyst density for multiple catalyst particles in a vessel, of 600 kg/m 3 or less under conditions effective for one of hydrotreating, hydro finishing, or aromatic saturation; and exposing the treated feedstock to a second dewaxing catalyst comprising ZSM-48 with a SiO 2:Al 2 O 3 ratio of from 70 to 110 and at least one Group VIII metal under conditions effective for dewaxing the treated feedstock. exposing a feedstock to a first catalyst comprising at least one Group VIII metal supported on a M41S catalyst support and having a density, determined as the catalyst density for multiple catalyst particles in a vessel, of 600 kg/m 3 or less under conditions effective for one of hydrotreating, hydro finishing, or aromatic saturation; and exposing the treated feedstock to a second dewaxing catalyst comprising ZSM-48 with a SiO 2:Al 2 O 3 ratio of from 70 to 110 and at least one Group VIII metal under conditions effective for dewaxing the treated feedstock.
A citrate-based plasticizer composition comprising a citrate-based composition comprising one or more citrates of the following Formula 1, wherein: an alkyl group of the citrate is derived from an isomer mixture of hexyl alcohol having a degree of branching, measured as disclosed in the specification, of 2.0 or less, and the isomer mixture of hexyl alcohol comprises two or more selected from the group consisting of 1-hexanol, 1-methylpentanol, 2-methylpentanol, 3-methylpentanol, 4-methylpentanol, 1,1-dimethylbutanol, 1,2-dimethylbutanol, 1,3-dimethylbutanol, 2,2-dimethylbutanol, 2,3-dimethylbutanol, 3,3-dimethylbutanol, 1-ethylbutanol, 2-ethylbutanol, 3-ethylbutanol and cyclopentylmethanol: in Formula 1, R 1 to R 3 are each independently an n-hexyl group, a branched hexyl group or a cyclopentylmethyl group, and R 4 is hydrogen or an acetyl group. an alkyl group of the citrate is derived from an isomer mixture of hexyl alcohol having a degree of branching, measured as disclosed in the specification, of 2.0 or less, and the isomer mixture of hexyl alcohol comprises two or more selected from the group consisting of 1-hexanol, 1-methylpentanol, 2-methylpentanol, 3-methylpentanol, 4-methylpentanol, 1,1-dimethylbutanol, 1,2-dimethylbutanol, 1,3-dimethylbutanol, 2,2-dimethylbutanol, 2,3-dimethylbutanol, 3,3-dimethylbutanol, 1-ethylbutanol, 2-ethylbutanol, 3-ethylbutanol and cyclopentylmethanol: in Formula 1, R 1 to R 3 are each independently an n-hexyl group, a branched hexyl group or a cyclopentylmethyl group, and R 4 is hydrogen or an acetyl group. R 1 to R 3 are each independently an n-hexyl group, a branched hexyl group or a cyclopentylmethyl group, and R 4 is hydrogen or an acetyl group.
A lithium secondary battery comprising: a cathode plate, separator and an anode plate stacked successively; electrode tabs extended from one side of each of the cathode plate and the anode plate by a predetermined length; and electrode leads electrically connected to the electrode tabs, wherein the electrode tab is a bimetal tab formed of a bimetal or a bimetal tab is further attached onto the electrode tab, wherein the bimetal tab consists of a metal having a larger heat expansion coefficient and a metal having a smaller heat expansion coefficient, wherein the metal having a larger heat expansion coefficient is disposed toward the electrode lead, wherein there is a weld zone welding a surface of the electrode tabs to a surface of the electrode leads in at least a partial region under a normal operating condition, and disconnection is caused between the electrode tabs and the electrode leads at the weld zone at high temperature under an abnormal operating condition, wherein the weld zone is formed, amounting to 50-80% of the total area of the overlap between the electrode tab or the bimetal tab and the electrode lead.