mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device comprising: a device container including an electronic module within the device container; a header coupled to the device container, the header including: a header core including a first portion and a second portion, the header core including a conductive member electrically coupled to the electronic module within the device container, wherein the conductive member includes electrical contacts configured to electrically couple to one or more leads; and a header shell disposed around the header core and attached to the device container; and an antenna coupled to the header core and molded within the header shell, the antenna being electrically coupled to the electronic module, wherein the first portion of the header core is proximate the antenna, the first portion including a first dielectric constant that is lower than a second dielectric constant of the second portion of the header core, the second portion enclosing the electrical contacts, wherein the first portion of the header core is disposed between the antenna and the conductive member; and wherein the first portion of the header core is disposed between the antenna and the device container. a device container including an electronic module within the device container; a header coupled to the device container, the header including: a header core including a first portion and a second portion, the header core including a conductive member electrically coupled to the electronic module within the device container, wherein the conductive member includes electrical contacts configured to electrically couple to one or more leads; and a header shell disposed around the header core and attached to the device container; and a header core including a first portion and a second portion, the header core including a conductive member electrically coupled to the electronic module within the device container, wherein the conductive member includes electrical contacts configured to electrically couple to one or more leads; and a header shell disposed around the header core and attached to the device container; and an antenna coupled to the header core and molded within the header shell, the antenna being electrically coupled to the electronic module, wherein the first portion of the header core is proximate the antenna, the first portion including a first dielectric constant that is lower than a second dielectric constant of the second portion of the header core, the second portion enclosing the electrical contacts, wherein the first portion of the header core is disposed between the antenna and the conductive member; and wherein the first portion of the header core is disposed between the antenna and the device container.
A brake backing plate comprising: a first sheet metal stamping; a second sheet metal stamping; and a core material sandwiched between the first sheet metal stamping and the second sheet metal stamping; characterized in that: the core material is non-compressible; and the first sheet metal stamping and the second sheet metal stamping each have a respective textured face (12, 13) with a plurality of integrally formed piercing members, the respective textured faces of the stampings having been rolled or pressed into the core material, such that the piercing members of each respective textured face (12, 13) piercethe core material to secure the first sheet metal stamping, the second sheet metal stamping and the core material together. a first sheet metal stamping; a second sheet metal stamping; and a core material sandwiched between the first sheet metal stamping and the second sheet metal stamping; the core material is non-compressible; and the first sheet metal stamping and the second sheet metal stamping each have a respective textured face (12, 13) with a plurality of integrally formed piercing members, the respective textured faces of the stampings having been rolled or pressed into the core material, such that the piercing members of each respective textured face (12, 13) piercethe core material to secure the first sheet metal stamping, the second sheet metal stamping and the core material together.
A method of providing multithreaded computer processing, the method comprising: dedicating a register to controlling running and freezing of multiple processing threads, the register being writeable by each of the processing threads; causing a processing thread to run by writing, by another thread, a first value to one or more particular bits of the register; and freezing the processing thread by writing, by said thread or another thread, a second value to one or more other particular bits of the register. dedicating a register to controlling running and freezing of multiple processing threads, the register being writeable by each of the processing threads; causing a processing thread to run by writing, by another thread, a first value to one or more particular bits of the register; and freezing the processing thread by writing, by said thread or another thread, a second value to one or more other particular bits of the register.
A vapour provision device including: an atomiser for vaporising a liquid; an air passage through the atomiser, the air passage exiting the vapour provision device at a mouthpiece; at least one air inlet, joined by a channel (921, 922) to the air passage through the atomiser; and at least one resilient seal which acts to restrict air from the air inlet travelling to the air passage except through the channel; wherein the seal comprises a resilient material; and characterised in that the size of the channel is defined at least in part by the resilient material to control resistance to draw for the vapour provision device. an atomiser for vaporising a liquid; an air passage through the atomiser, the air passage exiting the vapour provision device at a mouthpiece; at least one air inlet, joined by a channel (921, 922) to the air passage through the atomiser; and at least one resilient seal which acts to restrict air from the air inlet travelling to the air passage except through the channel; wherein the seal comprises a resilient material; and characterised in that the size of the channel is defined at least in part by the resilient material to control resistance to draw for the vapour provision device.
A voltage conversion system comprising: a voltage converter including an inductor and a plurality of switches configured to control a current through the inductor; and a bypass circuit including a first p-type field effect transistor (PFET), a second PFET, a first n-type field effect transistor (NFET), and a second NFET, the first and second NFET transistors and the first and second PFET transistors electrically connected between a first end and a second end of the inductor such that a source of the first PFET transistor and a drain of the first NFET transistor are electrically connected to the first end of the inductor and such that a drain of the second PFET transistor and a source of the second NFET transistor are electrically connected to the second end of the inductor. a voltage converter including an inductor and a plurality of switches configured to control a current through the inductor; and a bypass circuit including a first p-type field effect transistor (PFET), a second PFET, a first n-type field effect transistor (NFET), and a second NFET, the first and second NFET transistors and the first and second PFET transistors electrically connected between a first end and a second end of the inductor such that a source of the first PFET transistor and a drain of the first NFET transistor are electrically connected to the first end of the inductor and such that a drain of the second PFET transistor and a source of the second NFET transistor are electrically connected to the second end of the inductor.
A method of treating soil, the method comprising providing the soil with a glucosinolate-secreting plant and contacting said soil with a myrosinase-secreting microorganism.
A refrigerated display case door, comprising: a hinge rail comprising a channel portion and a hinge receiving portion; a panel assembly comprising two panes (21, 23) of glass bounding a sealed space between the panes, the panel assembly having a first edge disposed within the channel portion of the hinge rail; and a handle secured to a surface of the panel assembly proximate a handle-side edge of the panel assembly; wherein the sealed space is closed by a peripheral seal disposed between the panes along a periphery of the panes, the peripheral seal comprising a first material extending along a first portion of the periphery and a second material extending along a second, different portion of the periphery, wherein the first portion of the periphery includes the first edge of the panel assembly, wherein the hinge rail is arranged to cover the peripheral seal applied along the first edge, and wherein the second portion of the periphery includes the handle-side edge of the panel assembly; and wherein the second material has a higher transmittance of visible light than that of the first material. a hinge rail comprising a channel portion and a hinge receiving portion; a panel assembly comprising two panes (21, 23) of glass bounding a sealed space between the panes, the panel assembly having a first edge disposed within the channel portion of the hinge rail; and a handle secured to a surface of the panel assembly proximate a handle-side edge of the panel assembly; wherein the sealed space is closed by a peripheral seal disposed between the panes along a periphery of the panes, the peripheral seal comprising a first material extending along a first portion of the periphery and a second material extending along a second, different portion of the periphery, wherein the first portion of the periphery includes the first edge of the panel assembly, wherein the hinge rail is arranged to cover the peripheral seal applied along the first edge, and wherein the second portion of the periphery includes the handle-side edge of the panel assembly; and wherein the second material has a higher transmittance of visible light than that of the first material.
An implantable medical device, comprising: a housing including electronic circuitry; a header coupled to the housing and including a core, the core defining: a bore (50A-C); a connector block opening; a connector block (104A-B; 106A-D; 108) positioned within the connector block opening configured to electrically and mechanically mate with a lead (27A-C) and including a first identifier; and a contact wire (112, 113, 114, 115, 116, 117, 118, 119) coupling with the connector block (104A-B; 106A-D; 108) to electrically couple the lead (27A-C) to the electronic circuitry and including a second identifier matching the first identifier, wherein the identifiers are generated by anodizing the connector block and the contact wire. a housing including electronic circuitry; a header coupled to the housing and including a core, the core defining: a bore (50A-C); a connector block opening; a connector block (104A-B; 106A-D; 108) positioned within the connector block opening configured to electrically and mechanically mate with a lead (27A-C) and including a first identifier; and a contact wire (112, 113, 114, 115, 116, 117, 118, 119) coupling with the connector block (104A-B; 106A-D; 108) to electrically couple the lead (27A-C) to the electronic circuitry and including a second identifier matching the first identifier, wherein the identifiers are generated by anodizing the connector block and the contact wire. a bore (50A-C); a connector block opening; a connector block (104A-B; 106A-D; 108) positioned within the connector block opening configured to electrically and mechanically mate with a lead (27A-C) and including a first identifier; and a contact wire (112, 113, 114, 115, 116, 117, 118, 119) coupling with the connector block (104A-B; 106A-D; 108) to electrically couple the lead (27A-C) to the electronic circuitry and including a second identifier matching the first identifier, wherein the identifiers are generated by anodizing the connector block and the contact wire.
Use of an acidic aqueous composition as post-treatment of zirconium-pretreated metal-based substrate surfaces for subsequent electrocoating of the treated surfaces, the composition comprising a. trivalent chromium ions; b. hexafluorozirconate ions; wherein the source of trivalent chromium ions is a trivalent chromium nitrate salt. a. trivalent chromium ions; b. hexafluorozirconate ions;
Particle filter for an internal combustion engine, having a filter body, wherein the filter body has a filter inlet passable by a flow, and a filter outlet passable by a flow, and wherein the filter body has at least one first duct passable by a flow, having a first end that is configured so as to face the filter inlet, and a second end that is configured so as to face the filter outlet, and a second duct passable by a flow, having a third end that is configured so as to face the filter inlet, and a fourth end that is configured so as to face the filter outlet, and wherein the second end and the third end are configured so as to be impassable by a flow, wherein the ducts (5, 6) are capable of being divided into a duct portion passable by a flow, and a duct portion impassable by a flow, and wherein a flow transfer of an exhaust gas flowing through the filter body proceeding from the first duct to the second duct is performed by way of a common duct wall that is configured between the first duct and the second duct, and wherein the duct wall is configured so as to be capable of separating soot particles of the exhaust gas, and wherein the first duct and/or the second duct for increasing a reaction temperature present in the particle filter for burning off the soot particles have/has a heating element, wherein the heating element is disposed in that duct portion of the duct (5; 6) that is impassable by a flow and is configured from a functional material which reacts in an exothermic manner when storing oxygen, wherein the heating element is disposed in a cross section of the first duct and/or the second duct, said cross section being orthogonal to a longitudinal axis along which the ducts (5, 6) are configured to extend, and wherein the heating element is impinged directly by the exhaust gas, and wherein the duct portion impassable by a flow has a stopper, characterized in that the heating element is configured so as to completely or partially replace the stopper.
A method for extracting, by a processor of a decoder, source color volume information of an input bitstream from an SEI message, the method comprising: receiving, by the processor, the SEI message that includes a first SEI messaging variable (source_colour_volume_id) identifying the presence of source color volume information in the SEI message; receiving, by the processor, a second SEI messaging variable (source_colour_primaries) as part of the source color volume information in the SEI message; if the second SEI messaging variable matches a first predetermined value, extracting, by the processor, first x and y chromaticity coordinates for one or more color primaries from the source color volume information in the SEI message; and extracting, by the processor, a minimum, a maximum, and an average luminance value from the source color volume information in the SEI message. receiving, by the processor, the SEI message that includes a first SEI messaging variable (source_colour_volume_id) identifying the presence of source color volume information in the SEI message; receiving, by the processor, a second SEI messaging variable (source_colour_primaries) as part of the source color volume information in the SEI message; if the second SEI messaging variable matches a first predetermined value, extracting, by the processor, first x and y chromaticity coordinates for one or more color primaries from the source color volume information in the SEI message; and extracting, by the processor, a minimum, a maximum, and an average luminance value from the source color volume information in the SEI message.
A method of producing a human stem cell line comprising: (a) parthenogenetically activating a human oocyte, wherein activating comprises: (i) contacting the oocyte with an ionophore at high O 2 tension and (ii) contacting the oocyte with a serine-threonine kinase inhibitor under low O 2 tension and wherein the oocyte genome is haploid or diploid and lacks paternal imprinting; (b) cultivating the activated oocyte of step (a) at low O 2 tension until blastocyst formation, wherein the cells of the blastocyst lack paternal imprinting; (c) transferring the blastocyst to a layer of feeder cells, and culturing the transferred blastocyst under high O 2 tension, wherein the cells of the blastocyst are haploid or diploid and lack paternal imprinting; (d) mechanically isolating an inner cell mass containing pluripotent cells from trophectoderm of the blastocyst of step (c); and (e) culturing the pluripotent cells of the ICM of step (d) on a layer of feeder cells, wherein culturing step (e) is carried out under high O 2 tension. (a) parthenogenetically activating a human oocyte, wherein activating comprises: (i) contacting the oocyte with an ionophore at high O 2 tension and (ii) contacting the oocyte with a serine-threonine kinase inhibitor under low O 2 tension and wherein the oocyte genome is haploid or diploid and lacks paternal imprinting; (b) cultivating the activated oocyte of step (a) at low O 2 tension until blastocyst formation, wherein the cells of the blastocyst lack paternal imprinting; (c) transferring the blastocyst to a layer of feeder cells, and culturing the transferred blastocyst under high O 2 tension, wherein the cells of the blastocyst are haploid or diploid and lack paternal imprinting; (d) mechanically isolating an inner cell mass containing pluripotent cells from trophectoderm of the blastocyst of step (c); and (e) culturing the pluripotent cells of the ICM of step (d) on a layer of feeder cells, wherein culturing step (e) is carried out under high O 2 tension.
A tactile touch panel (102, 206) comprising a plurality of piezoelectric cells (120, 210) forming a piezoelectric layer having a first and a second surfaces, wherein said first surface of said piezoelectric layer is configured to receive inputs, wherein each one of said plurality of piezoelectric cells (120, 210) includes at least one piezoelectric material (304, 305), wherein said piezoelectric material (304, 305) is configured to provide a haptic effect independent of other piezoelectric cells (120, 210), said tactile touch panel (102, 206) further comprising a display, wherein said second surface of the piezoelectric layer is situated adjacent to the display; said piezoelectric layer is substantially transparent and is capable of transmitting light so that objects or images displayed in display can be seen through the substantially transparent piezoelectric layer; said tactile tonch panel being characterized in that said substantially transparent piezoelectric layer is configured to receive multiple simultaneous inputs, and to generate multiple independent haptic effects substantially simultaneously in response to the multiple simultaneous inputs.
A housing for an air cycle machine, the housing comprising: a first housing portion adjacent a first end of the housing; a second housing portion adjacent a second end of the housing and attached to the first housing portion; a first duct in the first housing portion adjacent the first end of the housing with an air inlet and an air outlet; a second duct in the second housing portion adjacent the second end of the housing with an air inlet and an air outlet; a bolt hole positioned in the second end of the housing; and a bulged area on the second housing portion, characterized in that the bulged area is aligned with the bolt hole, wherein the radially outer wall of the second housing portion has a first thickness T 1, wherein the bulged area has a second thickness T 2, and wherein a ratio of the first thickness T 1 to the second thickness T 2 is between 0.1250 and 0.2414. a first housing portion adjacent a first end of the housing; a second housing portion adjacent a second end of the housing and attached to the first housing portion; a first duct in the first housing portion adjacent the first end of the housing with an air inlet and an air outlet; a second duct in the second housing portion adjacent the second end of the housing with an air inlet and an air outlet; a bolt hole positioned in the second end of the housing; and a bulged area on the second housing portion, characterized in that the bulged area is aligned with the bolt hole, wherein the radially outer wall of the second housing portion has a first thickness T 1, wherein the bulged area has a second thickness T 2, and wherein a ratio of the first thickness T 1 to the second thickness T 2 is between 0.1250 and 0.2414.
A method of probing a network route comprising of network links using a pair of probe packets comprising a first probe packet I1 with size L1 and a second probe packet I2 with size L2, and wherein L1 ≤ L2; the method comprising the steps of: - transmitting the first pair of probe packets I1 and I2 back-to-back onto the network route, the pair of probe packets having a ratio [L1/L2]; - transmitting onto the network route at least one further pair of probe packets back-to-back, m1 with size M1 and m2 with size M2, wherein M1≤M2 and further wherein the ratio [M1/M2] is different from the ratio [L1/L2]; - deriving an indicator of the time taken for the second probe packet in the probe packet pairs to traverse the network route, wherein the derived indicator is derived from the size of the second packet and the time taken for the second packet to traverse the route; - identifying if the values of the derived indicators vary or are substantially the same, - determining that a first network link is not a bottleneck link if the values of the derived indicators vary. - transmitting the first pair of probe packets I1 and I2 back-to-back onto the network route, the pair of probe packets having a ratio [L1/L2]; - transmitting onto the network route at least one further pair of probe packets back-to-back, m1 with size M1 and m2 with size M2, wherein M1≤M2 and further wherein the ratio [M1/M2] is different from the ratio [L1/L2]; - deriving an indicator of the time taken for the second probe packet in the probe packet pairs to traverse the network route, wherein the derived indicator is derived from the size of the second packet and the time taken for the second packet to traverse the route; - identifying if the values of the derived indicators vary or are substantially the same, - determining that a first network link is not a bottleneck link if the values of the derived indicators vary.