mhurhangee/ep-ind-claims huggingface dataset:
A phenolic resin foam comprising a phenolic resin, a blowing agent and a surfactant, the blowing agent comprising two or more types of halogenated hydrocarbons, including at least one type of halogenated unsaturated hydrocarbon, the phenolic resin foam having: an average cell diameter of 120 μm or less; a thermal conductivity of 0.019 W/m·K or less; and a limiting oxygen index of 28 % or more, wherein the average cell diameter is determined as indicated in the description, the thermal conductivity is measured in accordance with JIS A 9511: 2009, and the limiting oxygen index is measured in accordance with JIS K 7201-2: 2007, wherein the blowing agent comprises a chlorinated saturated hydrocarbon and the chlorinated saturated hydrocarbon is isopropyl chloride, and the at least one type of halogenated unsaturated hydrocarbon is at least one selected from the group consisting of trans-1-chloro-3,3,3-trifluoropropene and cis-1,1,1,4,4,4-hexafluoro-2-butene. an average cell diameter of 120 μm or less; a thermal conductivity of 0.019 W/m·K or less; and a limiting oxygen index of 28 % or more, wherein the average cell diameter is determined as indicated in the description, the thermal conductivity is measured in accordance with JIS A 9511: 2009, and the limiting oxygen index is measured in accordance with JIS K 7201-2: 2007, wherein the blowing agent comprises a chlorinated saturated hydrocarbon and the chlorinated saturated hydrocarbon is isopropyl chloride, and the at least one type of halogenated unsaturated hydrocarbon is at least one selected from the group consisting of trans-1-chloro-3,3,3-trifluoropropene and cis-1,1,1,4,4,4-hexafluoro-2-butene.
A method of establishing an internet transaction with an SSL-protected server, the method comprising the steps of: providing a terminal including an internet browser software and a plug-in therefor, providing a transaction card comprising a smartcard, wherein the transaction card has means for communication with the terminal, and wherein the smartcard is arranged to run an application in conjunction with the plug-in to provide a secure authenticated connection between the smartcard and a SSL ptrotected server, introducing the transaction card at the terminal, browsing the merchant's website using the internet browser software, selecting, by way of the terminal, a hyperlink and thereby invoking the plug-in and initiating the internet transaction, providing, by the server, an SSL connection specific to the internet transaction, providing, by the plug-in, an SSL connection between the transaction card and the protected server, which connection is an end-to-end secure connection specific to the required transaction, and in response to a request from the terminal, returning, by the server, data to the terminal, wherein the data have a content type associated with the said application. providing a terminal including an internet browser software and a plug-in therefor, providing a transaction card comprising a smartcard, wherein the transaction card has means for communication with the terminal, and wherein the smartcard is arranged to run an application in conjunction with the plug-in to provide a secure authenticated connection between the smartcard and a SSL ptrotected server, introducing the transaction card at the terminal, browsing the merchant's website using the internet browser software, selecting, by way of the terminal, a hyperlink and thereby invoking the plug-in and initiating the internet transaction, providing, by the server, an SSL connection specific to the internet transaction, providing, by the plug-in, an SSL connection between the transaction card and the protected server, which connection is an end-to-end secure connection specific to the required transaction, and in response to a request from the terminal, returning, by the server, data to the terminal, wherein the data have a content type associated with the said application.
A brace that provides support to a lower spine of a wearer, comprising: a belt comprising a first lateral panel and a second lateral panel; wherein the first lateral panel comprises: an elastic base having a first elasticity in a first direction, wherein the elastic base repeatedly stretches to at least 110% of an original length of the elastic base and returns to an original shape in at least the first direction, and characterized in that: a first set of elastic strands (150A-F, 250 A-F, 410, 420,430) incorporated into a first portion of the elastic base along the first direction to define a first permanent elastic zone (170A-F, 270 A-F) between a first elastic zone and a second elastic zone bordering opposite sides of the first permanent elastic zone (170A-F, 270 A-F), wherein the first set of elastic strands (150A-F, 250 A-F, 410, 420,430) have an elasticity at least 25% less than an elasticity of the elastic base; and wherein the first lateral panel has a second elasticity in the first direction and along the first permanent elastic zone (170A-F, 270 A-F) that is less than 50% of the first elasticity. a belt comprising a first lateral panel and a second lateral panel; wherein the first lateral panel comprises: an elastic base having a first elasticity in a first direction, wherein the elastic base repeatedly stretches to at least 110% of an original length of the elastic base and returns to an original shape in at least the first direction, and characterized in that: a first set of elastic strands (150A-F, 250 A-F, 410, 420,430) incorporated into a first portion of the elastic base along the first direction to define a first permanent elastic zone (170A-F, 270 A-F) between a first elastic zone and a second elastic zone bordering opposite sides of the first permanent elastic zone (170A-F, 270 A-F), wherein the first set of elastic strands (150A-F, 250 A-F, 410, 420,430) have an elasticity at least 25% less than an elasticity of the elastic base; and an elastic base having a first elasticity in a first direction, wherein the elastic base repeatedly stretches to at least 110% of an original length of the elastic base and returns to an original shape in at least the first direction, and characterized in that: a first set of elastic strands (150A-F, 250 A-F, 410, 420,430) incorporated into a first portion of the elastic base along the first direction to define a first permanent elastic zone (170A-F, 270 A-F) between a first elastic zone and a second elastic zone bordering opposite sides of the first permanent elastic zone (170A-F, 270 A-F), wherein the first set of elastic strands (150A-F, 250 A-F, 410, 420,430) have an elasticity at least 25% less than an elasticity of the elastic base; and wherein the first lateral panel has a second elasticity in the first direction and along the first permanent elastic zone (170A-F, 270 A-F) that is less than 50% of the first elasticity.
An exhaust-gas treatment arrangement for an exhaust gas system of an internal combustion engine, in particular diesel internal combustion engine, comprising at least one first exhaust-gas treatment unit and, downstream of the at least one first exhaust-gas treatment unit, an exhaust-gas treatment assembly, the at least one first exhaust-gas treatment unit and the exhaust-gas treatment assembly being arranged axially one after the other in the direction of a flow-path longitudinal axis (L 2) of a flow path comprising the at least one first exhaust-gas treatment unit and the exhaust-gas treatment assembly, a hydrocarbon introduction assembly for introducing hydrocarbon into exhaust gas flowing in the flow path being arranged in the flow path substantially axially between the at least one first exhaust-gas treatment unit and the exhaust-gas treatment assembly, characterized in that the hydrocarbon introduction assembly comprises an introduction ring flow channel which annularly surrounds the flow-path longitudinal axis (L 2), the introduction ring flow channel being open in an upstream flow-channel end region toward an outlet region of the at least one first exhaust-gas treatment unit and being open in a downstream flow-channel end region toward an inlet region of the exhaust-gas treatment assembly, and the hydrocarbon introduction assembly comprising a hydrocarbon discharging unit for discharging hydrocarbon into the introduction ring flow channel.
A delay circuit (210, 510), comprising: a first delay path (218, 518) having an input coupled to an input of the delay circuit (210, 510), and an output; a second delay path (215, 515) having an input coupled to the input of the delay circuit (210, 510), and an output, a plurality of switches (225...225, 525...525), wherein each switch is coupled between different points on the first and second delay paths (215, 218, 515, 518), and each switch is configured to turn on or off in response to a respective one of a plurality of select signals, wherein the first delay path (218, 518) comprises a first plurality of delay gates (230...230, (530...530) coupled in series, the second delay path (215, 515) comprises a second plurality of delay gates (220...220, 520...520) coupled in series, and each switch is coupled between an output of a different one of the first plurality of delay gates (230...230, 530...530) and an output of a different one of the second plurality of delay gates (220...220, 520...520); and a multiplexer (250, 550) having a first input coupled to the output of the first delay path (218, 518), a second input coupled to the output of the second delay path (215, 515), and an output coupled to an output of the delay circuit (210, 510), wherein the multiplexer (250, 550) is configured to selectively couple one of the outputs of the first and second delay paths (215, 218, 515, 518) to the output of the delay circuit (210, 510) in response to a second select signal. a first delay path (218, 518) having an input coupled to an input of the delay circuit (210, 510), and an output; a second delay path (215, 515) having an input coupled to the input of the delay circuit (210, 510), and an output, a plurality of switches (225...225, 525...525), wherein each switch is coupled between different points on the first and second delay paths (215, 218, 515, 518), and each switch is configured to turn on or off in response to a respective one of a plurality of select signals, wherein the first delay path (218, 518) comprises a first plurality of delay gates (230...230, (530...530) coupled in series, the second delay path (215, 515) comprises a second plurality of delay gates (220...220, 520...520) coupled in series, and each switch is coupled between an output of a different one of the first plurality of delay gates (230...230, 530...530) and an output of a different one of the second plurality of delay gates (220...220, 520...520); and a multiplexer (250, 550) having a first input coupled to the output of the first delay path (218, 518), a second input coupled to the output of the second delay path (215, 515), and an output coupled to an output of the delay circuit (210, 510), wherein the multiplexer (250, 550) is configured to selectively couple one of the outputs of the first and second delay paths (215, 218, 515, 518) to the output of the delay circuit (210, 510) in response to a second select signal.
A laser energy managing device for an additive manufacturing system, comprising: a laser beam energy splitting device, configured to split an input laser beam from a laser generator into a plurality of split laser beams, and comprising a plurality of split transmission channels configured to transmit the plurality of split laser beams respectively; at least one micro-bending device configured to micro-bend each of the split transmission channels to attenuate the energy of corresponding split laser beams transmitted thereby and thus obtain a plurality of output laser beams suitable for being projected on a material spread on a platform of the additive manufacturing system; and a controller, configured to control a micro-bending degree of each split transmission channel. a laser beam energy splitting device, configured to split an input laser beam from a laser generator into a plurality of split laser beams, and comprising a plurality of split transmission channels configured to transmit the plurality of split laser beams respectively; at least one micro-bending device configured to micro-bend each of the split transmission channels to attenuate the energy of corresponding split laser beams transmitted thereby and thus obtain a plurality of output laser beams suitable for being projected on a material spread on a platform of the additive manufacturing system; and a controller, configured to control a micro-bending degree of each split transmission channel.
A bearing retainer for a bearing for supporting the shaft of a pump, said bearing retainer comprising: - at least one ring section adapted to surround the bearing, said ring section having an inner radius perpendicular to the axis of the shaft; - at least one elastic section adjacent said ring section, wherein at least a part of said elastic section has an inner radius perpendicular to the axis of the shaft, which inner radius is smaller than said radius of said ring section; said elastic section comprising multiple slits, dividing said elastic section into multiple resilient parts; said multiple resilient parts being adapted to allowing receiving and supporting the bearing, thereby creating a compression force in radial direction perpendicular to the axis of the shaft, allowing said bearing retainer to hold the bearing in a fixed position with respect to said bearing retainer; wherein said elastic section comprises an oblique subsection adjacent said ring section and a cylindrical subsection adjacent said oblique subsection, wherein said oblique subsection comprises a wall which is slanted with respect to the shaft of the pump, and said cylindrical subsection comprises a wall which is parallel to the shaft of the pump characterized in that said ring section is elliptical, corrugated or wave formed. - at least one ring section adapted to surround the bearing, said ring section having an inner radius perpendicular to the axis of the shaft; - at least one elastic section adjacent said ring section, wherein at least a part of said elastic section has an inner radius perpendicular to the axis of the shaft, which inner radius is smaller than said radius of said ring section; said elastic section comprising multiple slits, dividing said elastic section into multiple resilient parts; said multiple resilient parts being adapted to allowing receiving and supporting the bearing, thereby creating a compression force in radial direction perpendicular to the axis of the shaft, allowing said bearing retainer to hold the bearing in a fixed position with respect to said bearing retainer; wherein said elastic section comprises an oblique subsection adjacent said ring section and a cylindrical subsection adjacent said oblique subsection, wherein said oblique subsection comprises a wall which is slanted with respect to the shaft of the pump, and said cylindrical subsection comprises a wall which is parallel to the shaft of the pump characterized in that said ring section is elliptical, corrugated or wave formed.
A method of making a self-expanding implant, comprising: a) manufacturing a tubular structure to a first diameter, said structure comprising at least one strand (110, 120) comprising a first polymer; and b) coating said tubular structure with a second polymer so that it at least partially coats said strand, said second polymer comprising an elastomeric polymer that when compressed or elongated, applies a force to the tubular structure that acts in favor of radial expansion, thereby making a self-expanding implant, wherein the second polymer comprises: a four arm poly(glycolide-co-caprolactone) (PGCL) polymer having a weight ratio of approximately 50:50 GA:CL that has been cross-linked with hexamethylene diisocyanate so as to have a molecular weight of from about 23 kDa to about 50 kDa; or poly(lactic acid-co-caprolactone) (PLCL) having a weight ratio of approximately 50:50 PL:CL that has been cross-linked with HDI so as to have a molecular weight of between about 30 kDa and 100 kDa. a four arm poly(glycolide-co-caprolactone) (PGCL) polymer having a weight ratio of approximately 50:50 GA:CL that has been cross-linked with hexamethylene diisocyanate so as to have a molecular weight of from about 23 kDa to about 50 kDa; or poly(lactic acid-co-caprolactone) (PLCL) having a weight ratio of approximately 50:50 PL:CL that has been cross-linked with HDI so as to have a molecular weight of between about 30 kDa and 100 kDa.
A power supply circuit, wherein the circuit comprises: a plurality of channels, and at least one channel of the plurality of channels comprises a first switching transistor (M1'), a second switching transistor (M2'), a third switching transistor, a fourth switching transistor, a first capacitor (C1'), and a second capacitor; one terminal of the first capacitor (C1') is connected to one terminal of the second capacitor, the other terminal of the first capacitor (C1') is separately connected to a first electrode of the first switching transistor (M1') and a first electrode of the second switching transistor (M2'), a second electrode of the first switching transistor (M1') is connected to a second electrode of the third switching transistor, a second electrode of the second switching transistor (M2') is connected to a second electrode of the fourth switching transistor, a third electrode of the first switching transistor (M1') is connected to an output node (VSSH), and a third electrode of the second switching transistor (M2') is grounded, wherein the other terminal of the second capacitor, a third electrode of the third switching transistor and a first electrode of the fourth switching transistor are connected to the output node (VSSH), wherein the first electrode is a source of a MOS transistor or a collector of a transistor, the second electrode is a gate of the MOS transistor or a base of the transistor, and the third electrode is a drain of the MOS transistor or an emitter of the transistor. a plurality of channels, and at least one channel of the plurality of channels comprises a first switching transistor (M1'), a second switching transistor (M2'), a third switching transistor, a fourth switching transistor, a first capacitor (C1'), and a second capacitor; one terminal of the first capacitor (C1') is connected to one terminal of the second capacitor, the other terminal of the first capacitor (C1') is separately connected to a first electrode of the first switching transistor (M1') and a first electrode of the second switching transistor (M2'), a second electrode of the first switching transistor (M1') is connected to a second electrode of the third switching transistor, a second electrode of the second switching transistor (M2') is connected to a second electrode of the fourth switching transistor, a third electrode of the first switching transistor (M1') is connected to an output node (VSSH), and a third electrode of the second switching transistor (M2') is grounded, wherein the other terminal of the second capacitor, a third electrode of the third switching transistor and a first electrode of the fourth switching transistor are connected to the output node (VSSH), wherein the first electrode is a source of a MOS transistor or a collector of a transistor, the second electrode is a gate of the MOS transistor or a base of the transistor, and the third electrode is a drain of the MOS transistor or an emitter of the transistor.
A splash guard for a pan or a cooking pot, comprising: - an edge circumferentially extending around an opening, with at least one resting means on a first side, - at least one lateral stop protruding from a first side of the circumferentially extending edge in a longitudinal axis, and - a circumferentially extending protective lip extending from a second side from the circumferentially extending edge in the longitudinal axis to a cooking opening, wherein the circumferentially extending edge protrudes from a transitional region radially from the longitudinal axis and the protective lip and has at the protruding end a circumferentially extending edge for forming a collecting channel, characterized in that the dome-shaped protective lip has at a free end at least one resting groove, wherein the resting groove is formed as a recess, in the shape of a part of a circle, at the free end of the dome-shaped protective lip, and in that the lateral stop is formed in a wedge-shaped manner for centering the splash guard on the pan or cooking pot. - an edge circumferentially extending around an opening, with at least one resting means on a first side, - at least one lateral stop protruding from a first side of the circumferentially extending edge in a longitudinal axis, and - a circumferentially extending protective lip extending from a second side from the circumferentially extending edge in the longitudinal axis to a cooking opening, wherein the circumferentially extending edge protrudes from a transitional region radially from the longitudinal axis and the protective lip and has at the protruding end a circumferentially extending edge for forming a collecting channel,
A data communication method performed by a user equipment in a wireless communication system including a Radio Link Control RLC entity and a Packet Data Convergence Protocol PDCP entity, the method comprising: receiving a handover command; assembling at least one PDCP packet from at least one RLC packet; delivering the assembled at least one PDCP packet from the RLC entity to the PDCP entity; storing the delivered at least one PDCP packet in a PDCP buffer; generating PDCP status information and transmitting a handover complete message containing the PDCP status information to a target eNB; further comprising: re-establishing the RLC entity for the target eNB; receiving, from the RLC entity, a new PDCP packet having a Sequence Number SN; checking at least one PDCP packet with an associated SN lower than the SN associated with the received new PDCP packet, and at least one PDCP packet with a consecutively associated SN starting from the SN associated with the received new PDCP packet; and delivering, to an upper layer, the received new PDCP packet, and the at least one PDCP packet with the consecutively associated SN starting from the SN associated with the received new PDCP packet. receiving a handover command; assembling at least one PDCP packet from at least one RLC packet; delivering the assembled at least one PDCP packet from the RLC entity to the PDCP entity; storing the delivered at least one PDCP packet in a PDCP buffer; generating PDCP status information and transmitting a handover complete message containing the PDCP status re-establishing the RLC entity for the target eNB; receiving, from the RLC entity, a new PDCP packet having a Sequence Number SN; checking at least one PDCP packet with an associated SN lower than the SN associated with the received new PDCP packet, and at least one PDCP packet with a consecutively associated SN starting from the SN associated with the received new PDCP packet; and delivering, to an upper layer, the received new PDCP packet, and the at least one PDCP packet with the consecutively associated SN starting from the SN associated with the received new PDCP packet.