mhurhangee/ep-ind-claims huggingface dataset:
Device for inductive transfer of electrical energy from a stationary unit with at least one primary induction coil to a vehicle standing adjacent to this with at least one secondary induction coil, wherein the stationary unit has an arrangement (12, 13, 14; 2, 16, 14) for detecting the presence of an electrically conductive object (11, 1) within a predetermined space adjacent to the primary induction coil and lying between the primary induction coil and the secondary induction coil during the inductive transfer of energy, characterised in that the arrangement has at least one measuring induction coil which is formed separate from the primary induction coil and disposed adjacent to the primary induction coil on the side of the primary induction coil which faces the secondary induction coil during the inductive transfer of energy.
Projection apparatus for projecting a virtual image in a motor vehicle, having a housing in which a light-generating apparatus and an image-generating unit for generating the virtual image from the light emitted by the light-generating apparatus are arranged, wherein the housing has an opening through which the virtual image is able to be emitted from the housing to an external mirror of the projection apparatus that is arranged on the housing, wherein the opening is covered by a light-transmissive cover and an opaque stop is arranged at an angle (a) with respect to the cover and at least adjacent to the cover, characterized in that the stop is arranged relative to the cover such that solar radiation (24, 25) which is reflected at the cover in a direction facing away from the external mirror is incident on the stop.
A method of producing a composite fibre compound, wherein fibres are inserted into at least one half of an open mould, and a liquid monomer converted into thermoplastics material by polymerisation is deposited thereon and seeps partly, preferably mostly, but not completely into the spaces between the fibres, after which the mould, heated and closed, injects an additional thermoplastics material (5, 6, 7, 8, 9, 11) into the remaining cavities and/or spaces between the fibres and/or the monomer and/or the walls of the mould, or injects an additional monomer converted into a thermoplastics material by polymerisation and forming additional regions of the composite fibre component, and after the monomer has been polymerised to form a thermoplastics material, the mould is opened and the composite fibre component is removed from the mould.
A method performed by a computing device (116, 118) associated with a microwave backhaul transceiver, the method comprising: receiving data indicative of a slot format (508, 510, 512) for a wireless communication between a base station and a user equipment, the slot format comprising an uplink portion, a flexible portion, and a downlink portion; measuring a signal during a time period associated with the flexible portion of the wireless communication; determining at least a frequency and a power level associated with the signal; based on the at least one of the frequency and the power level associated with the signal, determining that the frequency corresponds to a microwave backhaul communication frequency; determining that the power level meets or exceeds a threshold power level; and selecting a wireless resource for the microwave backhaul transceiver (108, 110) based at least in part on the power level meeting or exceeding the threshold power level. receiving data indicative of a slot format (508, 510, 512) for a wireless communication between a base station and a user equipment, the slot format comprising an uplink portion, a flexible portion, and a downlink portion; measuring a signal during a time period associated with the flexible portion of the wireless communication; determining at least a frequency and a power level associated with the signal; based on the at least one of the frequency and the power level associated with the signal, determining that the frequency corresponds to a microwave backhaul communication frequency; determining that the power level meets or exceeds a threshold power level; and selecting a wireless resource for the microwave backhaul transceiver (108, 110) based at least in part on the power level meeting or exceeding the threshold power level.
Use of a phthalocyanine in the preparation of a gel to provide said gel with improved thermal stability, the gel being the hydrosilylation reaction product of: an organopolysiloxane having an average of at least 0.1 silicon-bonded alkenyl group per molecule; and a cross-linker having an average of at least 2 silicon-bonded hydrogen atoms per molecule; wherein and react via hydrosilylation in the presence of; a hydrosilylation catalyst, and said phthalocyanine present in an amount of from about 0.05 to about 30 weight percent based on a total weight of and, and wherein and optionally react with a silicone fluid in the presence of and, wherein and optionally react in the presence of,, and, and wherein said gel has a hardness of less than about 1500 grams as measured after heat ageing at 225°C for 1000 hours that is calculated as a weight required to insert a TA-23 probe into said gel to a depth of 3 mm; and wherein said gel is free of a reinforcing filler. an organopolysiloxane having an average of at least 0.1 silicon-bonded alkenyl group per molecule; and a cross-linker having an average of at least 2 silicon-bonded hydrogen atoms per molecule; a hydrosilylation catalyst, and said phthalocyanine present in an amount of from about 0.05 to about 30 weight percent based on a total weight of and, and
An apparatus comprising: (a) a catheter, wherein at least a portion of the catheter is sized and configured to fit within a lumen of a human cardiovascular system; and (b) an end effector positioned at a distal end of the catheter, wherein the end effector comprises: (i) an expandable wire frame assembly, wherein the expandable wire frame assembly is configured to transition between a non-expanded state and an expanded state, and (ii) at least one flex circuit, wherein each flex circuit of the at least one flex circuit comprises: a flexible substrate secured to the expandable wire frame assembly and an electrode secured to the flexible substrate, wherein the expandable wire frame assembly in the expanded state is configured to urge the electrode into contact with tissue, characterised in that the flexible substrate is secured to the expandable wire frame assembly via one or more structures selected from the group consisting of loops, rivets, or stitches. (a) a catheter, wherein at least a portion of the catheter is sized and configured to fit within a lumen of a human cardiovascular system; and (b) an end effector positioned at a distal end of the catheter, wherein the end effector comprises: (i) an expandable wire frame assembly, wherein the expandable wire frame assembly is configured to transition between a non-expanded state and an expanded state, and (ii) at least one flex circuit, wherein each flex circuit of the at least one flex circuit comprises: a flexible substrate secured to the expandable wire frame assembly and an electrode secured to the flexible substrate, wherein the expandable wire frame assembly in the expanded state is configured to urge the electrode into contact with tissue, (i) an expandable wire frame assembly, wherein the expandable wire frame assembly is configured to transition between a non-expanded state and an expanded state, and (ii) at least one flex circuit, wherein each flex circuit of the at least one flex circuit comprises: a flexible substrate secured to the expandable wire frame assembly and an electrode secured to the flexible substrate, wherein the expandable wire frame assembly in the expanded state is configured to urge the electrode into contact with tissue, a flexible substrate secured to the expandable wire frame assembly and an electrode secured to the flexible substrate, wherein the expandable wire frame assembly in the expanded state is configured to urge the electrode into contact with tissue,
A lumen support having a plurality of stable configurations, the lumen support comprising: one or more first annular segments and one or more second annular segments longitudinally arranged in an alternating pattern, wherein the annular segments comprise at least two open cells, each open cell comprising: a first strut having a first and a second end portion, a second strut having a first and a second end portion, a first pair of half struts positioned between and connected to the first end portion of the first strut and the first end portion of the second strut, the first pair of half struts defining a first inward facing apex, and a second pair of half struts positioned between and connected to the second end portion of the first strut and the second end portion of the second strut, the second pair of half struts defining a second inward facing apex that is adjacent to the first inward facing apex, characterised in that the inward facing apices each define an angled surface (222, 224), wherein the direction of the surface is angled with respect to the axial and to the circumferential direction of the lumen support, and the angled surface of the first inward facing apex is parallel to the angled surface of the second inward facing apex; wherein the at least two open cells of adjacent annular segments are connected by a connector so that they are circumferentially offset relative to each other. a first strut having a first and a second end portion, a second strut having a first and a second end portion, a first pair of half struts positioned between and connected to the first end portion of the first strut and the first end portion of the second strut, the first pair of half struts defining a first inward facing apex, and a second pair of half struts positioned between and connected to the second end portion of the first strut and the second end portion of the second strut, the second pair of half struts defining a second inward facing apex that is adjacent to the first inward facing apex, characterised in that the inward facing apices each define an angled surface (222, 224), wherein the direction of the surface is angled with respect to the axial and to the circumferential direction of the lumen support, and the angled surface of the first inward facing apex is parallel to the angled surface of the second inward facing apex; wherein the at least two open cells of adjacent annular segments are connected by a connector so that they are circumferentially offset relative to each other.
An optical liquid level detection sensor, the sensor comprising: a light source for emitting a light beam, a liquid contact surface, and a light detector, wherein the light source is arranged to emit a light beam towards the liquid contact surface, which liquid contact surface reflects or transmits the light beam in dependence of liquid being present on the liquid contact surface, and wherein the light detector is arranged to receive the light beam after reflection on the liquid contact surface, characterized in that, the sensor comprises an at least partially transparent ring element, wherein the liquid contact surface is formed by an outer surface of the ring element, wherein the sensor comprises a housing having two or more housing parts (5, 8), wherein sealing elements are arranged between sealing surfaces of the ring element and the two or more housing parts (5, 8), wherein the sealing surfaces of the ring element are formed by opposed planar surfaces of the ring element. a light source for emitting a light beam, a liquid contact surface, and a light detector, wherein the light source is arranged to emit a light beam towards the liquid contact surface, which liquid contact surface reflects or transmits the light beam in dependence of liquid being present on the liquid contact surface, and wherein the light detector is arranged to receive the light beam after reflection on the liquid contact surface, characterized in that, the sensor comprises an at least partially transparent ring element, wherein the liquid contact surface is formed by an outer surface of the ring element, wherein the sensor comprises a housing having two or more housing parts (5, 8), wherein sealing elements are arranged between sealing surfaces of the ring element and the two or more housing parts (5, 8), wherein the sealing surfaces of the ring element are formed by opposed planar surfaces of the ring element.
An antenna system, comprising: a first antenna configured to operate at a first frequency range, the first antenna having a substantially planar radiator, a first feed point and a first ground point; a second antenna, separate from the first antenna, configured to operate at a second frequency range, the second antenna having a substantially planar radiator, and a second feed point wherein the first and second frequency ranges have at least overlapping frequencies; a third antenna separate from the first and second antennas (300, 200), configured to operate at a third frequency range having frequencies lower than the second frequency range and the first frequency range, the third antenna having a substantially planar radiator, a third feed point and a ground point, wherein the radiator of the third antenna has a first section, a second section, and a connecting section connecting the first section to the second section, and wherein the radiator of the first antenna is located between the first section and the second section of the radiator of the third antenna and the second section of the radiator of the third antenna is located between the first antenna and the second antenna; and wherein the first section, the connecting section and the second section of the radiator of the third antenna are configured to form an open loop substantially surrounding at least three sides of the first antenna, wherein the first feed point is separate from the third feed point, and wherein the first ground point is separate from the ground point of the third antenna. a first antenna configured to operate at a first frequency range, the first antenna having a substantially planar radiator, a first feed point and a first ground point; a second antenna, separate from the first antenna, configured to operate at a second frequency range, the second antenna having a substantially planar radiator, and a second feed point wherein the first and second frequency ranges have at least overlapping frequencies; a third antenna separate from the first and second antennas (300, 200), configured to operate at a third frequency range having frequencies lower than the second frequency range and the first frequency range, the third antenna having a substantially planar radiator, a third feed point and a ground point, wherein the radiator of the third antenna has a first section, a second section, and a connecting section connecting the first section to the second section, and wherein the radiator of the first antenna is located between the first section and the second section of the radiator of the third antenna and the second section of the radiator of the third antenna is located between the first antenna and the second antenna; and wherein the first section, the connecting section and the second section of the radiator of the third antenna are configured to form an open loop substantially surrounding at least three sides of the first antenna,
An upper for securing to a sole structure to form an article of footwear, the upper comprising: a knitted component including a medial portion that at least partially forms a medial side of the upper, a lateral portion that at least partially forms a lateral side of the upper, and a throat portion located between the lateral portion and the medial portion, the throat portion configured to correspond with an upper surface of a foot of a wearer, the throat portion including two overlapping knit layers; a plurality of lace-receiving elements, each located on either the medial side or the lateral side of the upper; characterized by the knitted component defining a plurality of lace channels in the throat portion, each of the lace channels being oriented diagonally with respect to a longitudinal axis of the article of footwear, wherein the lace channels are located in the knitted component in a throat area corresponding to an instep region or upper surface of a midfoot region of the foot; wherein the lace channels are embedded within the throat portion of the knitted component and between the two overlapping knit layers; and wherein the lace channels are positioned and oriented such that two of the lace receiving elements are located adjacent to opposite ends of each of the lace channels, the lace channels substantially following a natural path of a lace passing between the lace receiving elements, and the lace extending through the lace channels. a knitted component including a medial portion that at least partially forms a medial side of the upper, a lateral portion that at least partially forms a lateral side of the upper, and a throat portion located between the lateral portion and the medial portion, the throat portion configured to correspond with an upper surface of a foot of a wearer, the throat portion including two overlapping knit layers; a plurality of lace-receiving elements, each located on either the medial side or the lateral side of the upper; characterized by the knitted component defining a plurality of lace channels in the throat portion, each of the lace channels being oriented diagonally with respect to a longitudinal axis of the article of footwear, wherein the lace channels are located in the knitted component in a throat area corresponding to an instep region or upper surface of a midfoot region of the foot; wherein the lace channels are embedded within the throat portion of the knitted component and between the two overlapping knit layers; and wherein the lace channels are positioned and oriented such that two of the lace receiving elements are located adjacent to opposite ends of each of the lace channels, the lace channels substantially following a natural path of a lace passing between the lace receiving elements, and the lace extending through the lace channels.
A method for performing linear or stepped gradient elution on a glatiramer acetate with a high-performance liquid chromatography and determining whether the content of each component of the glatiramer acetate is qualified, comprising the following steps: step: preparing a solution of the glatiramer acetate to be tested; step: performing gradient elution on a sample to be tested with a cation exchange liquid chromatography; step: determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range. step: preparing a solution of the glatiramer acetate to be tested; step: performing gradient elution on a sample to be tested with a cation exchange liquid chromatography; step: determining a peak area corresponding to each component of the glatiramer acetate, comparing the peak area with a peak area of a reference substance to determine whether the content of each component of the sample to be tested is in a qualified range.
A method performed by a user plane function, UPF, entity in a communication system, the method comprising: receiving, from a session management function, SMF, entity, a quality of service, QoS, flow identity, QFI, QoS parameter information, and a differentiated services code point, DSCP, value for a transport level packet marking for downlink data for a terminal; performing the transport level packet marking in an internet protocol, IP, header for the downlink data based on the DSCP value received from the SMF entity; and transmitting, to a base station, the downlink data with the IP header. receiving, from a session management function, SMF, entity, a quality of service, QoS, flow identity, QFI, QoS parameter information, and a differentiated services code point, DSCP, value for a transport level packet marking for downlink data for a terminal; performing the transport level packet marking in an internet protocol, IP, header for the downlink data based on the DSCP value received from the SMF entity; and transmitting, to a base station, the downlink data with the IP header.
A wiper arm comprising: an arm head having a pivot shaft section; an arm body including a pivot shaft hole into which said pivot shaft section is rotatably fit; and a spring member provided between said arm head and said arm body, said arm body including a gap section which reaches said pivot shaft hole so that a part of said spring member is disposed within said gap section when said arm body rotates around said pivot shaft section, characterised in that a recess is formed on said pivot shaft section and is disposed at a position corresponding to said gap section so that a part of said spring member is disposed within said recess when said arm body rotates around said pivot shaft section, wherein said arm body includes divided pieces (34, 35) separated by the gap section, wherein a reinforcing section for reinforcing mechanical strength of said divided pieces (34, 25) is provided between said divided pieces (34, 35), wherein said reinforcing section is disposed within said gap section and is in contact with said divided pieces (34, 35) on the both sides thereof, and wherein said reinforcing section is provided on said pivot shaft section. an arm head having a pivot shaft section; an arm body including a pivot shaft hole into which said pivot shaft section is rotatably fit; and a spring member provided between said arm head and said arm body, said arm body including a gap section which reaches said pivot shaft hole so that a part of said spring member is disposed within said gap section when said arm body rotates around said pivot shaft section, characterised in that a recess is formed on said pivot shaft section and is disposed at a position corresponding to said gap section so that a part of said spring member is disposed within said recess when said arm body rotates around said pivot shaft section, wherein said arm body includes divided pieces (34, 35) separated by the gap section, wherein a reinforcing section for reinforcing mechanical strength of said divided pieces (34, 25) is provided between said divided pieces (34, 35), wherein said reinforcing section is disposed within said gap section and is in contact with said divided pieces (34, 35) on the both sides thereof, and wherein said reinforcing section is provided on said pivot shaft section.