mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus comprising a coalescing removal separator including: a separator tank having a separator input (I) configured to receive a fluid (F) flowing through a system having entrained gas (G) and solid particles (P), having a tank wall (W) configured to form a volume or chamber (C) inside the separator tank to process the fluid (F), and having a separator output (O) configured to provide processed fluid (F P ) that is free of at least some of the entrained gas (G) and solid particles (P); a coalescing media arranged in the volume or chamber (C) of the separator tank , the coalescing media having a series of brushes substantially filling the volume/ or chamber (C) of the separator tank and being configured to enable the at least some of the entrained gas (G) and solid particles (P) to come out of the fluid (F); the separator tank has a top vent (V) configured to vent the entrained gas (G) from the separator tank and remove them from the system, and a bottom blow-down (BB) configured to remove the solid particles (P) from the separator tank and remove them from the system; and the coalescing media comprises top and bottom plates (P T , P B ) configured to couple together the series of brushes for arranging, placing or mounting the coalescing media inside the separator tank , characterized in that the coalescing media comprises a series of helically wound brushes each with a stem (S) and intertwined bristles (IB), and the top and bottom plates (P T , P B ) are configured to couple together the series of helically wound brushes . a separator tank having a separator input (I) configured to receive a fluid (F) flowing through a system having entrained gas (G) and solid particles (P), having a tank wall (W) configured to form a volume or chamber (C) inside the separator tank to process the fluid (F), and having a separator output (O) configured to provide processed fluid (F P ) that is free of at least some of the entrained gas (G) and solid particles (P); a coalescing media arranged in the volume or chamber (C) of the separator tank , the coalescing media having a series of brushes substantially filling the volume/ or chamber (C) of the separator tank and being configured to enable the at least some of the entrained gas (G) and solid particles (P) to come out of the fluid (F); the separator tank has a top vent (V) configured to vent the entrained gas (G) from the separator tank and remove them from the system, and a bottom blow-down (BB) configured to remove the solid particles (P) from the separator tank and remove them from the system; and the coalescing media comprises top and bottom plates (P T , P B ) configured to couple together the series of brushes for arranging, placing or mounting the coalescing media inside the separator tank , characterized in that the coalescing media comprises a series of helically wound brushes each with a stem (S) and intertwined bristles (IB), and the top and bottom plates (P T , P B ) are configured to couple together the series of helically wound brushes .
An inflatable antenna arrangement , comprising: an inflatable sock having an inflated state and a deflated state , wherein the inflatable sock is configured to assume an elongated inflated shape in the inflated state , an antenna extending along a length of the inflatable sock , and an attachment port configured for operable connection to an inflation mechanism, characterized in that the antenna within the inflated sock in the inflated state is configured to form a J-pole antenna. an inflatable sock having an inflated state and a deflated state , wherein the inflatable sock is configured to assume an elongated inflated shape in the inflated state , an antenna extending along a length of the inflatable sock , and an attachment port configured for operable connection to an inflation mechanism, characterized in that the antenna within the inflated sock in the inflated state is configured to form a J-pole antenna.
A method for preparing aliphatic polycarbonate polymers comprising the step of contacting one or more epoxides with a first catalyst capable of catalyzing the hydrolysis of epoxides and a second catalyst capable of catalyzing the copolymerization of epoxides and CO 2 , wherein: the first and second catalysts have different structures and are characterized in that the second catalyst, when used without the step of contacting the epoxide with the first catalyst exhibits an induction period, and that when the second catalyst is used with the step of contacting the epoxide with the first catalyst, this induction period is lessened or eliminated; the first catalyst comprises a transition metal complex; and the second catalyst comprises at least one tethered activating moiety selected from the group consisting of: an 'onium' group, a nitrogen-containing functional group, and a phosphorous-containing functional group. the first and second catalysts have different structures and are characterized in that the second catalyst, when used without the step of contacting the epoxide with the first catalyst exhibits an induction period, and that when the second catalyst is used with the step of contacting the epoxide with the first catalyst, this induction period is lessened or eliminated; the first catalyst comprises a transition metal complex; and the second catalyst comprises at least one tethered activating moiety selected from the group consisting of: an 'onium' group, a nitrogen-containing functional group, and a phosphorous-containing functional group.
An array substrate, comprising a substrate , a first metal layer (2; 100) disposed on the substrate, comprising a portion forming a gate electrode and a portion forming a first connection pattern electrically insulated from each other, a first insulating layer disposed on the substrate and over the gate electrode , wherein the first insulating layer comprises a first via-hole , the first connection pattern being disposed in the first via-hole , a second metal layer (3; 4; 102) disposed on the first insulating layer , comprising a portion forming a source electrode over the gate electrode , a portion forming a drain electrode over the gate electrode , and a portion forming a first electrical connection pattern , the portions being electrically insulated from each other, wherein the first electrical connection pattern is also formed in the first via-hole , a second insulating layer disposed on the first insulating layer and over the second metal layer (3; 4; 102), wherein the second insulating layer comprises a transition via-hole at a position corresponding to the first electrical connection pattern , and a first conductive layer (7; 101) disposed on the second insulating layer , comprising a portion forming a common electrode and a portion forming a fifth connection pattern , wherein the fifth connection pattern is also formed in the transition via-hole , wherein the first connection pattern is electrically connected to the fifth connection pattern at the first via-hole and the transition via-hole through the first electrical connection pattern , wherein the array substrate further comprises a second conductive layer , comprising a pixel electrode portion and a portion formed on the first connection pattern , electrically insulated from each other, wherein the pixel electrode portion is disposed on the first insulating layer and is connected to the drain electrode , and wherein the portion formed on the first connection pattern contacts the first electrical connection pattern in the first via-hole .
Tasimelteon for use in the treatment of delayed sleep time in an individual, said treatment comprising: determining or having determined from a biological sample of the individual that the individual has a GG genotype at the rs12188518 single nucleotide polymorphism (SNP) locus, or the individual has a CC genotype at the rs11248864 single nucleotide polymorphism (SNP) locus, wherein tasimelteon is administered once daily before a target bedtime; and wherein the treatment is effective to advance the sleep time of the individual. determining or having determined from a biological sample of the individual that the individual has a GG genotype at the rs12188518 single nucleotide polymorphism (SNP) locus, or the individual has a CC genotype at the rs11248864 single nucleotide polymorphism (SNP) locus, wherein tasimelteon is administered once daily before a target bedtime; and wherein the treatment is effective to advance the sleep time of the individual.
A method of manufacturing an openly and highly porous thermoset foam having a porosity of at least 70%, and wherein more than 75% of the pores in the foam are connected to a neighboring pore, the method comprising the steps of: i) mixing a thermosetting resin and crystals to form a mixture, wherein the crystals are present in a crystal: thermosetting resin weight ratio between 75:25 and 95:5; ii) applying pressure to the mixture to expel excess thermosetting resin, thereby producing a network of crystals touching each other with the thermosetting resin in the interstices between the crystals of said network; iii) curing the thermosetting resin in the mixture under said pressure to produce a cured material; and iv) contacting the cured material with a solvent for the crystals, thereby leaching the crystals out of the cured material and producing said openly and highly porous thermoset foam, wherein said pressure is between 15 MPa and 65 MPa. i) mixing a thermosetting resin and crystals to form a mixture, wherein the crystals are present in a crystal: thermosetting resin weight ratio between 75:25 and 95:5; ii) applying pressure to the mixture to expel excess thermosetting resin, thereby producing a network of crystals touching each other with the thermosetting resin in the interstices between the crystals of said network; iii) curing the thermosetting resin in the mixture under said pressure to produce a cured material; and iv) contacting the cured material with a solvent for the crystals, thereby leaching the crystals out of the cured material and producing said openly and highly porous thermoset foam,
Irradiation device for an apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, which irradiation device comprises at least one irradiation unit (6 - 8), preferably an optical unit, arranged in a housing of the irradiation device , wherein the irradiation device further comprises a stream generating device that is adapted to guide a gas stream that is adapted to be charged with residues present inside the housing through the housing of the irradiation device along a streaming path in which the gas stream at least partially streams alongside or through the at least one irradiation unit (6 - 8) for removing residues from the housing , wherein the streaming path at least partially extends from a bottom region to a top region of the housing , in particular from a floor to a ceiling of the housing .
A steering system for a vehicle equipped with a bodywork and with one single wheel at the front , this system including two triangular supports of a fork intended to be fastened to the ends of a steering tube disposed at the front of the framework of this vehicle, characterized in that it includes a fixed shaft intended to be adjusted into the steering tube , receiving at each side a triangular support via a bearing , this shaft successively receiving above the upper triangular support an axial stop , a fastening arm of the bodywork, then an upper axial tightening means fitted on the fixed shaft , which tightens the set carried by this shaft down to the lower triangular support .
Circuit arrangement , having: - a heat sink and - a layer arrangement , which is arranged on a surface of the heat sink and which has a first electrically insulating insulation layer and an electrically conductive conductor layer arranged on a side of the insulation layer facing away from the heat sink , wherein an electrical connecting path between two electrical connection regions is provided by the layer arrangement , - wherein the layer arrangement is formed by cold gas spraying of a respective material of one or some or each of the layers of the layer arrangement , - wherein the circuit arrangement also has a high-current load , which is arranged on the surface of the heat sink and which has an operating current greater than 10 A, - characterized in that , on the surface and between the high-current load on the one hand and the layer arrangement on the other hand, the heat sink has at least two material cutouts for thermal decoupling. - a heat sink and - a layer arrangement , which is arranged on a surface of the heat sink and which has a first electrically insulating insulation layer and an electrically conductive conductor layer arranged on a side of the insulation layer facing away from the heat sink , wherein an electrical connecting path between two electrical connection regions is provided by the layer arrangement , - wherein the layer arrangement is formed by cold gas spraying of a respective material of one or some or each of the layers of the layer arrangement , - wherein the circuit arrangement also has a high-current load , which is arranged on the surface of the heat sink and which has an operating current greater than 10 A, - characterized in that , on the surface and between the high-current load on the one hand and the layer arrangement on the other hand, the heat sink has at least two material cutouts for thermal decoupling.
An intraoral sensor for intraoral X-ray imaging, comprising: a sensor panel for generating electric signals from X-rays; a first case for covering a side of the sensor panel on which the X-rays are incident; and a housing for covering the sensor panel and the first case ; characterized in that the intraoral sensor further comprises: an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board (PCB) covering the elasticity adjustment member , wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis. a sensor panel for generating electric signals from X-rays; a first case for covering a side of the sensor panel on which the X-rays are incident; and a housing for covering the sensor panel and the first case ; characterized in that the intraoral sensor further comprises: an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board (PCB) covering the elasticity adjustment member , wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis. an elasticity adjustment member covering a side of the sensor panel that is opposite a side on which the X-ray incident; and a flexible printed circuit board (PCB) covering the elasticity adjustment member , wherein the intraoral sensor is bendable along an intraoral structure during an intraoral X-ray imaging, and has a first area corresponding to a center part along a major axis and a second area corresponding to remaining parts at both ends of the major axis, the first area and the second area are bending to different extents, wherein the elasticity adjustment member is formed to have greater bendability along the major axis of the intraoral sensor than along the minor axis.
A method of operation in a wireless communication device configured for operation in a wireless communication network , the method comprising: receiving (block 402) a resource identifier from a network node in the wireless communication network , the resource identifier comprising a resource identifying value; using (block 406) the resource identifying value to identify a corresponding frequency resource within an allocated bandwidth of the wireless communication device , if the resource identifier was received in a device-specific message; translating the resource identifying value and using (block 408) the translated resource identifying value to identify the corresponding frequency resource within the allocated bandwidth of the wireless communication device , if the resource identifier was received in a downlink control message transmitted by a base station in the wireless communication network on radio resources within a common search space used for sending downlink control messages to multiple wireless communication devices , wherein translating the resource identifying value comprises using mapping information that relates a first frequency resource referencing scheme to a second frequency resource referencing scheme; and receiving (block 410) on the corresponding frequency resource. receiving (block 402) a resource identifier from a network node in the wireless communication network , the resource identifier comprising a resource identifying value; using (block 406) the resource identifying value to identify a corresponding frequency resource within an allocated bandwidth of the wireless communication device , if the resource identifier was received in a device-specific message; translating the resource identifying value and using (block 408) the translated resource identifying value to identify the corresponding frequency resource within the allocated bandwidth of the wireless communication device , if the resource identifier was received in a downlink control message transmitted by a base station in the wireless communication network on radio resources within a common search space used for sending downlink control messages to multiple wireless communication devices , wherein translating the resource identifying value comprises using mapping information that relates a first frequency resource referencing scheme to a second frequency resource referencing scheme; and receiving (block 410) on the corresponding frequency resource.
A gas turbine engine comprising: an annular structure disposed around an engine central longitudinal axis of the gas turbine engine, wherein the annular structure defines an annular channel and comprises a first density; a weight-saving filler disposed within the annular channel, wherein the weight-saving filler comprises a second density that is less than the first density; and an annular retention strap disposed around the engine central longitudinal axis of the gas turbine engine, wherein the annular retention strap is at least partially embedded in the weight-saving filler ; characterised in that the annular channel faces radially outward, in that a radially outward surface of the weight-saving filler is configured to be exposed to airflow, and in that the annular structure is a flow splitter between flowpath streams. an annular structure disposed around an engine central longitudinal axis of the gas turbine engine, wherein the annular structure defines an annular channel and comprises a first density; a weight-saving filler disposed within the annular channel, wherein the weight-saving filler comprises a second density that is less than the first density; and an annular retention strap disposed around the engine central longitudinal axis of the gas turbine engine, wherein the annular retention strap is at least partially embedded in the weight-saving filler ; characterised in that the annular channel faces radially outward, in that a radially outward surface of the weight-saving filler is configured to be exposed to airflow, and in that the annular structure is a flow splitter between flowpath streams.
A method for connection/disconnection of an electric vehicle at a charging terminal (112-116;200), said terminal comprising at least one sensor means arranged in order to detect the state of at least one element of said charging terminal (112-116;200), said method comprising the following steps: - measuring , by said sensor means , at least one value of at least one parameter relating to the state of an element of said charging terminal, - comparing the value of said parameter with at least one predetermined value, and - reporting an anomaly, if the value is not equal to the predetermined value; said reporting step comprising transmitting one or more items of data to the vehicle, said item(s) of data being capable of controlling the triggering of an activation signal preventing the starting of the vehicle. - measuring , by said sensor means , at least one value of at least one parameter relating to the state of an element of said charging terminal, - comparing the value of said parameter with at least one predetermined value, and - reporting an anomaly, if the value is not equal to the predetermined value; said reporting step comprising transmitting one or more items of data to the vehicle, said item(s) of data being capable of controlling the triggering of an activation signal preventing the starting of the vehicle.