mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the production of singulated encapsulated components , with the following steps: - application of a frame structure (4, 4', 4", 4′′′) and a substrate surface of a substrate , wherein the frame structure (4, 4', 4", 4′′′) surrounds components arranged on the substrate surface , - bonding of a cover substrate and the frame structure (4, 4', 4", 4′′′), - curing of the frame structure (4, 4', 4", 4′′′), - singulation of the encapsulated components , wherein the frame structure (4, 4', 4", 4′′′) is formed from an adhesive, characterised in that the singulated encapsulated components are treated with plasma and/or reactive gas, wherein the plasma and/or gas treatment takes place after the curing of the frame structure, wherein a chemical conversion of the outer surface of the frame structure (4, 4', 4", 4′′′) takes place as a result of the plasma and/or gas treatment. - application of a frame structure (4, 4', 4", 4′′′) and a substrate surface of a substrate , wherein the frame structure (4, 4', 4", 4′′′) surrounds components arranged on the substrate surface , - bonding of a cover substrate and the frame structure (4, 4', 4", 4′′′), - curing of the frame structure (4, 4', 4", 4′′′), - singulation of the encapsulated components , wherein the frame structure (4, 4', 4", 4′′′) is formed from an adhesive, characterised in that the singulated encapsulated components are treated with plasma and/or reactive gas, wherein the plasma and/or gas treatment takes place after the curing of the frame structure, wherein a chemical conversion of the outer surface of the frame structure (4, 4', 4", 4′′′) takes place as a result of the plasma and/or gas treatment.
An aircraft propulsion system comprising: a fan mounted on a central shaft ; a first electric motor mounted on the central shaft and arranged to drive rotation of the fan via the central shaft; and a second electric motor arranged to drive rotation of the fan via the central shaft , wherein the second electric motor is coaxially mounted downstream of the first electric motor , characterised in that the system further comprises a nacelle surrounding the fan , the first electric motor , and the second electric motor ; and an inner fairing; wherein an outer diameter (D2) of the second electric motor is smaller than an outer diameter (D1) of the first electric motor , and the second electric motor is mounted at least partially within a tail cone portion of the inner fairing. a fan mounted on a central shaft ; a first electric motor mounted on the central shaft and arranged to drive rotation of the fan via the central shaft; and a second electric motor arranged to drive rotation of the fan via the central shaft , wherein the second electric motor is coaxially mounted downstream of the first electric motor , characterised in that the system further comprises a nacelle surrounding the fan , the first electric motor , and the second electric motor ; and an inner fairing; wherein an outer diameter (D2) of the second electric motor is smaller than an outer diameter (D1) of the first electric motor , and the second electric motor is mounted at least partially within a tail cone portion of the inner fairing.
A mechanical interlock pin assembly for a two-shot mold, comprising: a shaft having a first end and a second end ; a set of helical spline elements disposed at the first end of the shaft , the set of helical spline elements extending along a longitudinal axis of the shaft ; and a bearing rotatably coupled to the second end of the shaft , the bearing configured to allow rotation of the shaft between a first rotational position and a second rotational position relative to a mold cavity ; wherein the set of helical spline elements extend from a shoulder portion disposed at the first end of the shaft ; where an outer diameter of the set of helical spline elements is less than an outer diameter of the shoulder portion ; and wherein each spline element of the set of helical spline elements is disposed at a pitch of between about 2° and 30° relative to the longitudinal axis of the shaft . a shaft having a first end and a second end ; a set of helical spline elements disposed at the first end of the shaft , the set of helical spline elements extending along a longitudinal axis of the shaft ; and a bearing rotatably coupled to the second end of the shaft , the bearing configured to allow rotation of the shaft between a first rotational position and a second rotational position relative to a mold cavity ; wherein the set of helical spline elements extend from a shoulder portion disposed at the first end of the shaft ; where an outer diameter of the set of helical spline elements is less than an outer diameter of the shoulder portion ; and wherein each spline element of the set of helical spline elements is disposed at a pitch of between about 2° and 30° relative to the longitudinal axis of the shaft .
A transfer film comprising a substrate and a protective layer peelably provided on the substrate, wherein the protective layer comprises an active ray-cured resin and a filler; the active ray-cured resin contains a polyfunctional urethane (meth)acrylate as a polymerization component, wherein the active ray-cured resin is an active ray-curable resin subjected to curing by irradiation with active ray; and the filler has a volume average particle size of 40 nm or less, measured according to JIS-Z-8819-2.
A composition comprising a bacterial strain of the species Parabacteroides distasonis, for use in a method of treating or preventing an inflammatory disease, wherein the method comprises administration of the composition to the gastrointestinal tract.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, information indicating a first subcarrier spacing on a physical broadcast channel, PBCH; receiving, from the BS, system information for physical random access channel, PRACH, configuration by using the first subcarrier spacing, the system information including information indicating a second subcarrier spacing; transmitting, to the BS, a random access preamble of PRACH procedure by using the second subcarrier spacing; and receiving, from the BS, a random access response, RAR, of the PRACH procedure by using the first subcarrier spacing, wherein the first subcarrier spacing and the second subcarrier spacing are different from each other and are configured from the BS. receiving, from a base station, BS, information indicating a first subcarrier spacing on a physical broadcast channel, PBCH; receiving, from the BS, system information for physical random access channel, PRACH, configuration by using the first subcarrier spacing, the system information including information indicating a second subcarrier spacing; transmitting, to the BS, a random access preamble of PRACH procedure by using the second subcarrier spacing; and receiving, from the BS, a random access response, RAR, of the PRACH procedure by using the first subcarrier spacing, wherein the first subcarrier spacing and the second subcarrier spacing are different from each other and are configured from the BS.
A main nozzle for an air jet loom, comprising: a nozzle body ; a yarn inlet pipe mounted in the nozzle body to allow introduction of a weft yarn (Y); a passage forming pipe cooperating with an outer peripheral surface of an end portion of the yarn inlet pipe to form a passage of compressed air; an accelerator pipe disposed downstream of the passage forming pipe to accelerate the weft yarn (Y); a first holder holding the accelerator pipe ; a brush disposed in a passage of the compressed air between the passage forming pipe and the first holder to catch the weft yarn (Y) flowing back from the accelerator pipe ; and a second holder holding the brush and the first holder ; wherein the passage forming pipe has an end , characterized in that the end extends from the nozzle body , the second holder is replaceably fixed to the end , and the first holder is replaceably fixed to the second holder . a nozzle body ; a yarn inlet pipe mounted in the nozzle body to allow introduction of a weft yarn (Y); a passage forming pipe cooperating with an outer peripheral surface of an end portion of the yarn inlet pipe to form a passage of compressed air; an accelerator pipe disposed downstream of the passage forming pipe to accelerate the weft yarn (Y); a first holder holding the accelerator pipe ; a brush disposed in a passage of the compressed air between the passage forming pipe and the first holder to catch the weft yarn (Y) flowing back from the accelerator pipe ; and a second holder holding the brush and the first holder ; wherein the passage forming pipe has an end , characterized in that the end extends from the nozzle body , the second holder is replaceably fixed to the end , and the first holder is replaceably fixed to the second holder .
A communication device comprising: a control unit configured to allocate a resource area in which a resource is selectable by a terminal device that executes inter-device communication, and to provide information regarding a range of sensing of the resource area to the terminal device; characterized in that the control unit sets the range of sensing in accordance with at least one of: (a) a type of traffic communicated by the terminal device using the resource; (b) a level of priority of traffic communicated by the terminal device using the resource; (c) a movement speed of the terminal device; (d) position information of the terminal device; (e) a type of the terminal device; (f) a resource use situation of sidelink. a control unit configured to allocate a resource area in which a resource is selectable by a terminal device that executes inter-device communication, and to provide information regarding a range of sensing of the resource area to the terminal device; characterized in that the control unit sets the range of sensing in accordance with at least one of: (a) a type of traffic communicated by the terminal device using the resource; (b) a level of priority of traffic communicated by the terminal device using the resource; (c) a movement speed of the terminal device; (d) position information of the terminal device; (e) a type of the terminal device; (f) a resource use situation of sidelink. (a) a type of traffic communicated by the terminal device using the resource; (b) a level of priority of traffic communicated by the terminal device using the resource; (c) a movement speed of the terminal device; (d) position information of the terminal device; (e) a type of the terminal device; (f) a resource use situation of sidelink.
A polycarbonate block copolymer comprising, as repeating units, (A) a polyester block having a structure represented by the following chemical formula 1; and (B) a polycarbonate block derived from a polycarbonate oligomer prepared by a phosgene method using a dihydric phenol compound and phosgene: wherein, in the above chemical formula 1, R 1 independently represents hydrogen atom, alkyl, cycloalkyl, cycloalkylalkyl or aryl; X independently represents oxygen or NR 2 , where R 2 independently represents hydrogen atom, alkyl, cycloalkyl, cycloalkylalkyl or aryl; R 3 independently represents alkyl, cycloalkyl, cycloalkylalkyl or aryl; and m is independently an integer of 2 to 50. R 1 independently represents hydrogen atom, alkyl, cycloalkyl, cycloalkylalkyl or aryl; X independently represents oxygen or NR 2 , where R 2 independently represents hydrogen atom, alkyl, cycloalkyl, cycloalkylalkyl or aryl; R 3 independently represents alkyl, cycloalkyl, cycloalkylalkyl or aryl; and m is independently an integer of 2 to 50.
An optic , comprising: an input face ; a lower exterior surface defined by a parabolic segment rotated about an axis of symmetry , the parabolic segment comprising a part of a parabola with an optical axis tilted away from the axis of symmetry when travelling upward along the optical axis , wherein a bottom end of the lower exterior surface joins a perimeter of the input face ; an upper exterior surface above the lower exterior surface , the upper exterior surface being defined by a straight line rotated about the axis of symmetry , the straight line being tilted away from the axis of symmetry when travelling upward along the straight line ; an intermediate surface comprising an annulus, the annulus having an outer circumference that joins an upper end of the lower exterior surface and an inner circumference that joins a lower end of the upper exterior surface ; and an interior conical surface surrounded by the lower and the upper exterior surfaces , the interior conical surface being defined by a smooth curve rotated about the axis of symmetry , at least a majority of the smooth curve turning away from the axis of symmetry when travelling upward along the smooth curve , wherein: the interior conical surface has a vertex located at the axis of symmetry and within the lower exterior surface ; and top ends of the interior conical surface and the upper exterior surface join to define an output aperture . an input face ; a lower exterior surface defined by a parabolic segment rotated about an axis of symmetry , the parabolic segment comprising a part of a parabola with an optical axis tilted away from the axis of symmetry when travelling upward along the optical axis , wherein a bottom end of the lower exterior surface joins a perimeter of the input face ; an upper exterior surface above the lower exterior surface , the upper exterior surface being defined by a straight line rotated about the axis of symmetry , the straight line being tilted away from the axis of symmetry when travelling upward along the straight line ; an intermediate surface comprising an annulus, the annulus having an outer circumference that joins an upper end of the lower exterior surface and an inner circumference that joins a lower end of the upper exterior surface ; and an interior conical surface surrounded by the lower and the upper exterior surfaces , the interior conical surface being defined by a smooth curve rotated about the axis of symmetry , at least a majority of the smooth curve turning away from the axis of symmetry when travelling upward along the smooth curve , wherein: the interior conical surface has a vertex located at the axis of symmetry and within the lower exterior surface ; and top ends of the interior conical surface and the upper exterior surface join to define an output aperture . the interior conical surface has a vertex located at the axis of symmetry and within the lower exterior surface ; and top ends of the interior conical surface and the upper exterior surface join to define an output aperture .
A communication unit comprising: a unit main body ; a connection portion which is provided in the unit main body and connectable to a safety input device through a cable ; a first input and output portion which is provided at a first end on a connection portion side in the unit main body ; and characterized by a second input and output portion which is provided at a second end on a side opposite to the first end in the unit main body , wherein the first input and output portion and the second input and output portion are configured to be directly connected to each other when a plurality of the unit main bodies are connected to each other in series, and a notched portion forming a disposition space for a terminal on the connection portion side of the cable, provided at the second end of the unit main body . a unit main body ; a connection portion which is provided in the unit main body and connectable to a safety input device through a cable ; a first input and output portion which is provided at a first end on a connection portion side in the unit main body ; and characterized by a second input and output portion which is provided at a second end on a side opposite to the first end in the unit main body , wherein the first input and output portion and the second input and output portion are configured to be directly connected to each other when a plurality of the unit main bodies are connected to each other in series, and a notched portion forming a disposition space for a terminal on the connection portion side of the cable, provided at the second end of the unit main body .
A communications method, the method comprising: receiving an indicator of at least one subset of a plurality of communications resources from a communications controller, wherein the indicator comprises a plurality of bitmaps and each bitmap of the plurality of bitmaps indicates a different subset of the plurality of communications resources; and transmitting a report for each bitmap in the plurality of bitmaps to the communications controller , wherein the report comprises channel information associated with a measurement of signals transmitted in the subset; wherein the communications resources comprise subframes. receiving an indicator of at least one subset of a plurality of communications resources from a communications controller, wherein the indicator comprises a plurality of bitmaps and each bitmap of the plurality of bitmaps indicates a different subset of the plurality of communications resources; and transmitting a report for each bitmap in the plurality of bitmaps to the communications controller , wherein the report comprises channel information associated with a measurement of signals transmitted in the subset; wherein the communications resources comprise subframes.
A modular ceramic filter element comprising a first elongate hollow body , a second elongate hollow body and connection means for connecting the first elongate hollow body to the second elongate hollow body , characterised in that the connection means comprises a connection member in the form of a ring that extends axially into a lower wall of the first elongate hollow body and into the upper wall of the second elongate hollow body to provide a gas-tight seal between the first elongate hollow body and the second elongate hollow body .
A device for the metered dispensing of a liquid out of a container , in particular for dispensing a spray mist, comprising a main body for fastening to the container , a nozzle body with an outlet nozzle , wherein the nozzle body with respect to the main body is displaceably mounted from a dispensing position into a loaded position, a restoring spring for moving the nozzle body from the loaded position into the dispensing position, a valve body which with regard to the main body is displaceably mounted from a charging position into a discharging position, wherein a non-return valve is arranged in the valve body and wherein the valve body with the nozzle body forms a size-variable spray burst chamber , wherein the spray burst chamber is connected to the outlet nozzle . a main body for fastening to the container , a nozzle body with an outlet nozzle , wherein the nozzle body with respect to the main body is displaceably mounted from a dispensing position into a loaded position, a restoring spring for moving the nozzle body from the loaded position into the dispensing position, a valve body which with regard to the main body is displaceably mounted from a charging position into a discharging position, wherein a non-return valve is arranged in the valve body and wherein the valve body with the nozzle body forms a size-variable spray burst chamber , wherein the spray burst chamber is connected to the outlet nozzle .
A fuel injection amount control apparatus for an internal combustion engine , which performs exhaust gas recirculation, and is arranged for limiting a fuel injection amount (Q) required for the internal combustion engine based on a smoke limit fuel injection amount (QAFM) that is set according to an intake air amount for suppressing generation of smoke, comprising: limiting means for calculating an EGR smoke limit fuel injection amount (QAFMmin) which is permitted considering both an intake air amount and an exhaust gas recirculation amount including residual oxygen, based on an operating state of the internal combustion engine , characterized in that the limiting means calculates an EGR base smoke limit fuel injection amount (QAFMminbs) according to a rotational speed (NE) of the internal combustion engine , and obtains the EGR smoke limit fuel injection amount (QAFMmin) based on the EGR base smoke limit fuel injection amount (QAFMminbs), an exhaust gas recirculation rate, an atmospheric pressure, and a temperature factor, and limits the fuel injection amount (Q) required for the internal combustion engine based on the larger value of the EGR smoke limit fuel injection amount (QAFMmin) and the smoke limit fuel injection amount (QAFM). limiting means for calculating an EGR smoke limit fuel injection amount (QAFMmin) which is permitted considering both an intake air amount and an exhaust gas recirculation amount including residual oxygen, based on an operating state of the internal combustion engine , characterized in that the limiting means calculates an EGR base smoke limit fuel injection amount (QAFMminbs) according to a rotational speed (NE) of the internal combustion engine , and obtains the EGR smoke limit fuel injection amount (QAFMmin) based on the EGR base smoke limit fuel injection amount (QAFMminbs), an exhaust gas recirculation rate, an atmospheric pressure, and a temperature factor, and limits the fuel injection amount (Q) required for the internal combustion engine based on the larger value of the EGR smoke limit fuel injection amount (QAFMmin) and the smoke limit fuel injection amount (QAFM).