mhurhangee/patent-ind-claim-en huggingface dataset:
Brewing device for extracting from a portion capsule , having a receiving element and a closure element , wherein the receiving element has a cavity for receiving the portion capsule and wherein the receiving element and the closure element are transferable along a longitudinal axis between a loading position , in which the receiving element and the closure element are spaced apart from one another, and an extraction position , in which the cavity is closed by the closure element so as to form a brewing chamber , wherein the receiving element has an outlet channel for discharging liquid from the brewing chamber , said outlet channel leading into the cavity in a bottom region of the cavity , characterized in that the mouth of the outlet channel is spaced apart from a wall , adjoining the bottom region , of the cavity , wherein a perforation means for perforating the capsule bottom is arranged in the centre of the bottom region , wherein an annular channel is formed around the perforation means in the bottom region , wherein a radial channel is formed in the bottom region , said radial channel extending perpendicularly to the longitudinal axis from the annular channel to the mouth of the outlet channel .
A method of configuring communication of data points from producers (31-33) of data points of an industrial automation control system, power distribution system, power generation system, and/or power transmission system to at least one consumer (51, 52; 83, 84, 90) of data points, the method comprising: receiving, by a configuration device , information on required data points, the required data points being a subset of all available data points and being the set of data points required by the at least one consumer (51, 52; 83, 84, 90) of data points; automatically determining, by the configuration device , a communication configuration of data points for transmission of the required data points from the producers (31-33) to the at least one consumer (51, 52; 83, 84, 90), comprising determining a transmission path for each of the required data points, based on protocols supported by the producers (31-33), the at least one consumer (51, 52; 83, 84, 90), and nodes traversed on the transmission path from a producer (31-33) to the at least one consumer (51, 52; 83, 84, 90); and automatically generating and outputting, by the configuration device , configuration data for the producer (31-33) of a required data point. receiving, by a configuration device , information on required data points, the required data points being a subset of all available data points and being the set of data points required by the at least one consumer (51, 52; 83, 84, 90) of data points; automatically determining, by the configuration device , a communication configuration of data points for transmission of the required data points from the producers (31-33) to the at least one consumer (51, 52; 83, 84, 90), comprising determining a transmission path for each of the required data points, based on protocols supported by the producers (31-33), the at least one consumer (51, 52; 83, 84, 90), and nodes traversed on the transmission path from a producer (31-33) to the at least one consumer (51, 52; 83, 84, 90); and automatically generating and outputting, by the configuration device , configuration data for the producer (31-33) of a required data point.
A high-frequency module comprising: a wiring substrate ; a high-frequency circuit including circuit components disposed on an upper surface of the wiring substrate ; a post disposed on the upper surface of the wiring substrate and made of a metal; a sealing resin covering the circuit components and the post ; and an antenna substrate disposed on an upper surface of the sealing resin and having an antenna formed by a metal pattern , characterised in that a groove is provided in the sealing resin , and the post is formed in a U cross-sectional shape and a central surface and two opposing side wall surfaces of the post form parts of a bottom portion and side wall portions of the groove , wherein the post is connected to the high-frequency circuit by a wiring pattern, a conductive adhesive is bonded to the central surface and the two side wall surfaces of the post and the antenna , a side through hole is provided in a side surface of the antenna substrate , and an electrode portion is formed in the side through hole , and the electrode portion is connected to the post by the conductive adhesive . a wiring substrate ; a high-frequency circuit including circuit components disposed on an upper surface of the wiring substrate ; a post disposed on the upper surface of the wiring substrate and made of a metal; a sealing resin covering the circuit components and the post ; and an antenna substrate disposed on an upper surface of the sealing resin and having an antenna formed by a metal pattern , characterised in that a groove is provided in the sealing resin , and the post is formed in a U cross-sectional shape and a central surface and two opposing side wall surfaces of the post form parts of a bottom portion and side wall portions of the groove , wherein the post is connected to the high-frequency circuit by a wiring pattern, a conductive adhesive is bonded to the central surface and the two side wall surfaces of the post and the antenna , a side through hole is provided in a side surface of the antenna substrate , and an electrode portion is formed in the side through hole , and the electrode portion is connected to the post by the conductive adhesive .
A bowed rotor start mitigation system comprising: a gas turbine engine comprising an air turbine starter ; a variable position starter valve fluidly connected to the air turbine starter ; and a controller configured to dynamically adjust the variable position starter valve to deliver a starter air supply to the air turbine starter to drive rotation of a starting spool of the gas turbine engine according to a dry motoring profile that continuously increases a rotor speed of the starting spool to approach a critical rotor speed gradually while bowed rotor start mitigation is active, wherein the critical rotor speed refers to a major resonance speed of the starting spool , wherein the controller monitors the rotor speed and dynamically adjusts a valve angle of the variable position starter valve to maintain the rotor speed along a target rotor speed profile defined in the dry motoring profile that drives the rotor speed to a set value and accelerates the rotor speed through the critical rotor speed; and wherein the target rotor speed profile in the dry motoring profile maintains a positive slope while bowed rotor start mitigation is active. a gas turbine engine comprising an air turbine starter ; a variable position starter valve fluidly connected to the air turbine starter ; and a controller configured to dynamically adjust the variable position starter valve to deliver a starter air supply to the air turbine starter to drive rotation of a starting spool of the gas turbine engine according to a dry motoring profile that continuously increases a rotor speed of the starting spool to approach a critical rotor speed gradually while bowed rotor start mitigation is active, wherein the critical rotor speed refers to a major resonance speed of the starting spool , wherein the controller monitors the rotor speed and dynamically adjusts a valve angle of the variable position starter valve to maintain the rotor speed along a target rotor speed profile defined in the dry motoring profile that drives the rotor speed to a set value and accelerates the rotor speed through the critical rotor speed; and wherein the target rotor speed profile in the dry motoring profile maintains a positive slope while bowed rotor start mitigation is active.
A unit for use with an iron including a soleplate , wherein the soleplate comprises an induction heatable material, whereby the unit includes at least one induction coil and a device , wherein said induction coil is configured for charging said iron , whereby said device is configured for detecting a temperature of said soleplate by sensing a change in current flowing through said induction coil or by sensing a change in voltage across said induction coil , said change in current or voltage being caused by a change in self inductance of said induction coil , said change in self inductance further being caused by a change in magnetic permeability of said soleplate as a function of its temperature, said device being further configured for switching said induction coil on or off depending on the temperature.
A movable aerodynamic surface for an aircraft , comprising a skin extending in a span direction from an inboard end to an outboard end and extending in a chord direction from a leading edge to a trailing edge , wherein the skin includes a first skin portion and a second skin portion both extending from the leading edge to the trailing edge and together surrounding an interior from opposite sides, and a stiffener arrangement arranged in the interior for stiffening the first and second skin portions and including at least an inboard stiffener in the area of the inboard end and/or an outboard stiffener in the area of the outboard end , wherein at the inboard end between the first skin portion , the second skin portion and the inboard stiffener an inboard cavity is formed, and/or at the outboard end between the first skin portion , the second skin portion and the outboard stiffener an outboard cavity is formed, wherein an acoustic filler arrangement including multiple filler elements is arranged within the inboard cavity and/or the outboard cavity for reducing noise generated at the inboard cavity and/or at the outboard cavity, wherein the acoustic filler arrangement has a hybrid form including at least one first type filler element with a smooth outer surface and at least one second type filler element (43") with a porous outer surface . a skin extending in a span direction from an inboard end to an outboard end and extending in a chord direction from a leading edge to a trailing edge , wherein the skin includes a first skin portion and a second skin portion both extending from the leading edge to the trailing edge and together surrounding an interior from opposite sides, and a stiffener arrangement arranged in the interior for stiffening the first and second skin portions and including at least an inboard stiffener in the area of the inboard end and/or an outboard stiffener in the area of the outboard end , wherein at the inboard end between the first skin portion , the second skin portion and the inboard stiffener an inboard cavity is formed, and/or at the outboard end between the first skin portion , the second skin portion and the outboard stiffener an outboard cavity is formed, wherein an acoustic filler arrangement including multiple filler elements is arranged within the inboard cavity and/or the outboard cavity for reducing noise generated at the inboard cavity and/or at the outboard cavity, wherein the acoustic filler arrangement has a hybrid form including at least one first type filler element with a smooth outer surface and at least one second type filler element (43") with a porous outer surface .
Process of recycling a polyethylene composition (P), wherein the recycled polyethylene composition (P) comprises: a) at least 50 weight% of recycled polyethylene (A), and b) 0.5 to 15 weight% of an ethylene copolymer (B) comprising hydrolysable silicon-containing groups, compounding said recycled polyethylene composition (P), wherein the recycled polyethylene composition (P) treated by 0.5 to 15 weight% of an ethylene copolymer (B) comprising hydrolysable silicon-containing groups has at least 15% lower MFR 2 , as determined according to ISO 1133 at a temperature of 190°C and a load of 2.16 kg, compared to the recycled polyethylene (A). a) at least 50 weight% of recycled polyethylene (A), and b) 0.5 to 15 weight% of an ethylene copolymer (B) comprising hydrolysable silicon-containing groups, compounding said recycled polyethylene composition (P), wherein the recycled polyethylene composition (P) treated by 0.5 to 15 weight% of an ethylene copolymer (B) comprising hydrolysable silicon-containing groups has at least 15% lower MFR 2 , as determined according to ISO 1133 at a temperature of 190°C and a load of 2.16 kg, compared to the recycled polyethylene (A).
A variant operon comprising a genetically modified accBC promoter controlling the expression of a biotin carboxyl carrier protein (BCCP), wherein said promoter is selected from any one of SEQ ID NOS: 93, 94, 95, and 96, wherein said operon results in an increase in BCCP expression in a recombinant microbial cell as compared to a wild type microbial cell, and wherein said operon confers to said recombinant microbial cell an improved production of a malonyl-CoA-derived compound when compared to the corresponding wild type microbial cell.
A method of operation of a wireless device for random access to a cellular communications network , comprising: determining a number of resources needed for the wireless device to successfully decode an information block received from a radio access node of the cellular communications network ; determining (206/208, 302/304) at least one of: (a) a code rate used for transmission of the information block by the radio access node and (b) a transmit power used by the radio access node for transmission of the information block; and determining an amount of resources to be used by the wireless device when transmitting a random access signal for a random access procedure based on: (i) the number of resources needed for the wireless device to successfully decode the information block and (ii) the at least one of: (a) the code rate used for transmission of the information block by the radio access node and (b) the transmit power used by the radio access node for transmission of the information block. determining a number of resources needed for the wireless device to successfully decode an information block received from a radio access node of the cellular communications network ; determining (206/208, 302/304) at least one of: (a) a code rate used for transmission of the information block by the radio access node and (b) a transmit power used by the radio access node for transmission of the information block; and determining an amount of resources to be used by the wireless device when transmitting a random access signal for a random access procedure based on: (i) the number of resources needed for the wireless device to successfully decode the information block and (ii) the at least one of: (a) the code rate used for transmission of the information block by the radio access node and (b) the transmit power used by the radio access node for transmission of the information block.
A seal system (100; 200) comprising: a first member ; a seal carried by the first member and having a seal face ; and a second member rotatable relative to the first member about an axis and having: a seat (112; 212), the seat (112; 212) having a seat face in sliding sealing engagement with the seal face ; and a circumferential array of passageway legs , wherein: the second member further comprises an annular channel axially spaced from the seat face , the passageway legs connected to the annular channel ; and the annular channel has a first surface axially diverging from the seat face in an outward radial direction ; characterised in that : the passageway legs and the annular channel are in a first piece ; and the annular channel has a second surface axially diverging from the first surface in the outward radial direction by 1.0° to 10.0°. a first member ; a seal carried by the first member and having a seal face ; and a second member rotatable relative to the first member about an axis and having: a seat (112; 212), the seat (112; 212) having a seat face in sliding sealing engagement with the seal face ; and a circumferential array of passageway legs , a seat (112; 212), the seat (112; 212) having a seat face in sliding sealing engagement with the seal face ; and a circumferential array of passageway legs , the second member further comprises an annular channel axially spaced from the seat face , the passageway legs connected to the annular channel ; and the annular channel has a first surface axially diverging from the seat face in an outward radial direction ; characterised in that : the passageway legs and the annular channel are in a first piece ; and the annular channel has a second surface axially diverging from the first surface in the outward radial direction by 1.0° to 10.0°. the passageway legs and the annular channel are in a first piece ; and the annular channel has a second surface axially diverging from the first surface in the outward radial direction by 1.0° to 10.0°.
A flat hydraulic cylinder comprising a housing which has a first force transmission surface , a second force transmission surface and a housing wall , wherein the second force transmission surface is arranged variably in spacing relative to the first force transmission surface, and a hydraulic connection for the inlet and outlet of hydraulic fluid into and out of the housing, wherein the housing wall and the first and second force transmission surfaces form a one-piece pressure cushion, wherein the two force transmission surfaces be arranged in immediately adjacent relationship with each other in the pressure-less condition, and characterised in that the housing wall is formed in the configuration of a bellows from a plurality of stacked plates (15, 15', 15");
An onboard powertrain for an automated guided vehicle, AGV, the onboard powertrain comprising: - a split-source inverter, SSI, having a plurality of electrical phases (V a , V b , V c ), such as three electrical phases (Va, Vb, Vc), having at least one middle point pole, a separate positive DC-Link pole per phase of the SSI and a common negative DC-link pole; and - a battery and an inductor connected in series between the common negative DC-link pole and the middle point pole; characterized by a supercapacitor per electrical phase (V a , V b , V c ) of the SSI, each connected between the common negative DC-link pole for the SSI and the separate positive DC-link pole per phase of the SSI. - a split-source inverter, SSI, having a plurality of electrical phases (V a , V b , V c ), such as three electrical phases (Va, Vb, Vc), having at least one middle point pole, a separate positive DC-Link pole per phase of the SSI and a common negative DC-link pole; and - a battery and an inductor connected in series between the common negative DC-link pole and the middle point pole;
A method of identifying an Aspergillus terreus fungal species in a patient tissue or a patient body fluid, the method comprising the steps of: isolating the DNA from the patient tissue or the patient body fluid, wherein the DNA comprises host DNA and DNA of the Aspergillus terreus fungal species; amplifying the DNA, wherein the DNA comprises a nucleic acid complementary to a probe, and wherein said probe consists of a sequence of SEQ ID NO:1; hybridizing the probe to the DNA to specifically identify the fungal species; and specifically identifying the Aspergillus terreus fungal species. isolating the DNA from the patient tissue or the patient body fluid, wherein the DNA comprises host DNA and DNA of the Aspergillus terreus fungal species; amplifying the DNA, wherein the DNA comprises a nucleic acid complementary to a probe, and wherein said probe consists of a sequence of SEQ ID NO:1; hybridizing the probe to the DNA to specifically identify the fungal species; and specifically identifying the Aspergillus terreus fungal species.
A welding method of welding end portions of a first member and a second member with first laser light (L1) irradiated by a laser device , the welding method comprising: arranging the end portions of the first member and the second member next to each other facing an end surface of the end portions of the first member and the second member faces towards the laser device ; performing rotational irradiation to the end surface of the end portions of the first member and the second member with the first laser light (L1) at a predetermined rotating diameter, characterized in that a spot diameter of the first laser light (L1) is set to be equal to or larger than the rotating diameter, and in that an irradiation region of the first laser light (L1) by the rotational irradiation is set to extend over the first member and the second member . arranging the end portions of the first member and the second member next to each other facing an end surface of the end portions of the first member and the second member faces towards the laser device ; performing rotational irradiation to the end surface of the end portions of the first member and the second member with the first laser light (L1) at a predetermined rotating diameter, characterized in that a spot diameter of the first laser light (L1) is set to be equal to or larger than the rotating diameter, and in that an irradiation region of the first laser light (L1) by the rotational irradiation is set to extend over the first member and the second member .
A clock recovery apparatus for a plurality of data channels, the apparatus comprising: a plurality of channel blocks, each channel block comprising: a frequency detection block (320_1, 320_2, 320_3, 320_4) configured to generate an intermediate signal (I_1, I_2, I_3, I_4) based on a respective data signal (RD_1, RD_2, RD_3, RD_4) received from a respective data channel and a global clock signal (G_SIG), the intermediate signal (I_1, I_2, I_3, I_4) representing a frequency difference between a reference signal (RS_1, RS_2, RS_3, RS_4) derived from the respective data signal (RD_1, RD_2, RD_3, RD_4) and a feedback signal (FS_1, FS_2, FS_3, FS_4) derived from the global clock signal (G_SIG); and a recovery block (350_1, 350_2, 350_3, 350_4) configured to recover a clock signal (C_1, C_2, C_3, C_4) for the respective data channel in response to the respective data signal (RD_1, RD_2, RD_3, RD_4) and the global clock signal (G_SIG); and the clock recovery apparatus further comprising a global clock signal generation block configured to receive and combine the intermediate signals (I_1, I_2, I_3, I_4) from the plurality of channel blocks to generate the global clock signal (G_SIG). a frequency detection block (320_1, 320_2, 320_3, 320_4) configured to generate an intermediate signal (I_1, I_2, I_3, I_4) based on a respective data signal (RD_1, RD_2, RD_3, RD_4) received from a respective data channel and a global clock signal (G_SIG), the intermediate signal (I_1, I_2, I_3, I_4) representing a frequency difference between a reference signal (RS_1, RS_2, RS_3, RS_4) derived from the respective data signal (RD_1, RD_2, RD_3, RD_4) and a feedback signal (FS_1, FS_2, FS_3, FS_4) derived from the global clock signal (G_SIG); and a recovery block (350_1, 350_2, 350_3, 350_4) configured to recover a clock signal (C_1, C_2, C_3, C_4) for the respective data channel in response to the respective data signal (RD_1, RD_2, RD_3, RD_4) and the global clock signal (G_SIG); and the clock recovery apparatus further comprising a global clock signal generation block configured to receive and combine the intermediate signals (I_1, I_2, I_3, I_4) from the plurality of channel blocks to generate the global clock signal (G_SIG).