mhurhangee/patent-ind-claim-en huggingface dataset:
Machining head for a processing device, in particular for processing workpieces, preferably panel-formed workpieces, the workpieces preferably consisting at least partially of wood, wood-based materials, wood substitute materials, plastic or a combination thereof, comprising: a base body , at least one processing unit for holding a tool , a bearing device by means of which the processing unit is attached moveably to the base body , and a clamping device by means of which the processing unit is fixable and supportable relative to the base body , wherein the clamping device has a first clamping element provided on the base body side and a second clamping element provided on the processing unit side, and the two clamping elements are configured in such a way that they can be brought into a clamping state, at least in one defined position of the processing unit , characterised in that the clamping device has a holder body in which the first clamping element is mounted so as to be moveable in a translational manner in a closing direction (X, Y) of the first clamping element , wherein the holder body is mounted in a floating manner in a direction (Z) perpendicular to the closing direction (X, Y) of the first clamping element . a base body , at least one processing unit for holding a tool , a bearing device by means of which the processing unit is attached moveably to the base body , and a clamping device by means of which the processing unit is fixable and supportable relative to the base body , wherein the clamping device has a first clamping element provided on the base body side and a second clamping element provided on the processing unit side, and the two clamping elements are configured in such a way that they can be brought into a clamping state, at least in one defined position of the processing unit , characterised in that the clamping device has a holder body in which the first clamping element is mounted so as to be moveable in a translational manner in a closing direction (X, Y) of the first clamping element , wherein the holder body is mounted in a floating manner in a direction (Z) perpendicular to the closing direction (X, Y) of the first clamping element .
A coil module (M) for the production of a coil assembly having - a carrier , -- which has a polygonal basic shape (P) having a number N of corners (p 1 to p N ), wherein: 4 ≤ N ≤ 12, and wherein the polygonal basic shape (P) is rotationally symmetrical with an angle of 360°·2/N, -- which comprises a magnetic material, - a coil arranged on the carrier , wherein the carrier comprises side regions (S 1 to S N ), characterized in that a respective fastening element (B 1 , B 2 ) is arranged in at least two of the side regions (S 1 to S N ). - a carrier , -- which has a polygonal basic shape (P) having a number N of corners (p 1 to p N ), wherein: 4 ≤ N ≤ 12, and wherein the polygonal basic shape (P) is rotationally symmetrical with an angle of 360°·2/N, -- which comprises a magnetic material, -- which has a polygonal basic shape (P) having a number N of corners (p 1 to p N ), wherein: 4 ≤ N ≤ 12, and wherein the polygonal basic shape (P) is rotationally symmetrical with an angle of 360°·2/N, -- which comprises a magnetic material, - a coil arranged on the carrier ,
A cartridge tip for a liquid fuel cartridge of a gas turbine combustor the cartridge tip comprising: a main body comprising an outer annular wall and an inner core each extending between a respective upstream end and a respective downstream end , the inner core radially spaced apart from the outer annular wall such that an annular air passage is defined at least partially between the outer annular wall and the inner core ; a pilot fuel circuit defined in the inner core of the main body , the pilot fuel circuit extending between a pilot inlet defined in the upstream end of the inner core and a pilot outlet defined in the downstream end of the inner core , wherein the pilot fuel circuit extends at least partially along an axial centerline of the cartridge tip ; and a main fuel circuit defined in the inner core of the main body , the main fuel circuit extending between a main inlet in the upstream end of the inner core and a plurality of main outlets circumferentially spaced apart from one another and disposed upstream from the pilot outlet , characterized in that an annular heat shield extends from the outer annular wall within the annular air passage to a free end , wherein a downstream-flowing portion of the annular air passage is disposed between the heat shield and the inner core , and wherein an upstream-flowing portion of the annular air passage is disposed between the heat shield and the outer annular wall . a main body comprising an outer annular wall and an inner core each extending between a respective upstream end and a respective downstream end , the inner core radially spaced apart from the outer annular wall such that an annular air passage is defined at least partially between the outer annular wall and the inner core ; a pilot fuel circuit defined in the inner core of the main body , the pilot fuel circuit extending between a pilot inlet defined in the upstream end of the inner core and a pilot outlet defined in the downstream end of the inner core , wherein the pilot fuel circuit extends at least partially along an axial centerline of the cartridge tip ; and a main fuel circuit defined in the inner core of the main body , the main fuel circuit extending between a main inlet in the upstream end of the inner core and a plurality of main outlets circumferentially spaced apart from one another and disposed upstream from the pilot outlet , characterized in that an annular heat shield extends from the outer annular wall within the annular air passage to a free end , wherein a downstream-flowing portion of the annular air passage is disposed between the heat shield and the inner core , and wherein an upstream-flowing portion of the annular air passage is disposed between the heat shield and the outer annular wall .
A method for monitoring an unlicensed channel by a user equipment, UE, in a wireless communication network, the method comprising: receiving, from an evolved NodeB, eNB , measurement configuration on a licensed channel, the measurement configuration including information on Reference signal, RS, pattern and monitoring duration; monitoring the unlicensed channel based on the measurement configuration; receiving, from the eNB , a reference signal, RS, on the unlicensed channel corresponding to the measurement configuration; and measuring the unlicensed channel based on RS samples received within the monitoring duration, wherein the RS is at least one of primary synchronization signal, PSS, or secondary synchronization signal, SSS, and wherein, if a predetermined number of RSs are not received from the eNB during the monitoring duration, the monitoring duration is extended by receiving an indication of a second start time from the eNB . receiving, from an evolved NodeB, eNB , measurement configuration on a licensed channel, the measurement configuration including information on Reference signal, RS, pattern and monitoring duration; monitoring the unlicensed channel based on the measurement configuration; receiving, from the eNB , a reference signal, RS, on the unlicensed channel corresponding to the measurement configuration; and measuring the unlicensed channel based on RS samples received within the monitoring duration, wherein the RS is at least one of primary synchronization signal, PSS, or secondary synchronization signal, SSS, and wherein, if a predetermined number of RSs are not received from the eNB during the monitoring duration, the monitoring duration is extended by receiving an indication of a second start time from the eNB .
A bit interleaving method for interleaving bits of a codeword generated based on a repeat-accumulate quasi-cyclic low-density parity check coding scheme, the bit interleaving method comprising: a parity interleaving step of permuting parity bits of the codeword such that the parity bits have a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule includes a first rule and a second rule, the first rule being applied to N'=N-X cyclic blocks among the N cyclic blocks, the second rule being applied to X cyclic blocks that are the ones of the N cyclic blocks excluding the N' cyclic blocks, the first rule and the second rule differing from each other, where X is the remainder of N divided by M, and the first rule defines the reordering of the bits of the codeword, such that the Q bits in each of the N'=N-X cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words. a parity interleaving step of permuting parity bits of the codeword such that the parity bits have a quasi-cyclic structure; a bit permutation step of applying a bit permutation process to the codeword after the parity interleaving step, the codeword being made up of N cyclic blocks each consisting of Q bits, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is not a multiple of M, the bit permutation rule includes a first rule and a second rule, the first rule being applied to N'=N-X cyclic blocks among the N cyclic blocks, the second rule being applied to X cyclic blocks that are the ones of the N cyclic blocks excluding the N' cyclic blocks, the first rule and the second rule differing from each other, where X is the remainder of N divided by M, and the first rule defines the reordering of the bits of the codeword, such that the Q bits in each of the N'=N-X cyclic blocks are each allocated to a bit of an identical bit index in Q constellation words and said Q constellation words are each made up of one bit from each of M different cyclic blocks, said M different cyclic blocks being common to said Q constellation words.
A crosslinkable composition comprising an acrylic polymer; an ionic compound having an alkali metal cation; and a compound represented by Formula 1 below, wherein the acrylic polymer further comprises a crosslinkable functional group-containing monomer unit, wherein the crosslinkable functional group is a carboxyl group, wherein the crosslinkable composition further comprises an epoxy crosslinking agent or an aziridine crosslinking agent, wherein the crosslinkable composition does not include a metal chelate crosslinking agent and a metal-containing crosslinking catalyst, wherein the compound represented by Formula 1 below is contained in an amount of 0.01 to 30 parts by weight based on 100 parts by weight of the ionic compound: wherein, R 1 to R 4 are each independently a hydrogen atom or an alkyl group. wherein the acrylic polymer further comprises a crosslinkable functional group-containing monomer unit, wherein the crosslinkable functional group is a carboxyl group, wherein the crosslinkable composition further comprises an epoxy crosslinking agent or an aziridine crosslinking agent, wherein the crosslinkable composition does not include a metal chelate crosslinking agent and a metal-containing crosslinking catalyst, wherein the compound represented by Formula 1 below is contained in an amount of 0.01 to 30 parts by weight based on 100 parts by weight of the ionic compound: wherein, R 1 to R 4 are each independently a hydrogen atom or an alkyl group.
A total liquid ventilation system (S) configured to deliver a breathable liquid to the lungs of a mammal, the total liquid ventilation system comprising an inspiratory circuit , an expiratory circuit , and a breathable liquid treatment unit , the breathable liquid treatment unit comprising: - a gas injection system configured to inject a gas mixture into the breathable liquid, so as to obtain a two-phase mixture; - a heat exchange system configured to heat and/or cool the two-phase mixture, the heat exchange system comprising: • a backing device configured to provide mechanical support; • at least one plate configured to be at a controlled temperature; and • a bag located in between the at least one plate and the backing device , the bag comprising at least two opposite surfaces, a fluid inlet fluidly connected to the expiratory circuit , and a fluid outlet fluidly connected to the inspiratory circuit ; - a pumping system comprising a pump for circulating the two-phase mixture from the fluid inlet to the fluid outlet through the fluid duct ; and the backing device , the at least one plate , and the bag being configured to define a fluid duct extending between the fluid inlet and the fluid outlet of the bag , the fluid duct having a length which is larger than the distance between the fluid inlet and the fluid outlet . - a gas injection system configured to inject a gas mixture into the breathable liquid, so as to obtain a two-phase mixture; - a heat exchange system configured to heat and/or cool the two-phase mixture, the heat exchange system comprising: • a backing device configured to provide mechanical support; • at least one plate configured to be at a controlled temperature; and • a bag located in between the at least one plate and the backing device , the bag comprising at least two opposite surfaces, a fluid inlet fluidly connected to the expiratory circuit , and a fluid outlet fluidly connected to the inspiratory circuit ; • a backing device configured to provide mechanical support; • at least one plate configured to be at a controlled temperature; and • a bag located in between the at least one plate and the backing device , the bag comprising at least two opposite surfaces, a fluid inlet fluidly connected to the expiratory circuit , and a fluid outlet fluidly connected to the inspiratory circuit ; - a pumping system comprising a pump for circulating the two-phase mixture from the fluid inlet to the fluid outlet through the fluid duct ; and
A garment , comprising: a membrane formed of elastomeric material, preferably wherein the membrane embodies at least one of: a thong shape, a bikini shape, a legging shape, a capri pant shape, high thigh cut shape, a low-rise cut shape, a tanga shape, a cheeky shape, a boy short shape, and a boxer brief shape, the membrane including: a front portion ; a back portion ; an outer thigh portion on a right side of the membrane , an outer thigh portion on a left side of the membrane ; and a genital portion covering the vulva, perineum, anus, and groin of a wearer and extending to the back portion , wherein the front portion and the back portion of the membrane are joined via the outer thigh portion on the respective right and left sides of the membrane so as to form an opening at a top portion of the membrane , and wherein the front portion and the back portion of the membrane are joined via the genital portion , and each outer thigh portion of the respective right and left sides of the membrane are joined via the genital portion to form a respective opening on each of the right and left sides of the membrane; characterized in that the membrane thickness is less than 0.33 millimeters; and in that the genital portion has a width that extends past each of a respective inner thigh portion of a right and a left side, being adjacent to the respective outer thigh portion of the right and the left sides, so that an excess membrane material is configured to gather between a left outer side of the wearer's labia and the adjacent left thigh portion , and/or between a right outer side of the wearer's labia and the adjacent right thigh portion . a front portion ; a back portion ; an outer thigh portion on a right side of the membrane , an outer thigh portion on a left side of the membrane ; and a genital portion covering the vulva, perineum, anus, and groin of a wearer and extending to the back portion , wherein the front portion and the back portion of the membrane are joined via the outer thigh portion on the respective right and left sides of the membrane so as to form an opening at a top portion of the membrane , and wherein the front portion and the back portion of the membrane are joined via the genital portion , and each outer thigh portion of the respective right and left sides of the membrane are joined via the genital portion to form a respective opening on each of the right and left sides of the membrane; characterized in that the membrane thickness is less than 0.33 millimeters; and in that the genital portion has a width that extends past each of a respective inner thigh portion of a right and a left side, being adjacent to the respective outer thigh portion of the right and the left sides, so that an excess membrane material is configured to gather between a left outer side of the wearer's labia and the adjacent left thigh portion , and/or between a right outer side of the wearer's labia and the adjacent right thigh portion .
A method for micrositing a wind farm having a plurality of wind turbines via a loads optimization function , the method comprising: (a) determining one or more wind directions with or without turbine shadow for each of the wind turbines in the wind farm ; (b) determining at least one additional wind parameter for each of the wind directions; (c) calculating , via simulation using a loads optimization loop that can rerun the loads optimization function one or more times, loads for each of the wind turbines in the wind farm based on the identified wind directions with or without turbine shadow for each of the wind turbines in the wind farm and the at least one additional wind parameter for each of the wind directions, wherein the loads optimization function corresponds to equation ∑ i = cut in cut out Number of Hours i ( Wind Speed i + TI i Wind Speed i 2 , where TI is a turbulence intensity, Number of Hours is a number of hours of operation of the wind turbines at different wind directions, Cut In is a cut in wind speed, and Cut Out is a cut out wind speed; and (d) determining a site layout for the wind farm based on the calculated loads. (a) determining one or more wind directions with or without turbine shadow for each of the wind turbines in the wind farm ; (b) determining at least one additional wind parameter for each of the wind directions; (c) calculating , via simulation using a loads optimization loop that can rerun the loads optimization function one or more times, loads for each of the wind turbines in the wind farm based on the identified wind directions with or without turbine shadow for each of the wind turbines in the wind farm and the at least one additional wind parameter for each of the wind directions, wherein the loads optimization function corresponds to equation ∑ i = cut in cut out Number of Hours i ( Wind Speed i + TI i Wind Speed i 2 , where TI is a turbulence intensity, Number of Hours is a number of hours of operation of the wind turbines at different wind directions, Cut In is a cut in wind speed, and Cut Out is a cut out wind speed; and (d) determining a site layout for the wind farm based on the calculated loads.
A data sending method, comprising: receiving (S101), by a first microwave device, a common public radio interface, CPRI, frame, and obtaining (S102) a control word, CW, and a first antenna-carrier, AxC, from the CPRI frame; modulating (S103), by the first microwave device, the CW to obtain in-phase/quadrature, I/Q, data of the CW; determining (S104), by the first microwave device, a first timeslot, wherein the first timeslot is a timeslot in which the first AxC does not carry antenna-carrier I/Q data; writing (S105), by the first microwave device, a preset synchronization sequence, first information, and a random number in the first timeslot to generate a second AxC, wherein the first information comprises at least one of a preset channel estimate or a preset radio frequency weighted matrix of the first microwave device; and combining (S106), by the first microwave device, the second AxC with the I/Q data of the CW to generate a microwave air interface frame, and sending the microwave air interface frame in a time division multiplexing manner. receiving (S101), by a first microwave device, a common public radio interface, CPRI, frame, and obtaining (S102) a control word, CW, and a first antenna-carrier, AxC, from the CPRI frame; modulating (S103), by the first microwave device, the CW to obtain in-phase/quadrature, I/Q, data of the CW; determining (S104), by the first microwave device, a first timeslot, wherein the first timeslot is a timeslot in which the first AxC does not carry antenna-carrier I/Q data; writing (S105), by the first microwave device, a preset synchronization sequence, first information, and a random number in the first timeslot to generate a second AxC, wherein the first information comprises at least one of a preset channel estimate or a preset radio frequency weighted matrix of the first microwave device; and combining (S106), by the first microwave device, the second AxC with the I/Q data of the CW to generate a microwave air interface frame, and sending the microwave air interface frame in a time division multiplexing manner.