mhurhangee/patent-ind-claim-en huggingface dataset:
A solvent borne coating composition comprising a) an auto-oxidisable alkyd binder; b) silica particles; c) a curing accelerator, wherein the curing accelerator comprises: (i) a manganese ion-containing salt or an iron ion-containing salt; and (ii) an organic ligand suitable for stabilising the manganese ion-containing salt or the iron ion-containing salt, the organic ligand comprising at least two nitrogen atoms and at least two hydroxyl groups; and d) solvent. a) an auto-oxidisable alkyd binder; b) silica particles; c) a curing accelerator, wherein the curing accelerator comprises: (i) a manganese ion-containing salt or an iron ion-containing salt; and (ii) an organic ligand suitable for stabilising the manganese ion-containing salt or the iron ion-containing salt, the organic ligand comprising at least two nitrogen atoms and at least two hydroxyl groups; and (i) a manganese ion-containing salt or an iron ion-containing salt; and (ii) an organic ligand suitable for stabilising the manganese ion-containing salt or the iron ion-containing salt, the organic ligand comprising at least two nitrogen atoms and at least two hydroxyl groups; and d) solvent.
A three-dimensional printing method, comprising: receiving print data defining patterns of a fusing agent to be applied to a layer of powder build material, wherein the patterns are at least partially based on a 3D model of at least one object to be generated; processing the print data to determine regions which are distant from said patterns, including: evaluating an open space around the at least one object to be printed to find vacant volumes in the 3D model data; generating at least one fracture volume within the vacant volumes in the 3D model data, which is spaced apart from the at least one object to be printed, wherein the cross section of the fracture volume is to contain a detailing agent which reduces or prevents fusing of the powder build material when exposed to radiation thereby generating at least one detailing portion of the build material; and modifying the print data to add a further pattern of the detailing agent to be selectively applied to the layer of powder build material, wherein said further pattern comprises the at least one detailing portion of the build material, to generate fracture regions in a processed volume of powder build material. receiving print data defining patterns of a fusing agent to be applied to a layer of powder build material, wherein the patterns are at least partially based on a 3D model of at least one object to be generated; processing the print data to determine regions which are distant from said patterns, including: evaluating an open space around the at least one object to be printed to find vacant volumes in the 3D model data; generating at least one fracture volume within the vacant volumes in the 3D model data, which is spaced apart from the at least one object to be printed, wherein the cross section of the fracture volume is to contain a detailing agent which reduces or prevents fusing of the powder build material when exposed to radiation thereby generating at least one detailing portion of the build material; and modifying the print data to add a further pattern of the detailing agent to be selectively applied to the layer of powder build material, wherein said further pattern comprises the at least one detailing portion of the build material, to generate fracture regions in a processed volume of powder build material. evaluating an open space around the at least one object to be printed to find vacant volumes in the 3D model data; generating at least one fracture volume within the vacant volumes in the 3D model data, which is spaced apart from the at least one object to be printed, wherein the cross section of the fracture volume is to contain a detailing agent which reduces or prevents fusing of the powder build material when exposed to radiation thereby generating at least one detailing portion of the build material; and modifying the print data to add a further pattern of the detailing agent to be selectively applied to the layer of powder build material, wherein said further pattern comprises the at least one detailing portion of the build material, to generate fracture regions in a processed volume of powder build material.
A method for receiving a downlink signal through an Enhanced Physical Downlink Control Channel, EPDCCH, in a wireless communication system by a user equipment, UE, the method comprising: receiving one or more EPDCCH Physical Resource Block, PRB, sets; and performing blind decoding of an EPDCCH candidate for each aggregation level in the one or more EPDCCH PRB sets, characterized in that : for the EPDCCH PRB set having the index 0, an antenna port related to the EPDCCH candidate is decided to be one of 107 to 110 by using a value satisfying the following expression, n ECCE . low + n RNTI mod N ECCE , where, n ECCE.low is a lowest enhanced control channel element, ECCE, index of the EPDCCH candidate, n RNTI is a cell-temporary radio network temporary identifier, N ECCE is a number of ECCEs. receiving one or more EPDCCH Physical Resource Block, PRB, sets; and performing blind decoding of an EPDCCH candidate for each aggregation level in the one or more EPDCCH PRB sets, characterized in that : for the EPDCCH PRB set having the index 0, an antenna port related to the EPDCCH candidate is decided to be one of 107 to 110 by using a value satisfying the following expression, n ECCE . low + n RNTI mod N ECCE , where, n ECCE.low is a lowest enhanced control channel element, ECCE, index of the EPDCCH candidate, n RNTI is a cell-temporary radio network temporary identifier, N ECCE is a number of ECCEs.
A mixing device comprising a longitudinal shaft connectable to a rotational drive mechanism at one end and fixed to at least one elongated blade or impeller adjacent to its opposite end, leaving the free end of the shaft extending beyond the blade or impeller to provide a spacing element , characterized in that the elongated blade or impeller has a plurality of tapered apertures arranged along its length and the tapered apertures extend through the blade or impeller and are tapered on opposing sides of the blade or impeller.
A method for synchronising a server cluster comprising a plurality of nodes (N i,j,k,l ) each provided with an internal clock and interconnected with each other by a clock interconnection network, this clock interconnection network comprising a plurality of transmission segments (10 i-1/i , 20 i,j-1/j , 30 k-1/k , 40 k ) connecting the nodes together, the method comprising the following steps: - generation of time-stamping information (H) by the internal clock of a source (N 1,1,1,1 ) chosen from the nodes (N i,j,k,l ) in the server cluster , - transmission , by the transmission segments (10 i-1/i , 20 i,j-1/j , 30 k-1/k , 40 k ) of the clock interconnection network, of this time-stamping information (H) to all the nodes (N i,j,k,l ) in the server cluster from the source (N 1,1,1,1 ), - adjustment of the internal clock of each node (N i,j,k,l ) in the server cluster from this time-stamping information (H), characterized in that it further comprises the following steps: - adjustment of the time for transmitting time-stamping information (H) by each transmission segment (10 i-1/i , 20 i,j-1/j , 30 k-1/k , 40 k ) to a constant value established for each transmission segment, - on reception of the time-stamping information (H) by any one of the nodes (N i,j,k,l ) in the server cluster , adjustment of its internal clock from the time-stamping information (H) and information relating to the transmission segments passed through between the source (N 1,1,1,1 ) and this node (N i,j,k,l ). - generation of time-stamping information (H) by the internal clock of a source (N 1,1,1,1 ) chosen from the nodes (N i,j,k,l ) in the server cluster , - transmission , by the transmission segments (10 i-1/i , 20 i,j-1/j , 30 k-1/k , 40 k ) of the clock interconnection network, of this time-stamping information (H) to all the nodes (N i,j,k,l ) in the server cluster from the source (N 1,1,1,1 ), - adjustment of the internal clock of each node (N i,j,k,l ) in the server cluster from this time-stamping information (H), - adjustment of the time for transmitting time-stamping information (H) by each transmission segment (10 i-1/i , 20 i,j-1/j , 30 k-1/k , 40 k ) to a constant value established for each transmission segment, - on reception of the time-stamping information (H) by any one of the nodes (N i,j,k,l ) in the server cluster , adjustment of its internal clock from the time-stamping information (H) and information relating to the transmission segments passed through between the source (N 1,1,1,1 ) and this node (N i,j,k,l ).
A method of writing digital data to a plurality of printed business cards provided in a printed sheet , each business card comprising a wireless communication chip to which the digital data is written, the method comprising: determining relevant pieces of digital data corresponding to the printed sheet ; and writing, using a plurality of wireless communication devices , the relevant digital data to each of the wireless communication chips ; characterised in that the method further comprises: testing each wireless communication chip to determine if there are any inactive wireless communication chips for which the digital data has not been successfully written to the wireless communication chip; and enabling positive visual identification of the inactive wireless communication chips . determining relevant pieces of digital data corresponding to the printed sheet ; and writing, using a plurality of wireless communication devices , the relevant digital data to each of the wireless communication chips ; characterised in that the method further comprises: testing each wireless communication chip to determine if there are any inactive wireless communication chips for which the digital data has not been successfully written to the wireless communication chip; and enabling positive visual identification of the inactive wireless communication chips . testing each wireless communication chip to determine if there are any inactive wireless communication chips for which the digital data has not been successfully written to the wireless communication chip; and enabling positive visual identification of the inactive wireless communication chips .
A specimen mover configured for rotating one or more specimens in abutment with a preparation surface , said specimen mover includes: - a drive housing , - a driveshaft protruding from said drive housing , and - a thrust housing disposed coaxially on said driveshaft protruding from said drive housing and including at least one thrust pad , CHARACTERIZED IN that said thrust housing is displaceably connected to said driveshaft protruding from said drive housing in a manner allowing said thrust housing to move along, and relative to, said driveshaft protruding from said drive housing . - a drive housing , - a driveshaft protruding from said drive housing , and - a thrust housing disposed coaxially on said driveshaft protruding from said drive housing and including at least one thrust pad ,
A method in a receiver circuit of processing a signal comprising a first sequence of an integer number N sym of orthogonal frequency-division multiplexing, OFDM, symbols, which are transmitted within a frequency sub band of a second sequence of N sym OFDM symbols, wherein the first sequence of OFDM symbols and the second sequence of OFDM symbols are transmitted with the same timing, a first cyclic prefix of the second sequence of OFDM symbols has a first duration, a second cyclic prefix of the second sequence of OFDM symbols has a second duration, and the second duration is shorter than the first duration, such that in order to sample both the first and the second cyclic prefix with an integer number of equidistant samples, a first sampling rate is required, wherein the method comprises: sampling , with an analog-to-digital converter, ADC, , the signal comprising the first sequence of OFDM symbols at a second sampling rate, lower than the first sampling rate; and adjusting , using a clock generator circuit configured to provide the ADC with a clock signal that has a configurable phase shift, a sampling phase of the analog-to-digital converter during cyclic prefixes; wherein the second sequence of OFDM symbols are transmitted in a third generation partnership project, 3GPP, Long-Term Evolution, LTE, system; and the first sequence of OFDM symbols are transmitted in a Narrow-Band, NB, Internet-of-Things, loT, system. sampling , with an analog-to-digital converter, ADC, , the signal comprising the first sequence of OFDM symbols at a second sampling rate, lower than the first sampling rate; and adjusting , using a clock generator circuit configured to provide the ADC with a clock signal that has a configurable phase shift, a sampling phase of the analog-to-digital converter during cyclic prefixes;
A surgical cap having a cover having a head-receiving cavity and the surgical cap also having a resilient member connected to the cover and extending around less than the entire head-receiving cavity characterized by : a plurality of layers of the cover including a pair of inner layers inward from the resilient member and adapted to separate the resilient member from a head received in the head-receiving cavity , and four outer layers outward from the resilient member , the resilient member being secured to the three innermost of the four outer layers .
An apparatus for scanning a structure to detect differences in density between different parts of the structure, the apparatus comprising: a source of radiation ; a plurality of first detectors arranged to detect radiation emitted by said source along a plurality of respective first paths ; and a plurality of second detectors arranged to detect radiation emitted by said source along a plurality of respective second paths ; wherein each said first and second paths is substantially aligned with a respective radius of a circle centred on the source ; wherein an angular separation between at least two neighbouring first paths is S; wherein the first and second detectors and the source are arranged for rotation in a fixed relationship with respect to each other, about an axis of rotation located between the source and the detectors , wherein said axis of rotation is substantially orthogonal to said circle; wherein there are 2N + 1 detectors ; characterized in that said first paths are located on a first side of a plane containing the source and said axis of rotation and the positions D L of the first detectors are given by D L = nS, where n = 0, 1, 2, ... N and said second paths are located on a second side of said plane and the positions D R of the second detectors are given by D R = (n+f)S, where n = 0, 1, 2, ... N-1 and where 0 < f < 1. a source of radiation ; a plurality of first detectors arranged to detect radiation emitted by said source along a plurality of respective first paths ; and a plurality of second detectors arranged to detect radiation emitted by said source along a plurality of respective second paths ; wherein each said first and second paths is substantially aligned with a respective radius of a circle centred on the source ; wherein an angular separation between at least two neighbouring first paths is S; wherein the first and second detectors and the source are arranged for rotation in a fixed relationship with respect to each other, about an axis of rotation located between the source and the detectors , wherein said axis of rotation is substantially orthogonal to said circle; wherein there are 2N + 1 detectors ; characterized in that said first paths are located on a first side of a plane containing the source and said axis of rotation and the positions D L of the first detectors are given by D L = nS, where n = 0, 1, 2, ... N and said second paths are located on a second side of said plane and the positions D R of the second detectors are given by D R = (n+f)S, where n = 0, 1, 2, ... N-1 and where 0 < f < 1.
A turbomachine axial retention system, comprising: a turbomachine, comprising: a rotor comprising a rotational axis ; a first rotating segment having a first mating axial mount coupled to a first axial mount of the rotor in a first installed position ; a first pin configured to be inserted into a first inserted position in both a first slot in the rotor and a first mating slot in the first rotating segment, wherein the first slot and the first mating slot extend in a first circumferential direction relative to the rotational axis, and the first pin in the first inserted position is configured to block axial movement of the first mating axial mount relative to the first axial mount, a second rotating segment having a second mating axial mount coupled to a second axial mount of the rotor in a second installed position , wherein the second rotating segment in the second installed position is configured to block removal of the first pin , characterised in that , the first pin comprises an L-shape having an upper portion and a lower portion , the lower portion comprises a hole configured to enable removal of the first pin from the first slot , the upper portion comprises a tapered end , and the first mating slot comprises a recess having a tapered portion configured to enable the insertion of the tapered end of the upper portion of the first pin into the first mating slot and to prevent the insertion of the lower portion of the first pin into the first mating slot .. a rotor comprising a rotational axis ; a first rotating segment having a first mating axial mount coupled to a first axial mount of the rotor in a first installed position ; a first pin configured to be inserted into a first inserted position in both a first slot in the rotor and a first mating slot in the first rotating segment, wherein the first slot and the first mating slot extend in a first circumferential direction relative to the rotational axis, and the first pin in the first inserted position is configured to block axial movement of the first mating axial mount relative to the first axial mount, a second rotating segment having a second mating axial mount coupled to a second axial mount of the rotor in a second installed position , wherein the second rotating segment in the second installed position is configured to block removal of the first pin , characterised in that , the first pin comprises an L-shape having an upper portion and a lower portion , the lower portion comprises a hole configured to enable removal of the first pin from the first slot , the upper portion comprises a tapered end , and the first mating slot comprises a recess having a tapered portion configured to enable the insertion of the tapered end of the upper portion of the first pin into the first mating slot and to prevent the insertion of the lower portion of the first pin into the first mating slot ..
Gas phase epitaxy method, comprising the method step: - growing a III-V layer with a doping (D), which changes from a first type of conductivity to a second type of conductivity, on a surface of a substrate or a preceding layer in a reaction chamber (K) from the gas phase from an epitaxy gas flow (F) comprising a carrier gas, at least one first precursor for an element from the III main group and at least one second precursor for an element from the V main group, wherein the element of the III main group is gallium and the element of the V main group is arsenic, the first conductivity type is p and the second conductivity type is n - on reaching a first growth height by means of a ratio of a first mass flow of the first precursor to a second mass flow of the second precursor in the epitaxy gas flow (F) and with or without addition of a further precursor for a doping substance of the first conductivity type to the epitaxy gas flow (F) a first doping start value (DA1) of the first conductivity type is set, - subsequently through stepped or continuous increase in a mass flow of a third precursor and/or through stepped or continuous change in the ratio between the first mass flow and the second mass flow a doping (D) of the III-V layer is changed over a transition region layer (Ü) with a growth height of at least 10 μm in steps or continuously until reaching a doping target value (DZ) of the second conductivity type. - growing a III-V layer with a doping (D), which changes from a first type of conductivity to a second type of conductivity, on a surface of a substrate or a preceding layer in a reaction chamber (K) from the gas phase from an epitaxy gas flow (F) comprising a carrier gas, at least one first precursor for an element from the III main group and at least one second precursor for an element from the V main group, - on reaching a first growth height by means of a ratio of a first mass flow of the first precursor to a second mass flow of the second precursor in the epitaxy gas flow (F) and with or without addition of a further precursor for a doping substance of the first conductivity type to the epitaxy gas flow (F) a first doping start value (DA1) of the first conductivity type is set, - subsequently through stepped or continuous increase in a mass flow of a third precursor and/or through stepped or continuous change in the ratio between the first mass flow and the second mass flow a doping (D) of the III-V layer is changed over a transition region layer (Ü) with a growth height of at least 10 μm in steps or continuously until reaching a doping target value (DZ) of the second conductivity type.
A distance sensor for estimating a distance to a surface (Os) of an object (O), the distance sensor including a micro electric mechanical system , MEMS, comprising a MEMS device having a surface , denoted as MEMS sensor surface, to be arranged opposite the surface (Os) of said object (O) and a MEMS driver for generating an ac driving signal to cause the MEMS sensor surface to vibrate, characterized in that it comprises a detection means to determine a value of a property of a dynamic behavior of the MEMS and a processing device to estimate an average distance (h) from a measurement of the dampening of the MEMS sensor surface, as a measured distance (D 2 ) between the MEMS sensor surface and the surface (O s ) of the object (O) based on the determined value for said property.
A trolley for supporting transporting units of a transportation system wherein the transporting units are supported suspended from a guide defining a direction of movement (A, B); the trolley comprising: - a frame ; - rolls supported by the frame and configured for resting and rolling on the guide ; - a suspending arm for supporting the transporting units wherein the suspending arm pivots constrained to the frame about an axis (X) parallel to the direction of movement (A, B) between a first and a second angular position; characterized in that the trolley moreover comprises: - a rotation limiting device selectively operable for limiting or blocking the rotation of the suspending arm with respect to the frame . - a frame ; - rolls supported by the frame and configured for resting and rolling on the guide ; - a suspending arm for supporting the transporting units wherein the suspending arm pivots constrained to the frame about an axis (X) parallel to the direction of movement (A, B) between a first and a second angular position; - a rotation limiting device selectively operable for limiting or blocking the rotation of the suspending arm with respect to the frame .