mhurhangee/patent-ind-claim-en huggingface dataset:
A tufting machine comprising: a needle bar reciprocable in a needle reciprocation direction substantially perpendicular to a direction in which a backing material is fed through the machine; a plurality of needle holders associated with the needle bar and slidably supported in a guide support for reciprocation in the needle reciprocation direction, a respective needle attached to each needle holder, each needle holder having an engagement portion , wherein the needle bar has means for selectively latching with the engagement portion of each selected needle holder so as to selectively drive latched needle holders in the needle reciprocation direction; a stop bar positioned to limit the upward movement of the needle holders; and at least one magnet which retains non-latched needle holders in its uppermost position as the needle bar is reciprocated; characterised in that the or each magnet is embedded in the stop bar , and by the machine further comprising a cushioning member attached to the magnet and facing the top of each needle holder . a needle bar reciprocable in a needle reciprocation direction substantially perpendicular to a direction in which a backing material is fed through the machine; a plurality of needle holders associated with the needle bar and slidably supported in a guide support for reciprocation in the needle reciprocation direction, a respective needle attached to each needle holder, each needle holder having an engagement portion , wherein the needle bar has means for selectively latching with the engagement portion of each selected needle holder so as to selectively drive latched needle holders in the needle reciprocation direction; a stop bar positioned to limit the upward movement of the needle holders; and at least one magnet which retains non-latched needle holders in its uppermost position as the needle bar is reciprocated; characterised in that the or each magnet is embedded in the stop bar , and by the machine further comprising a cushioning member attached to the magnet and facing the top of each needle holder .
An arrangement comprising an enclosure for an electronic device and a retention member , the enclosure comprising first and second housing portions adapted to be joined together by a retention member received in a passageway at least partially formed by portions of each of the first and second housing portions , the passageway extending longitudinally along at least a portion of a periphery of an internal chamber of the enclosure , the retention member restricting separation of the first and second housing portions when received in the passageway , characterized in that the retention member includes a first portion retained in the first housing portion and a second portion retained in the second housing portion, the first and second portions of the retention member being semi-cylindrical in shape to thereby form the generally cylindrical retention member when the first housing portion and the second housing portion are assembled to form the passageway .
A compound represented by the following Chemical Formula 1: wherein in Chemical Formula 1, Ar 1 to Ar 4 are each independently a substituted or unsubstituted C 6-60 aromatic ring; or a C 2-60 heteroaromatic ring containing at least one heteroatom selected from the group consisting of N, O and S, at least one of R 1 is benzofuranyl or benzothiophenyl; and the rest are each independently hydrogen, deuterium, halogen, cyano, a substituted or unsubstituted C 1-60 alkyl, a substituted or unsubstituted C 2-60 alkenyl, a substituted or unsubstituted C 2-60 alkynyl, a substituted or unsubstituted C 3-30 cycloalkyl, a substituted or unsubstituted C 6-60 aryl, or N (substituted or unsubstituted C 6-60 aryl) 2 ; or two adjacent R 1 s are connected to each other to form a substituted or unsubstituted C 3-6 alkylene. Ar 1 to Ar 4 are each independently a substituted or unsubstituted C 6-60 aromatic ring; or a C 2-60 heteroaromatic ring containing at least one heteroatom selected from the group consisting of N, O and S, at least one of R 1 is benzofuranyl or benzothiophenyl; and the rest are each independently hydrogen, deuterium, halogen, cyano, a substituted or unsubstituted C 1-60 alkyl, a substituted or unsubstituted C 2-60 alkenyl, a substituted or unsubstituted C 2-60 alkynyl, a substituted or unsubstituted C 3-30 cycloalkyl, a substituted or unsubstituted C 6-60 aryl, or N (substituted or unsubstituted C 6-60 aryl) 2 ; or two adjacent R 1 s are connected to each other to form a substituted or unsubstituted C 3-6 alkylene.
A method for characterizing a ply of fiber having a thermoplastic veil, the method comprising: acquiring an image of a fiber material comprising strands of fiber and further comprising a veil of filaments of thermoplastic ; subdividing the image into slices ; determining an amount of melted filaments depicted within each of the slices ; determining an amount of unmelted filaments depicted within each of the slices ; wherein distinguishing melted filaments from unmelted filaments is based upon differences in at least one of brightness, color or curvature; wherein the determining steps are performed via a neural network that has been trained. acquiring an image of a fiber material comprising strands of fiber and further comprising a veil of filaments of thermoplastic ; subdividing the image into slices ; determining an amount of melted filaments depicted within each of the slices ; determining an amount of unmelted filaments depicted within each of the slices ; wherein distinguishing melted filaments from unmelted filaments is based upon differences in at least one of brightness, color or curvature; wherein the determining steps are performed via a neural network that has been trained.
A luminescent display system comprising a luminescent resin film containing a thermoplastic resin and a luminescent material; characterized in that the luminescent resin film and two or more light sources each having an irradiation intensity of 200 mW/cm 2 or lower and configured to emit a light beam of excitation wavelength for the luminescent material are placed such that the light beams emitted from the light sources at least partly overlap on the luminescent resin film and an area on the luminescent resin film irradiated with both light beams of at least one pair of the light sources is 50% or more of the smallest among a pair of overlapped areas on the luminescent resin film irradiated with respective light beams of the at least one pair of the light sources , wherein the overlapping ratio is determined as defined in the description.
A metal oxide semiconductor (MOS) device, comprising: a first logic component with a first input and a first output, the first input being located on a first track extending in a first direction and a second track extending in a second direction orthogonal to the first direction, the first output being located on the first track and a third track extending in the second direction; a second logic component with a second input and a second output, the second input being located on the first track and a fourth track extending in the second direction, the second output being located on the first track and a fifth track extending in the second direction, the fourth track and the fifth track being between the second track and the third track; a first interconnect on a metal x (M x ) layer extending on the first track and coupled to the first input on the second track; a second interconnect on the M x layer extending on the first track and coupled to the first output on the third track; a third interconnect on a metal y (M y ) layer extending on the first track and coupled to the second input on the fourth track, y being greater than x ; and a fourth interconnect on the M y layer extending on the first track and coupled to the second output on the fifth track. a first logic component with a first input and a first output, the first input being located on a first track extending in a first direction and a second track extending in a second direction orthogonal to the first direction, the first output being located on the first track and a third track extending in the second direction; a second logic component with a second input and a second output, the second input being located on the first track and a fourth track extending in the second direction, the second output being located on the first track and a fifth track extending in the second direction, the fourth track and the fifth track being between the second track and the third track; a first interconnect on a metal x (M x ) layer extending on the first track and coupled to the first input on the second track; a second interconnect on the M x layer extending on the first track and coupled to the first output on the third track; a third interconnect on a metal y (M y ) layer extending on the first track and coupled to the second input on the fourth track, y being greater than x ; and a fourth interconnect on the M y layer extending on the first track and coupled to the second output on the fifth track.
A computer-implemented method comprising: receiving an access control list, ACL , comprising a list of Access Control entries, ACEs; representing the ACEs as a plurality of canonical ACEs, each comprising a plurality of data fields in a predefined format; grouping the canonical ACEs into a plurality of candidate compression groups, CCGs ; identifying , in each of the CCGs, a plurality of equivalent canonical ACEs corresponding to a plurality of mismatching data values across a designated data field and a same data value across a plurality of remaining data fields; and merging together , in each of the CCGs, the plurality of equivalent canonical ACEs in an iterative manner by varying the designated data field, to thereby convert the plurality of canonical ACEs, in each of the CCGs, into at least one of one or more Object-group based ACEs for a group of users/devices or one or more Security-group based ACEs for a particular security group; wherein grouping ACEs comprises grouping into each CCG a set of contiguous ACEs in the supplied ACL that prescribe the same action, such that a given CCG ends when a first ACE of the opposite action is identified; and wherein the merging is performed in each CCG separately, such that ACEs corresponding to opposite actions or ACEs that correspond to the same action but are separated in the ACL by one or more ACEs associated with the opposite action are not merged in the merging step. receiving an access control list, ACL , comprising a list of Access Control entries, ACEs; representing the ACEs as a plurality of canonical ACEs, each comprising a plurality of data fields in a predefined format; grouping the canonical ACEs into a plurality of candidate compression groups, CCGs ; identifying , in each of the CCGs, a plurality of equivalent canonical ACEs corresponding to a plurality of mismatching data values across a designated data field and a same data value across a plurality of remaining data fields; and merging together , in each of the CCGs, the plurality of equivalent canonical ACEs in an iterative manner by varying the designated data field, to thereby convert the plurality of canonical ACEs, in each of the CCGs, into at least one of one or more Object-group based ACEs for a group of users/devices or one or more Security-group based ACEs for a particular security group; wherein grouping ACEs comprises grouping into each CCG a set of contiguous ACEs in the supplied ACL that prescribe the same action, such that a given CCG ends when a first ACE of the opposite action is identified; and wherein the merging is performed in each CCG separately, such that ACEs corresponding to opposite actions or ACEs that correspond to the same action but are separated in the ACL by one or more ACEs associated with the opposite action are not merged in the merging step.
A computer-implemented method for determining whether a given microphone occupies a target position , comprising: receiving a first reference time delay (RTD) between receptions of a first reference signal and a second reference signal by a reference microphone positioned at the target position, the first reference signal emitted by a first speaker and the second reference signal emitted by a second speaker , the first and second speakers each having a fixed position and the emission of the first and second reference signals being spaced apart by a time delay (δt1); using the given microphone positioned at a given position, recording a first sound signal emitted by the first speaker and a second sound signal emitted by the second speaker , the emission of the first and second sound signals being spaced apart by the time delay (δt1); determining an actual time delay (Δt1) between the received first sound signal and the received second sound signal ; comparing the actual time delay (Δt1) to the first reference time delay (RTD); determining a match between the given position and the target position for the given microphone if the actual time delay (Δt1) corresponds to the first reference time delay (RTD) and a mismatch between the given position and the target position for the given microphone if the actual time delay (Δt1) is different from the first reference time delay (RTD); and outputting an indication of one of the match and the mismatch. receiving a first reference time delay (RTD) between receptions of a first reference signal and a second reference signal by a reference microphone positioned at the target position, the first reference signal emitted by a first speaker and the second reference signal emitted by a second speaker , the first and second speakers each having a fixed position and the emission of the first and second reference signals being spaced apart by a time delay (δt1); using the given microphone positioned at a given position, recording a first sound signal emitted by the first speaker and a second sound signal emitted by the second speaker , the emission of the first and second sound signals being spaced apart by the time delay (δt1); determining an actual time delay (Δt1) between the received first sound signal and the received second sound signal ; comparing the actual time delay (Δt1) to the first reference time delay (RTD); determining a match between the given position and the target position for the given microphone if the actual time delay (Δt1) corresponds to the first reference time delay (RTD) and a mismatch between the given position and the target position for the given microphone if the actual time delay (Δt1) is different from the first reference time delay (RTD); and outputting an indication of one of the match and the mismatch.
A method for predicting cellular network performance, performed by a cellular network monitoring system , based on observed performance indicator data derived from observed network data from high-load cells in the cellular network, comprising: accessing a set of observed performance indicator data, the observed performance indicator data comprising performance indicators for the cellular network measured in a time period, and using a subset of the observed performance indicator data as training data, another subset as testing data and yet another subset as validation data; classifying a cell based on the observed performance data, the classifying including classifying the cell as a high load growth cell or a high load non-growth cell; based on the classifying, deriving at least two predictive models, wherein the at least two predictive models comprises a first predictive model and a second predictive model, and each the first predictive model and the second predictive model are based on training data from a different one of high load growth cells, all high load cells and high load non-growth cells; based on the classifying, computing a future value of at least one of the performance indicators using a predictive model based on testing data for the cell used as input to the predictive model, wherein the computing comprises computing an ensemble predictive model combining future values from computing the at least two predictive models for the high load growth cells; and outputting the future value of the at least one of the performance indicators, wherein the set of observed performance indicator data comprises performance indicator data for a time period. accessing a set of observed performance indicator data, the observed performance indicator data comprising performance indicators for the cellular network measured in a time period, and using a subset of the observed performance indicator data as training data, another subset as testing data and yet another subset as validation data; classifying a cell based on the observed performance data, the classifying including classifying the cell as a high load growth cell or a high load non-growth cell; based on the classifying, deriving at least two predictive models, wherein the at least two predictive models comprises a first predictive model and a second predictive model, and each the first predictive model and the second predictive model are based on training data from a different one of high load growth cells, all high load cells and high load non-growth cells; based on the classifying, computing a future value of at least one of the performance indicators using a predictive model based on testing data for the cell used as input to the predictive model, wherein the computing comprises computing an ensemble predictive model combining future values from computing the at least two predictive models for the high load growth cells; and outputting the future value of the at least one of the performance indicators, wherein the set of observed performance indicator data comprises performance indicator data for a time period.
An adjustable base plate for use with a tracheostoma comprising: a flexible membrane ; an adhesive material applied to the flexible membrane ; and a base component bonded to the flexible membrane and including an accessory mounting portion disposed in a center of the flexible membrane and adapted to mount a tracheostoma accessory, characterized in that a plurality of conforming members extend radially outward from and are angled relative to the accessory mounting portion and are bonded to the flexible membrane to define a conically shaped region with the conforming members laterally spaced from one another, wherein the plurality of conforming members are configured to conform to the surface around the tracheostoma the flexible membrane is adhered to. a flexible membrane ; an adhesive material applied to the flexible membrane ; and a base component bonded to the flexible membrane and including an accessory mounting portion disposed in a center of the flexible membrane and adapted to mount a tracheostoma accessory, characterized in that a plurality of conforming members extend radially outward from and are angled relative to the accessory mounting portion and are bonded to the flexible membrane to define a conically shaped region with the conforming members laterally spaced from one another, wherein the plurality of conforming members are configured to conform to the surface around the tracheostoma the flexible membrane is adhered to.
A catheter comprising: - a catheter shaft extending from a proximal end portion to a distal end portion of the catheter shaft and having an outer surface , and - a connector connected to the proximal end portion of the catheter shaft , characterised in that the connector comprises a material with which the proximal end portion of the catheter shaft is surrounded, at least one electrical conductor being printed on the outer surface of the catheter shaft , the at least one electrical conductor contacting a conductor track of a printed circuit board which is embedded in the material of the connector , so that the at least one electrical conductor and the at least one conductor track are electrically conductively connected. - a catheter shaft extending from a proximal end portion to a distal end portion of the catheter shaft and having an outer surface , and - a connector connected to the proximal end portion of the catheter shaft ,
A method of controlling an access node , the method comprising: transmitting data using a number of transmit paths; receiving at the access node , an uplink signal, a transmit power and an available transmit power of a wireless device; monitoring at the access node the received transmit power and the received available transmit power over a period of time; determining at the access node the received transmit power meets a first criteria and the received available transmit power meets a second criteria; determining, from a transmission angle or timing advance of the uplink signal, a distance of the wireless device from the access node when the received transmit power meets the first criteria and the received available transmit power meets the second criteria; determining that the distance of the wireless device from the access node meets a distance criteria; and reducing the number of transmit paths from the access node in response to determining the distance of the wireless device meets the distance criteria.
Device for spraying windscreen washer liquid for a wiper of a vehicle windscreen wiping system, comprising means for spraying windscreen washer liquid and means for fixing to said wiper , characterized in that the fixing means are configured to be engaged, namely sandwiched between means for connecting the wiper to a windscreen wiper arm and said windscreen wiper arm, so as to ensure that said device is mechanically held when said connecting means are fixed to the arm .
A method performed by a terminal device for communicating with a radio base station, RBS, or a Device-to-Device, D2D, terminal device in an Orthogonal Frequency Division Multiplexing, OFDM, based radio communication network, the method comprising: forming (S401) a radio subframe by including coded bits in the radio subframe, wherein the coded bits contain a sequence of systematic bits and a sequence of redundancy bits, and only redundancy bits are included in a head and a tail of the first and the last OFDM symbols of the radio subframe; and transmitting (S402) the radio subframe to the RBS or the D2D terminal device. forming (S401) a radio subframe by including coded bits in the radio subframe, wherein the coded bits contain a sequence of systematic bits and a sequence of redundancy bits, and only redundancy bits are included in a head and a tail of the first and the last OFDM symbols of the radio subframe; and transmitting (S402) the radio subframe to the RBS or the D2D terminal device.
A cellulase variant polypeptide, characterized in that the variant polypeptide has cellulase activity and comprises an amino acid sequence having at least 90% identity to residues 22-235 of SEQ ID NO:1 comprising a substitution at position 122, wherein at position 122 N is substituted to A, S, G, T, V, I or L, and wherein the amino acid positions of said variant polypeptide are numbered by correspondence with the mature amino acid sequence of SEQ ID NO:3.
A method of producing a glass product with a chromatically and/or visually differentiated part inside the product, mainly stemware, wherein a bowl and a parison of a stem are firstly shaped independently and then the parison is pushed and welded to the bowl during heat and the parison is stretched into a resulting shape of the stem during the heat, characterized in that a body with different chromatic and/or visual features is placed into a plane of a joint of the parison and the bowl , the body is, during the heat, surrounded by a glass melt from the parison and/or the bowl while the parison is pushed to the bowl , after welding the bowl to the parison , the body is connected with the bowl and the parison , and during subsequent stretching of the parison into a resulting form of the stem , the body is shaped into a resulting form of a stretched body , too.