mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of an olefinic thermoplastic elastomer, comprising the steps of: - shredding in a shredder without grate atactic polypropylene, so that small blocks of mass not exceeding 1 kg are obtained, - grinding in a mill polyethylene, which is constituted by pre- and post-consumer recycled LDPE/LLDPE, so that flakes of a size not exceeding 16 mm are obtained, - feeding into a further granulator mill equipped with a 16 mm grid 100 parts by weight of said small blocks of atactic polypropylene and 220 to 300 parts by weight of said flakes of polyethylene, so that a mixture of granules of size not greater than 16 mm is obtained, - feeding said mixture at the inlet end of an extruder, in which 35 to 45 parts by weight of a copolymer of isotactic polypropylene and polyethylene are subsequently added, and - extruding said thermoplastic elastomer through an exit die of the extruder. - shredding in a shredder without grate atactic polypropylene, so that small blocks of mass not exceeding 1 kg are obtained, - grinding in a mill polyethylene, which is constituted by pre- and post-consumer recycled LDPE/LLDPE, so that flakes of a size not exceeding 16 mm are obtained, - feeding into a further granulator mill equipped with a 16 mm grid 100 parts by weight of said small blocks of atactic polypropylene and 220 to 300 parts by weight of said flakes of polyethylene, so that a mixture of granules of size not greater than 16 mm is obtained, - feeding said mixture at the inlet end of an extruder, in which 35 to 45 parts by weight of a copolymer of isotactic polypropylene and polyethylene are subsequently added, and - extruding said thermoplastic elastomer through an exit die of the extruder.
A loading tool to facilitate loading a self-expanding prosthesis into a delivery system , the loading tool comprising: a hinged body including a first body portion and a second body portion , each of the first body portion and the second body portion having a first end and a second end , wherein the first end of the first body portion is attached to the first end of the second body and the second end of the first body portion is not attached to the second end of the second body portion, and wherein each of the first body portion and the second body portion includes a resilient clip formed thereon that includes a radial protrusion on an outer surface thereof, each resilient clip being configured to displaced radially inwards when a pinching force is applied thereto; and a collar slidingly disposed over the hinged body, wherein the loading tool has an open configuration in which the second end of the first body portion and the second end of the second body portion are radially spaced apart from each other and the collar is disposed over the first ends of the first and second body portions, and wherein the loading tool has a closed configuration in which the second end of the first body portion and the second end of the second body portion are disposed directly adjacent to each other and the collar is disposed over the second ends of the first and second body portions, and wherein the radial protrusions are configured to lock the loading tool in the closed configuration when the resilient clips are not displaced radially inwards. a hinged body including a first body portion and a second body portion , each of the first body portion and the second body portion having a first end and a second end , wherein the first end of the first body portion is attached to the first end of the second body and the second end of the first body portion is not attached to the second end of the second body portion, and wherein each of the first body portion and the second body portion includes a resilient clip formed thereon that includes a radial protrusion on an outer surface thereof, each resilient clip being configured to displaced radially inwards when a pinching force is applied thereto; and a collar slidingly disposed over the hinged body, wherein the loading tool has an open configuration in which the second end of the first body portion and the second end of the second body portion are radially spaced apart from each other and the collar is disposed over the first ends of the first and second body portions, and wherein the loading tool has a closed configuration in which the second end of the first body portion and the second end of the second body portion are disposed directly adjacent to each other and the collar is disposed over the second ends of the first and second body portions, and wherein the radial protrusions are configured to lock the loading tool in the closed configuration when the resilient clips are not displaced radially inwards.
A roller for a chain, the roller comprising a shell roller part and a core roller part , the shell roller part and the core roller part being in an assemblable status so as to form said roller after assemblage, or the shell roller part and the core roller part being in an assembled status, forming said roller, wherein the shell roller part comprises a first outer cylinder a first inner cylinder and a bottom , said first outer and inner cylinders and bottom each having a respective wall thickness, wherein the first inner cylinder is positioned concentrically inside the first outer cylinder , and the bottom is positioned at and connected to one end of the first inner cylinder and the first outer cylinder and is stretched from the first inner cylinder to the first outer cylinder , such that the shell roller part defines a space surrounded by said first inner cylinder , first outer cylinder and bottom ; wherein the core roller part comprises a second outer cylinder , a second inner cylinder and a top , said second outer and inner cylinders and top each also having a respective wall thickness, wherein the second inner cylinder is positioned concentrically inside the second outer cylinder , and the top is positioned at and connected to one end of the second inner cylinder and the second outer cylinder and is stretched from the second inner cylinder to the second outer cylinder ; wherein in the assemblable status of the roller the core roller part is adapted to be positioned concentrically in said space to form said roller, or wherein in the assembled status of the roller the core roller part is positioned concentrically in said space, thus forming said roller. wherein the shell roller part comprises a first outer cylinder a first inner cylinder and a bottom , said first outer and inner cylinders and bottom each having a respective wall thickness, wherein the first inner cylinder is positioned concentrically inside the first outer cylinder , and the bottom is positioned at and connected to one end of the first inner cylinder and the first outer cylinder and is stretched from the first inner cylinder to the first outer cylinder , such that the shell roller part defines a space surrounded by said first inner cylinder , first outer cylinder and bottom ; wherein the core roller part comprises a second outer cylinder , a second inner cylinder and a top , said second outer and inner cylinders and top each also having a respective wall thickness, wherein the second inner cylinder is positioned concentrically inside the second outer cylinder , and the top is positioned at and connected to one end of the second inner cylinder and the second outer cylinder and is stretched from the second inner cylinder to the second outer cylinder ; wherein in the assemblable status of the roller the core roller part is adapted to be positioned concentrically in said space to form said roller, or wherein in the assembled status of the roller the core roller part is positioned concentrically in said space, thus forming said roller.
A method, comprising: Determining , at a terminal device , a matrix W̃ 2 comprising linear combination coefficients for a pre-coder matrix indicator, PMI, matrix, wherein: the PMI matrix is represented by W = W 1 W ̃ 2 W f H , matrix W 1 is a matrix of size 2N 1 N 2 × 2L and represents components of a spatial domain orthogonal basis of size 2L, matrix W f is a matrix of size N 3 × M and represents components of a frequency domain orthogonal basis of size M, and matrix W̃ 2 is a matrix of size 2L × M and has rows and columns corresponding to spatial components and frequency components, respectively; and wherein N 1 × N 2 is the number of antenna ports, N 3 is the number of configured PMI sub-bands and M is less than N 3 ; characterized by determining a shifted matrix by shifting the frequency components of matrix W̃ 2 circularly, such that a maximum coefficient of matrix W̃ 2 is located in a frequency component with a predetermined index; generating a strongest coefficient indicator with ⌈ log 2 2 L ⌉ bits, based on the index of the spatial component associated with the maximum coefficient of matrix W̃ 2 ; and transmitting , to a network device , uplink control information comprising the strongest coefficient indicator and locations and values of non-zero coefficients of the shifted matrix, wherein the transmitted non-zero coefficients exclude the maximum coefficient. the PMI matrix is represented by W = W 1 W ̃ 2 W f H , matrix W 1 is a matrix of size 2N 1 N 2 × 2L and represents components of a spatial domain orthogonal basis of size 2L, matrix W f is a matrix of size N 3 × M and represents components of a frequency domain orthogonal basis of size M, and matrix W̃ 2 is a matrix of size 2L × M and has rows and columns corresponding to spatial components and frequency components, respectively; and wherein N 1 × N 2 is the number of antenna ports, N 3 is the number of configured PMI sub-bands and M is less than N 3 ; determining a shifted matrix by shifting the frequency components of matrix W̃ 2 circularly, such that a maximum coefficient of matrix W̃ 2 is located in a frequency component with a predetermined index; generating a strongest coefficient indicator with ⌈ log 2 2 L ⌉ bits, based on the index of the spatial component associated with the maximum coefficient of matrix W̃ 2 ; and transmitting , to a network device , uplink control information comprising the strongest coefficient indicator and locations and values of non-zero coefficients of the shifted matrix, wherein the transmitted non-zero coefficients exclude the maximum coefficient.
A method for determining a neighbouring relationship between a first node and at least one second node each serving different or the same wireless communication network , the method comprising the steps of: detecting pilot contamination; and determining a neighbouring relationship between the first node and at least one of the second nodes based on the detected pilot contamination. detecting pilot contamination; and determining a neighbouring relationship between the first node and at least one of the second nodes based on the detected pilot contamination.
A method for selecting channel access parameters for communication in a network, the method comprising: selecting, at a first wireless device, a first enhanced distributed channel access, EDCA, parameter for communication with a first subset of wireless devices that do not have the capability to transmit multi-user uplink transmissions; selecting, at the first wireless device, a second EDCA parameter for communication with a second subset of wireless devices, wherein selecting the second EDCA parameter is based on: a capability of the first wireless device to receive scheduled uplink transmissions, and a capability of the second subset of wireless devices to transmit multi-user uplink transmissions; generating an EDCA parameter set information element including the second EDCA parameter; and transmitting the EDCA parameter set information element in a physical layer convergence procedure, PLCP, protocol data unit, PPDU, that is only decodable by the second subset of wireless devices and not by the first subset of wireless devices. selecting, at a first wireless device, a first enhanced distributed channel access, EDCA, parameter for communication with a first subset of wireless devices that do not have the capability to transmit multi-user uplink transmissions; selecting, at the first wireless device, a second EDCA parameter for communication with a second subset of wireless devices, wherein selecting the second EDCA parameter is based on: a capability of the first wireless device to receive scheduled uplink transmissions, and a capability of the second subset of wireless devices to transmit multi-user uplink transmissions; a capability of the first wireless device to receive scheduled uplink transmissions, and a capability of the second subset of wireless devices to transmit multi-user uplink transmissions; generating an EDCA parameter set information element including the second EDCA parameter; and transmitting the EDCA parameter set information element in a physical layer convergence procedure, PLCP, protocol data unit, PPDU, that is only decodable by the second subset of wireless devices and not by the first subset of wireless devices.
An extruder screw for the plasticizing of at least one plastic or a plastic mixture, with a) a melting zone , b) a wave zone c) and a mixing zone arranged between the melting zone and the wave zone , in direct connection to the melting zone , wherein d) a conveying web extending in a helix-like manner along a screw longitudinal axis is formed in the melting zone and in the wave zone , e) the conveying web of the melting zone terminates at an end of the melting zone facing the mixing zone , and f) the conveying web of the wave zone begins at an end facing the mixing zone , the extruder screw is characterized in that g) a flight depth of the melting zone decreases continuously along the longitudinal axis of the screw towards the mixing zone . a) a melting zone , b) a wave zone c) and a mixing zone arranged between the melting zone and the wave zone , in direct connection to the melting zone , wherein d) a conveying web extending in a helix-like manner along a screw longitudinal axis is formed in the melting zone and in the wave zone , e) the conveying web of the melting zone terminates at an end of the melting zone facing the mixing zone , and f) the conveying web of the wave zone begins at an end facing the mixing zone , the extruder screw is characterized in that g) a flight depth of the melting zone decreases continuously along the longitudinal axis of the screw towards the mixing zone .
A card mass storage device having a storage device and a card transfer for introducing cards into the card mass storage device and for removing cards from the card mass storage device , characterized in that the storage device is a main storage device with a number of card spaces and an interim storage device is disposed between the main storage device and the card transfer , which interim storage device has at least two card spaces and no more card spaces than the main storage device , wherein the main storage device is a main storage device ring and/or has a drive with a reversible direction of rotation.
A method for estimating porosity associated with organic matter in a well or formation, comprising: (a) obtaining scanning electron microscope (SEM) or focused ion beam (FIB)-SEM images for a plurality of rock samples obtained from a well or formation; (b) determining porosity associated with organic matter (PAOM), total porosity (PHIT), and organic matter (OM) content (TOC), from the SEM or FIB-SEM images; (c) determining maximum apparent transformation ratio (ATR) for the plurality of rock samples using equation : ATR = PAOM/(PAOM+OM), wherein the PAOM and OM are determined in (b); (d) curve-fitting a ratio of the PAOM to the PHIT and the TOC for at least three data points obtained in (b) to generate at least one of a mathematical function equation or cross-plot thereof; (e) determining total porosity (PHIT) and organic matter (OM) content (TOC) for a sample of a location along a length of a logged wellbore or core sample of the well or formation; (f) computing a first PAOM for the sample of the logged wellbore or core sample using the mathematical function equation or cross-plot generated using the total porosity (PHIT) and the organic matter (OM) content (TOC) determined in (e); (g) computing a second PAOM for the sample of the logged wellbore or core sample using equation : PAOM = ATR x OM/(1-ATR), wherein the ATR is determined in (c) and the OM is determined in (e); (h) comparing the first PAOM calculated from (f) with the second PAOM calculated in (g); and (i) selecting the first PAOM calculated unless the first PAOM is greater than the second PAOM wherein the second PAOM is selected. (a) obtaining scanning electron microscope (SEM) or focused ion beam (FIB)-SEM images for a plurality of rock samples obtained from a well or formation; (b) determining porosity associated with organic matter (PAOM), total porosity (PHIT), and organic matter (OM) content (TOC), from the SEM or FIB-SEM images; (c) determining maximum apparent transformation ratio (ATR) for the plurality of rock samples using equation : ATR = PAOM/(PAOM+OM), wherein the PAOM and OM are determined in (b); (d) curve-fitting a ratio of the PAOM to the PHIT and the TOC for at least three data points obtained in (b) to generate at least one of a mathematical function equation or cross-plot thereof; (e) determining total porosity (PHIT) and organic matter (OM) content (TOC) for a sample of a location along a length of a logged wellbore or core sample of the well or formation; (f) computing a first PAOM for the sample of the logged wellbore or core sample using the mathematical function equation or cross-plot generated using the total porosity (PHIT) and the organic matter (OM) content (TOC) determined in (e); (g) computing a second PAOM for the sample of the logged wellbore or core sample using equation : PAOM = ATR x OM/(1-ATR), wherein the ATR is determined in (c) and the OM is determined in (e); (h) comparing the first PAOM calculated from (f) with the second PAOM calculated in (g); and (i) selecting the first PAOM calculated unless the first PAOM is greater than the second PAOM wherein the second PAOM is selected.
Apparatus comprising a brush seal welding fixture , bristles and a brush seal plate , the fixture comprising: a base having first bristle alignment features ; a shuttle configured to receive the base , the shuttle having second bristle alignment features ; and a cover secured or for securing to the base and configured to retain the bristles and the brush seal plate in engagement with one another in a desired orientation, which includes providing a flush surface between the bristles and the brush seal plate , wherein the second bristle alignment features comprise an inner diameter surface configured to diametrically align radially outer edges of the bristles to a radially outer perimeter edge of the brush seal plate to provide the flush surface ; the fixture further comprising: a laser welder arranged in proximity to the bristles and the brush seal plate configured to weld the bristles and the brush seal plate to one another at the flush surface . a base having first bristle alignment features ; a shuttle configured to receive the base , the shuttle having second bristle alignment features ; and a cover secured or for securing to the base and configured to retain the bristles and the brush seal plate in engagement with one another in a desired orientation, which includes providing a flush surface between the bristles and the brush seal plate , wherein the second bristle alignment features comprise an inner diameter surface configured to diametrically align radially outer edges of the bristles to a radially outer perimeter edge of the brush seal plate to provide the flush surface ; the fixture further comprising: a laser welder arranged in proximity to the bristles and the brush seal plate configured to weld the bristles and the brush seal plate to one another at the flush surface .
A method of manufacturing a needle for root canal treatment devices, comprising: heat-treating a needle body at a predetermined temperature under an inert gas atmosphere after the needle body is placed in a vacuum chamber ; and cooling the heat-treated needle body , characterized in that the method further comprises, before the heat-treating, manufacturing a hollow needle body in a desired shape using an alloy or a single metal, and wherein the manufacturing comprises filling the hollow of the needle body with a packing member . heat-treating a needle body at a predetermined temperature under an inert gas atmosphere after the needle body is placed in a vacuum chamber ; and cooling the heat-treated needle body , characterized in that the method further comprises, before the heat-treating, manufacturing a hollow needle body in a desired shape using an alloy or a single metal, and wherein the manufacturing comprises filling the hollow of the needle body with a packing member .
A patch comprising a backing layer and an adhesive agent layer, wherein the adhesive agent layer is non-aqueous, the adhesive agent layer contains nonylic acid vanillylamide, terpene-based resin, rosin-based resin, styrene-isoprene-styrene block copolymer, liquid paraffin, polyisobutylene, and at least one anti-inflammatory analgesic agent selected from the group consisting of methyl salicylate, glycol salicylate, l-menthol, dl-camphor, peppermint oil, and thymol a content of nonylic acid vanillylamide in the adhesive agent layer is 0.005 to 0.1% by mass based on a total mass of the adhesive agent layer a mass ratio of a content of the terpene-based resin to a content of the rosin-based resin ((content of the terpene-based resin) / (content of the rosin-based resin)) in the adhesive agent layer is 0.45 to 1.3, a mass ratio of a content of the styrene-isoprene-styrene block copolymer to a content of the liquid paraffin ((content of the styrene-isoprene-styrene block copolymer) / (content of the liquid paraffin)) in the adhesive agent layer is 0.45 to 1.2, and a mass ratio of a content of the styrene-isoprene-styrene block copolymer and a content of the polyisobutylene ((content of the styrene-isoprene-styrene block copolymer) : (content of the polyisobutylene)) in the adhesive agent layer is 1 : 0.28 to 1 : 0.58. the adhesive agent layer is non-aqueous, the adhesive agent layer contains nonylic acid vanillylamide, terpene-based resin, rosin-based resin, styrene-isoprene-styrene block copolymer, liquid paraffin, polyisobutylene, and at least one anti-inflammatory analgesic agent selected from the group consisting of methyl salicylate, glycol salicylate, l-menthol, dl-camphor, peppermint oil, and thymol a content of nonylic acid vanillylamide in the adhesive agent layer is 0.005 to 0.1% by mass based on a total mass of the adhesive agent layer a mass ratio of a content of the terpene-based resin to a content of the rosin-based resin ((content of the terpene-based resin) / (content of the rosin-based resin)) in the adhesive agent layer is 0.45 to 1.3, a mass ratio of a content of the styrene-isoprene-styrene block copolymer to a content of the liquid paraffin ((content of the styrene-isoprene-styrene block copolymer) / (content of the liquid paraffin)) in the adhesive agent layer is 0.45 to 1.2, and a mass ratio of a content of the styrene-isoprene-styrene block copolymer and a content of the polyisobutylene ((content of the styrene-isoprene-styrene block copolymer) : (content of the polyisobutylene)) in the adhesive agent layer is 1 : 0.28 to 1 : 0.58.