mhurhangee/ep-ind-claims huggingface dataset:
A method of code block division, comprising: determining a maximum information block length of a code block according to a plurality of division related parameters associated with a Transport Block, TB, wherein the plurality of division related parameters includes physical channel resource parameters that describe a maximum number N cb of ODFM symbols allowed to be occupied by each code block in a time domain and a number N subcarrier of frequency-domain subcarriers occupied by a transmission signal that includes the TB, and a plurality of spectral efficiency parameters that describe encoding parameters for the TB, wherein the plurality of spectral efficiency parameters include a modulation scheme, M, of the transmission signal that includes the TB, a coding rate, R, of the TB, and a number, N layer, of spatial layers occupied by the transmission signal, and wherein an encoding mode of the TB is a convolutional code; and dividing the TB having a length greater than the maximum information block length into two or more code blocks, wherein a number of the two or more code blocks are determined according to the maximum information block length, a size of the TB, and a length of cyclic redundancy check bits of each code block. determining a maximum information block length of a code block according to a plurality of division related parameters associated with a Transport Block, TB, wherein the plurality of division related parameters includes physical channel resource parameters that describe a maximum number N cb of ODFM symbols allowed to be occupied by each code block in a time domain and a number N subcarrier of frequency-domain subcarriers occupied by a transmission signal that includes the TB, and a plurality of spectral efficiency parameters that describe encoding parameters for the TB, wherein the plurality of spectral efficiency parameters include a modulation scheme, M, of the transmission signal that includes the TB, a coding rate, R, of the TB, and a number, N layer, of spatial layers occupied by the transmission signal, and wherein an encoding mode of the TB is a convolutional code; and dividing the TB having a length greater than the maximum information block length into two or more code blocks, wherein a number of the two or more code blocks are determined according to the maximum information block length, a size of the TB, and a length of cyclic redundancy check bits of each code block.
A method for electrostatic coating of a substrate, comprising the steps of: supplying a working fluid at between 0.5 bar and 10 bar in a container containing an amount of coating powder; extracting from said container a first flow made up of working fluid and powder; atomizing said flow of working fluid and powder with a jet of working fluid at a pressure of between 0.5 bar and 10 bar; supplying working fluid at a pressure of between 0.5 bar and 10 bar to create a second transport flow made up of working fluid and atomized powder; charging said second flow of working fluid and atomized powder electrostatically under pressure; and sending said second flow of working fluid and atomized electrostatically charged powder onto a substrate, said method being characterized in that: said working fluid is a mixture made up of nitrogen in a range of 80-98%, oxygen in a range of 1-19%, argon in a range of 1-2%; wherein said mixture is air modified in nitrogen/oxygen/argon obtained from hollow-fibre osmotic separation membranes or by means of carbon molecular sieve using the pressure-swing-absorption system obtained continuously during coating by taking air from the environment and depriving it of residual substances not comprised in said composition; wherein said working fluid is thermally conditioned both by heating and by cooling to maintain a flow temperature of between -15°C and +45°C, preferably between 5°C and 20°C. supplying a working fluid at between 0.5 bar and 10 bar in a container containing an amount of coating powder; extracting from said container a first flow made up of working fluid and powder; atomizing said flow of working fluid and powder with a jet of working fluid at a pressure of between 0.5 bar and 10 bar; supplying working fluid at a pressure of between 0.5 bar and 10 bar to create a second transport flow made up of working fluid and atomized powder; charging said second flow of working fluid and atomized powder electrostatically under pressure; and sending said second flow of working fluid and atomized electrostatically charged powder onto a substrate, said working fluid is a mixture made up of nitrogen in a range of 80-98%, oxygen in a range of 1-19%, argon in a range of 1-2%; wherein said mixture is air modified in nitrogen/oxygen/argon obtained from hollow-fibre osmotic separation membranes or by means of carbon molecular sieve using the pressure-swing-absorption system obtained continuously during coating by taking air from the environment and depriving it of residual substances not comprised in said composition; wherein said working fluid is thermally conditioned both by heating and by cooling to maintain a flow temperature of between -15°C and +45°C, preferably between 5°C and 20°C.
A tactile sensation providing apparatus comprising: a touch sensor configured to receive an input; a load detection unit (12, 31, Fig 6b) configured to detect a pressure load on a touch face of the touch sensor; a tactile sensation providing unit (13, 32, Fig 6b) configured to vibrate the touch face, a memory unit configured to store drive signal information of the tactile sensation providing unit (12, 32, Fig 6b); a control unit configured to read out the drive signal information from the memory unit, when the pressure load detected by the load detection unit (12, 31, Fig 6b) satisfies a standard to provide a tactile sensation, and to control drive of the tactile sensation providing unit (13, 32, Fig 6b) based on the drive signal information, such that a button depression sensation is provided to an object pressing the touch face, wherein the load detection unit (12, 31, Fig 6b) and the tactile sensation providing unit (13, 32, Fig 6b) are integrally configured. a touch sensor configured to receive an input; a load detection unit (12, 31, Fig 6b) configured to detect a pressure load on a touch face of the touch sensor; a tactile sensation providing unit (13, 32, Fig 6b) configured to vibrate the touch face, a memory unit configured to store drive signal information of the tactile sensation providing unit (12, 32, Fig 6b); a control unit configured to read out the drive signal information from the memory unit, when the pressure load detected by the load detection unit (12, 31, Fig 6b) satisfies a standard to provide a tactile sensation, and to control drive of the tactile sensation providing unit (13, 32, Fig 6b) based on the drive signal information, such that a button depression sensation is provided to an object pressing the touch face, wherein the load detection unit (12, 31, Fig 6b) and the tactile sensation providing unit (13, 32, Fig 6b) are integrally configured.
A safety pen needle assembly comprising: a hub having a tubular body with a proximal end, a distal end, a channel defined interiorly of said body and extending between said proximal and distal ends, and a wall disposed within said body to extend transversely at least partially across said channel; a needle extending through said channel having a distal end, formed for insertion into a patient, and a proximal end, wherein said needle is fixed to said hub with said distal end being located distally of said wall and said proximal end being located proximally of said wall; a shield disposed proximally of said wall and at least partially within said hub; a biasing means disposed to urge said shield proximally from a first position to a second position; at least one adjustable tab on said body of said hub, characterized by said tab being adjustable from a first state to a second state, wherein, in said first state, said tab extends radially inwardly from the body into said channel so as to overlap a proximal end 42 of the shield 18, thus providing obstruction to proximal movement of the shield 18, said tab in said first state retaining said shield in said first position with said proximal end of said needle being exposed, and wherein, in said second state, said tab is adjusted radially outwardly so as to extend less into the channel 30, as compared to the first state so as to permit said shield to be urged proximally to said second position by said biasing means, said shield covering said proximal end of said needle in said second position. a hub having a tubular body with a proximal end, a distal end, a channel defined interiorly of said body and extending between said proximal and distal ends, and a wall disposed within said body to extend transversely at least partially across said channel; a needle extending through said channel having a distal end, formed for insertion into a patient, and a proximal end, wherein said needle is fixed to said hub with said distal end being located distally of said wall and said proximal end being located proximally of said wall; a shield disposed proximally of said wall and at least partially within said hub; a biasing means disposed to urge said shield proximally from a first position to a second position; at least one adjustable tab on said body of said hub, characterized by said tab being adjustable from a first state to a second state, wherein, in said first state, said tab extends radially inwardly from the body into said channel so as to overlap a proximal end 42 of the shield 18, thus providing obstruction to proximal movement of the shield 18, said tab in said first state retaining said shield in said first position with said proximal end of said needle being exposed, and wherein, in said second state, said tab is adjusted radially outwardly so as to extend less into the channel 30, as compared to the first state so as to permit said shield to be urged proximally to said second position by said biasing means, said shield covering said proximal end of said needle in said second position.
A method of enhancing a signal for zero crossing analysis, the method comprising: receiving a stream of input samples; applying a Fourier transform on blocks of the input samples to produce output frames; detecting and tracing a narrowband frequency modulated signal through the output frames; applying a filter in each frame to attenuate frequencies above or below the narrowband signal; applying an inverse Fourier transform to produce an output signal; and measuring a time between successive zero crossings in the output signal. receiving a stream of input samples; applying a Fourier transform on blocks of the input samples to produce output frames; detecting and tracing a narrowband frequency modulated signal through the output frames; applying a filter in each frame to attenuate frequencies above or below the narrowband signal; applying an inverse Fourier transform to produce an output signal; and measuring a time between successive zero crossings in the output signal.
A construct comprising (i) a nucleotide sequence which encodes tyrosine hydroxylase, (ii) a nucleotide sequence which encodes GTP-cyclohydrolase I and (iii) a nucleotide sequence which encodes Aromatic Amino Acid Dopa Decarboxylase (AADC) wherein the nucleotide sequence encoding TH is linked to the nucleotide sequence encoding CH1 such that they encode a fusion protein TH-CH1.
An inspection system (10, 101) comprising: a first device configured to record inspection target data in a predetermined area; a second device operated by a user who inspects whether the inspection target data is illegitimate or not; and a third device configured to use an inspection result of the inspection target data, wherein the second device is further configured to acquire the inspection target data recorded by the first device and record the inspection result of the inspection target data in the predetermined area, and the third device is further configured to acquire the inspection result recorded by the second device, characterized in that the second device is configured to record the inspection result in a predetermined blockchain network, and the third device is configured to acquire the inspection result from the blockchain network. a first device configured to record inspection target data in a predetermined area; a second device operated by a user who inspects whether the inspection target data is illegitimate or not; and a third device configured to use an inspection result of the inspection target data, wherein the second device is further configured to acquire the inspection target data recorded by the first device and record the inspection result of the inspection target data in the predetermined area, and the third device is further configured to acquire the inspection result recorded by the second device, characterized in that the second device is configured to record the inspection result in a predetermined blockchain network, and the third device is configured to acquire the inspection result from the blockchain network.
An epoxy resin composition comprising the following, [A'],, and: a bisphenol-type epoxy resin having a glass transition temperature or melting point of 50°C or higher determined according to JISK7121; [A'] an epoxy resin which is in a liquid state at 25°C; an epoxy resin curing agent which is dicyandiamide or a derivative thereof; and at least one block copolymer selected from the group consisting of S-B-M, B-M, and M-B-M, wherein the blocks are linked to each other by a covalent bond or by an intermediate molecule bound to one of the blocks via one covalent bond formation and to the other block via another covalent bond formation; the block M is a methyl methacrylate homopolymer or a copolymer comprising at least 50% by weight of methyl methacrylate; the block B is incompatible with the block M and has a glass transition temperature of 20°C or lower; and the block S is incompatible with the blocks B and M and has a glass transition temperature higher than that of the block B which epoxy resin composition is other than a composition of Examples 1 to 14 or Comparative Examples 2 and 3 of EP2154171A. a bisphenol-type epoxy resin having a glass transition temperature or melting point of 50°C or higher determined according to JISK7121; [A'] an epoxy resin which is in a liquid state at 25°C; an epoxy resin curing agent which is dicyandiamide or a derivative thereof; and at least one block copolymer selected from the group consisting of S-B-M, B-M, and M-B-M, wherein the blocks are linked to each other by a covalent bond or by an intermediate molecule bound to one of the blocks via one covalent bond formation and to the other block via another covalent bond formation; the block M is a methyl methacrylate homopolymer or a copolymer comprising at least 50% by weight of methyl methacrylate; the block B is incompatible with the block M and has a glass transition temperature of 20°C or lower; and the block S is incompatible with the blocks B and M and has a glass transition temperature higher than that of the block B which epoxy resin composition is other than a composition of Examples 1 to 14 or Comparative Examples 2 and 3 of EP2154171A.
A sheet metal working tool comprising a lower and an upper moveable tool part and a holder part that are designed, during a sheet metal working operation in which a sheet metal fabrication is subjected to working between said tool parts, to hold said sheet metal fabrication part to said upper moveable tool part in a working position by spring elements supporting said holder part, and also linkage devices that are designed to impart a speed component to said holder part, characterised in that each of said linkage devices comprises: a housing, and a system of interconnected and articulated links (3, 5, 10), connected to said holder part, of which one linkage arm is designed to be acted upon by the movement of said upper movable tool part, creating a power-transmitting operative connection between said upper moveable tool part and said holder part, a generally angled linkage arm having one of its legs connected by way of a link to a leg of said linkage arm, said leg of said generally angled linkage arm engaging a lower push rod, which in turn is designed to be acted upon by springs of said holder part, said power-transmitting operative connection being analogous to a single linkage arm, the length of which varies over time, so that from a standstill in a basic position said holder part has substantially the same speed as said upper moveable tool part in a starting position, and a corresponding retardation in a subsequent ascending movement. a housing, and a system of interconnected and articulated links (3, 5, 10), connected to said holder part, of which one linkage arm is designed to be acted upon by the movement of said upper movable tool part, creating a power-transmitting operative connection between said upper moveable tool part and said holder part, a generally angled linkage arm having one of its legs connected by way of a link to a leg of said linkage arm, said leg of said generally angled linkage arm engaging a lower push rod, which in turn is designed to be acted upon by springs of said holder part, said power-transmitting operative connection being analogous to a single linkage arm, the length of which varies over time, so that from a standstill in a basic position said holder part has substantially the same speed as said upper moveable tool part in a starting position, and a corresponding retardation in a subsequent ascending movement.
A valve assembly for dispensing a flowable product from a pressurised container, the valve assembly comprising: a resilient sleeve member comprising a lower fixing portion, an intermediate deformable portion and an upper sealing portion, a valve stem extending within the resilient sleeve member and fixed to the lower fixing portion of the resilient sleeve member, an actuator mounted on the upper sealing portion of the resilient sleeve member, wherein the valve stem includes a hollow cylindrical body, an end cap closing an upper end of the hollow cylindrical body, and one or more apertures arranged around the circumference of the hollow cylindrical body adjacent to the end cap, the apertures being covered by the upper sealing portion of the resilient sleeve member in a closed position of the valve assembly, and wherein the actuator includes an interior flow passage and a first actuator bearing surface adapted to engage with a corresponding bearing surface on the upper sealing portion of the resilient sleeve member, such that movement of the actuator downwards from the closed position of the valve assembly to an open position of the valve assembly causes the intermediate deformable portion of the resilient sleeve member to deform such that the apertures are not covered by the upper sealing portion of the resilient sleeve member. a resilient sleeve member comprising a lower fixing portion, an intermediate deformable portion and an upper sealing portion, a valve stem extending within the resilient sleeve member and fixed to the lower fixing portion of the resilient sleeve member, an actuator mounted on the upper sealing portion of the resilient sleeve member, wherein the valve stem includes a hollow cylindrical body, an end cap closing an upper end of the hollow cylindrical body, and one or more apertures arranged around the circumference of the hollow cylindrical body adjacent to the end cap, the apertures being covered by the upper sealing portion of the resilient sleeve member in a closed position of the valve assembly, and wherein the actuator includes an interior flow passage and a first actuator bearing surface adapted to engage with a corresponding bearing surface on the upper sealing portion of the resilient sleeve member, such that movement of the actuator downwards from the closed position of the valve assembly to an open position of the valve assembly causes the intermediate deformable portion of the resilient sleeve member to deform such that the apertures are not covered by the upper sealing portion of the resilient sleeve member.
A polybutylene terephthalate composition, comprising 45 to 75 % by weight of polybutylene terephthalate, 20 to 45 % by weight of at least one carbon fiber, 0 to 20 % by weight of at least one solid filler other than the carbon fiber, and 0 to 30 % by weight of at least one thermoplastic polyester other than polybutylene terephthalate, each being based on the total weight of the polybutylene terephthalate composition, wherein the at least one carbon fiber has a carbon content of 93% by weight or greater, and comprises a sizing agent other than epoxy sizing agent. 45 to 75 % by weight of polybutylene terephthalate, 20 to 45 % by weight of at least one carbon fiber, 0 to 20 % by weight of at least one solid filler other than the carbon fiber, and 0 to 30 % by weight of at least one thermoplastic polyester other than polybutylene terephthalate,
An in vitro method for determining whether a subject with melanoma has an increased risk of metastasis, the method comprising: (i) determining the expression of Ambra-1 and Loricrin in a tissue sample obtained from the subject, wherein the tissue sample comprises tissue overlying a primary melanoma; and (ii) comparing the expression obtained in (i) with a reference tissue or levels obtained therefrom, wherein a decrease in the expression of Ambra-1 and Loricrin in the tissue sample compared to the reference tissue or levels, or a loss of expression of Ambra-1 and Loricrin in the tissue sample, is indicative of an increased risk of metastasis. (i) determining the expression of Ambra-1 and Loricrin in a tissue sample obtained from the subject, wherein the tissue sample comprises tissue overlying a primary melanoma; and (ii) comparing the expression obtained in (i) with a reference tissue or levels obtained therefrom,