mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition, comprising (A) a graft copolymer having a multilayer structure, and (B) a thermoplastic copolymer, wherein the graft copolymer having a multilayer structure (A) comprises: (A-1) a core of (a) a conjugated diene-based rubber latex; and (A-2) an intermediate layer comprising a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound; and (A-3) a graft layer comprising a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound, the core (A-1) of (a) the conjugated diene-based rubber latex has a weight average particle diameter of 500 Å to 2,000 Å, the glass transition temperature of the intermediate layer (A-2) is 40°C or less, and the glass transition temperature of the graft layer (A-3) is 80°C or more, the thermoplastic copolymer (B) comprises a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound, the difference of refractive indexes between the graft copolymer having a multilayer structure (A) and the thermoplastic copolymer (B) is less than 0.01; and wherein the graft copolymer having a multilayer structure (A) and the thermoplastic copolymer (B) are comprised in a weight ratio of 25:75 to 70:30. wherein the graft copolymer having a multilayer structure (A) comprises: (A-1) a core of (a) a conjugated diene-based rubber latex; and (A-2) an intermediate layer comprising a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound; and (A-3) a graft layer comprising a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound, the core (A-1) of (a) the conjugated diene-based rubber latex has a weight average particle diameter of 500 Å to 2,000 Å, the glass transition temperature of the intermediate layer (A-2) is 40°C or less, and the glass transition temperature of the graft layer (A-3) is 80°C or more, the thermoplastic copolymer (B) comprises a repeating unit derived from (b) a (meth)acrylic acid ester compound, a repeating unit derived from (c) an aromatic vinyl compound, and a repeating unit derived from (d) a vinyl cyan compound, the difference of refractive indexes between the graft copolymer having a multilayer structure (A) and the thermoplastic copolymer (B) is less than 0.01; and wherein the graft copolymer having a multilayer structure (A) and the thermoplastic copolymer (B) are comprised in a weight ratio of 25:75 to 70:30.
A reference symbol indication method carried out by a user equipment, comprising: receiving , by the user equipment, data sent by a base station; receiving , by the user equipment, a target parameter sent by the base station, wherein the target parameter comprises a target reference symbol indication; determining , by the user equipment, a target transmission mode and target reference symbol information based on the target parameter and a preset reference symbol mapping relationship, wherein the preset reference symbol mapping relationship comprises a mapping relationship between a reference symbol indication, reference symbol information, and a transmission mode, and the transmission mode is a transmission mode used by the base station to send the data and comprises an open-loop transmission mode and a closed-loop transmission mode; and generating , by the user equipment, a target reference symbol based on the target reference symbol information, and demodulating the data based on the target reference symbol and the target transmission mode, wherein the reference symbol is a demodulation reference signal DMRS, the reference symbol indication is a DMRS indication, and the reference symbol information is a DMRS message, wherein the DMRS message includes one or more DMRS port numbers and a quantity of data mapping layers, and the DMRS indication is used to indicate different DMRS messages. receiving , by the user equipment, data sent by a base station; receiving , by the user equipment, a target parameter sent by the base station, wherein the target parameter comprises a target reference symbol indication; determining , by the user equipment, a target transmission mode and target reference symbol information based on the target parameter and a preset reference symbol mapping relationship, wherein the preset reference symbol mapping relationship comprises a mapping relationship between a reference symbol indication, reference symbol information, and a transmission mode, and the transmission mode is a transmission mode used by the base station to send the data and comprises an open-loop transmission mode and a closed-loop transmission mode; and generating , by the user equipment, a target reference symbol based on the target reference symbol information, and demodulating the data based on the target reference symbol and the target transmission mode, wherein the reference symbol is a demodulation reference signal DMRS, the reference symbol indication is a DMRS indication, and the reference symbol information is a DMRS message, wherein the DMRS message includes one or more DMRS port numbers and a quantity of data mapping layers, and the DMRS indication is used to indicate different DMRS messages.
A code reader , comprising: a housing ; a scanner disposed within said housing, and configured to scan a machine-readable indicia in a target area; an illumination source configured to emit an anti-microbial illuminatior characterized by a reflective roller shade configured to be positioned in a retracted position and a deployed position, the deployed position configured to cover the target area and illumination source to create a covered workspace; and a processing unit in communication with said scanner and said illumination source, and configured to select a cleaning function and cause said illumination source to emit the anti-microbial illumination toward the reflective roller shade and/or the target area to disinfect surfaces in the target area. a housing ; a scanner disposed within said housing, and configured to scan a machine-readable indicia in a target area; an illumination source configured to emit an anti-microbial illuminatior characterized by a reflective roller shade configured to be positioned in a retracted position and a deployed position, the deployed position configured to cover the target area and illumination source to create a covered workspace; and a processing unit in communication with said scanner and said illumination source, and configured to select a cleaning function and cause said illumination source to emit the anti-microbial illumination toward the reflective roller shade and/or the target area to disinfect surfaces in the target area.
A handheld dental tool, comprising a handle with at least one connecting part and a coupling member at one end, and a second connecting part and a second coupling member at the other end of the handle , wherein a modelling tip having a shank is provided to fit the coupling member, and that the modelling tip has a coating of a material which otherwise is more flexible with respect to the material of the modelling tip , wherein the material of the coating has a surface energy of less than 35mN/m with respect to the material of the modelling tip, characterized in that the modelling tip comprises a core which terminates in a core tip and which passes through the coating and hence a front region of the modelling tip and, at the front end thereof, is free of the coating , and wherein the layer thickness of the coating decreases towards the front.
A method comprising: tracking sound, detected by a microphone of a computing device, over a period of time; based on the sound tracked over the period of time, determining a noise threshold; and tuning a sensitivity of the microphone to wake the computing device when ambient noise, detected by the microphone, has a signal strength equal to or exceeding the noise threshold; characterized in that the method further comprises: recording events when the computing device exits a sleep mode via the use of peripherals rather than the microphone detecting ambient noise exceeding the noise threshold; and determining the noise threshold is inaccurate when a number of the events recorded exceeds a specified value. tracking sound, detected by a microphone of a computing device, over a period of time; based on the sound tracked over the period of time, determining a noise threshold; and tuning a sensitivity of the microphone to wake the computing device when ambient noise, detected by the microphone, has a signal strength equal to or exceeding the noise threshold; recording events when the computing device exits a sleep mode via the use of peripherals rather than the microphone detecting ambient noise exceeding the noise threshold; and determining the noise threshold is inaccurate when a number of the events recorded exceeds a specified value.
Ventilation device for ventilating a patient, comprising at least a fluid supply unit and a fluid discharge unit that are suitable for respectively supplying (ZV, ZP) a fluid into at least one airway , i.e., into a lung part or into the lung, of a patient and for discharging (AV, AP) the fluid from this airway ; and further comprising a control device which, at least during a ventilation process of the at least one airway , i.e., the at least one-time supply of the fluid into the at least one airway and the at least one-time discharge of the fluid from the at least one airway by operating the ventilation device , is configured for setting a profile of a pressure P in the airway and a profile of a volume V of the fluid that is supplied to the airway and discharged from the airway according to V = f ZP (P) and V = f AP (P) or according to P = f ZV (V) and P = f AV (V), wherein the ventilation process takes place within a pressure interval and within a volume interval ; characterized in that an average volumetric flow rate FD is determined by the control device , based on the prior ventilation processes or based on the preset parameters, in particular frequency and tidal volume, by dividing the sum of the absolute values of the supplied and the discharged fluid by the duration of the ventilation process, and that by the control device the ventilation process is set in such a way that while supplying the fluid and while discharging the fluid , a volumetric flow rate F(t) [L/min] varies at most by 50% with respect to the average volumetric flow rate FD , at least for 80% of a duration of the ventilation process.
A vehicular door handle assembly for opening a vehicle door, said handle assembly comprising: a chassis assembly having a forward end and a rearward end, said forward end having an arm rotatable about an axis perpendicular to the longitudinal axis (A) of the chassis , said rearward end having a rotatable bellcrank ; and a handle grip movable to an actuated position to open a vehicle door, the handle grip having a forward end and a rearward end, said forward end having connection features to rigidly connect with the rotatable arm of the chassis , said rearward end having a plunger rotatably connected to a rear end of the handle grip and rotatably connected to the bellcrank . a chassis assembly having a forward end and a rearward end, said forward end having an arm rotatable about an axis perpendicular to the longitudinal axis (A) of the chassis , said rearward end having a rotatable bellcrank ; and a handle grip movable to an actuated position to open a vehicle door, the handle grip having a forward end and a rearward end, said forward end having connection features to rigidly connect with the rotatable arm of the chassis , said rearward end having a plunger rotatably connected to a rear end of the handle grip and rotatably connected to the bellcrank .
A bit interleaving method for interleaving bits of a codeword generated based on a quasi-cyclic low-density parity check coding scheme, including a repeat-accumulate quasi-cyclic low-density parity check coding scheme, the bit interleaving method comprising: a cyclic block permutation step of applying a cyclic block permutation process to the codeword made up of N cyclic blocks each consisting of Q bits, to reorder the cyclic blocks in accordance with a cyclic block permutation rule defining a reordering of the cyclic blocks; a bit permutation step of applying a bit permutation process to the codeword after the cyclic block permutation process, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is a multiple of M, wherein the N cyclic blocks of the codeword are divided into N/M sections, each section consisting of M cyclic blocks; and wherein, according to the bit permutation rule and for each of the N/M sections, the M×Q bits of the section are written into an M by Q matrix row-by-row and the written M×Q bits of the section are read from the M by Q matrix column-by-column, such that each constellation word is made up of the bits of one column of the M by Q matrix. a cyclic block permutation step of applying a cyclic block permutation process to the codeword made up of N cyclic blocks each consisting of Q bits, to reorder the cyclic blocks in accordance with a cyclic block permutation rule defining a reordering of the cyclic blocks; a bit permutation step of applying a bit permutation process to the codeword after the cyclic block permutation process, to reorder the bits of the codeword in accordance with a bit permutation rule defining a reordering of the bits; and a dividing step of dividing the codeword after the bit permutation process into a plurality of constellation words, each of the constellation words being made up of M bits, wherein N is a multiple of M, wherein the N cyclic blocks of the codeword are divided into N/M sections, each section consisting of M cyclic blocks; and wherein, according to the bit permutation rule and for each of the N/M sections, the M×Q bits of the section are written into an M by Q matrix row-by-row and the written M×Q bits of the section are read from the M by Q matrix column-by-column, such that each constellation word is made up of the bits of one column of the M by Q matrix.
A radiation image conversion panel comprising: a substrate ; a resin layer coated on a main face of the substrate ; and a phosphor formed by vapor deposition on a main face of the resin layer on a side opposite from the substrate and made of a columnar crystal; wherein the resin layer is formed by a step-cured resin subjected to a step-by-step curing process, the resin layer is formed by applying a resin and then curing it by heat, and the resin layer is in a stage in the step-by-step curing process in which the resin layer is prior to complete curing of the resin layer characterized in that the phosphor is constructed such that the columnar crystal in a root part of the phosphor has a pillar form on the substrate side substantially equal to that of the columnar crystal on a side opposite from the substrate side, the root part being a crystal part from the main face of the resin layer to 30 μm thereabove. a substrate ; a resin layer coated on a main face of the substrate ; and a phosphor formed by vapor deposition on a main face of the resin layer on a side opposite from the substrate and made of a columnar crystal; wherein the resin layer is formed by a step-cured resin subjected to a step-by-step curing process, the resin layer is formed by applying a resin and then curing it by heat, and the resin layer is in a stage in the step-by-step curing process in which the resin layer is prior to complete curing of the resin layer characterized in that the phosphor is constructed such that the columnar crystal in a root part of the phosphor has a pillar form on the substrate side substantially equal to that of the columnar crystal on a side opposite from the substrate side, the root part being a crystal part from the main face of the resin layer to 30 μm thereabove.
A method for wireless communications at a first device (115; 705; 805; 1005), comprising: determining (605; 1505) a plurality of basis vectors for a set of beams, wherein the plurality of basis vectors is used for frequency domain compression for determining a set of non-zero precoding coefficients; encoding (610; 1510) first information for the plurality of basis vectors to obtain a first encoded report (215; 405), wherein the first information comprises a first payload size; encoding (615; 1515) second information for the plurality of basis vectors to obtain a second encoded report (220; 410), wherein a second payload size for the second information is based at least in part on the first information; and transmitting (620; 1520) the first and second encoded reports to a second device (105; 1105; 1205; 1405), wherein: the first information (415-a) indicates a respective number of basis vectors for each beam of the set of beams; and the second information (415-b) indicates respective element indices for the basis vectors for each beam of the set of beams. determining (605; 1505) a plurality of basis vectors for a set of beams, wherein the plurality of basis vectors is used for frequency domain compression for determining a set of non-zero precoding coefficients; encoding (610; 1510) first information for the plurality of basis vectors to obtain a first encoded report (215; 405), wherein the first information comprises a first payload size; encoding (615; 1515) second information for the plurality of basis vectors to obtain a second encoded report (220; 410), wherein a second payload size for the second information is based at least in part on the first information; and transmitting (620; 1520) the first and second encoded reports to a second device (105; 1105; 1205; 1405), wherein: the first information (415-a) indicates a respective number of basis vectors for each beam of the set of beams; and the second information (415-b) indicates respective element indices for the basis vectors for each beam of the set of beams. the first information (415-a) indicates a respective number of basis vectors for each beam of the set of beams; and the second information (415-b) indicates respective element indices for the basis vectors for each beam of the set of beams.
Mechanical timepiece oscillator including a first rigid support element , a second solid inertial element and, between said first rigid support element and said second solid inertial element , at least two first flexible strips (31; 32) which support said second solid inertial element and are arranged to return the latter to a rest position, wherein said second solid inertial element is arranged to oscillate angularly in an oscillation plane about said rest position, said two first flexible strips (31; 32) do not touch each other and their projections onto said oscillation plane intersect, in the rest position, at a crossing point (P), through which passes the axis of rotation of said second solid inertial element perpendicularly to said oscillation plane, and the embedding points of said first flexible strips (31; 32) in said first rigid support element and said second solid inertial element define two strip directions (DL1; DL2), which are parallel to said oscillation plane and which form between them, in the rest position, in projection onto said oscillation plane, a vertex angle (a), the position of said crossing point (P) being defined by the ratio X= D/L, where D is the distance between the projection onto said oscillation plane of one of the embedding points of said first strips (31; 32) in said first rigid support element and said crossing point (P), and where L is the total length of the projection, onto said oscillation plane, of said strip (31; 32), and where the value of said ratio D/L is comprised between 0 and 1, and where said vertex angle (a) is less than or equal to 70°, wherein said first strips (31; 32) and their embedding points define together a pivot which, in projection onto said oscillation plane, is symmetrical with respect to an axis of symmetry (AA) passing through said crossing point (P), wherein in the rest position, in projection onto said oscillation plane, the centre of mass of said second solid inertial element is located on said axis of symmetry (AA) of said pivot , and characterised in that , in projection onto said oscillation plane, the centre of mass of said second solid inertial element is at a non-zero distance from said crossing point (P) corresponding to the axis of rotation of said second solid inertial element , which non-zero distance is comprised between 0.1 times and 0.2 times the total length (L) of the projection, onto said oscillation plane, of said strip (31; 32).
Use of a composition comprising a side-chain-type nonreactive polyether-modified-type modified silicone oil together with 1,2-o-dilauryl-rac-glycero-3-glutaric acid (6'-methylresorufin) ester to stabilize a substrate solution for measuring lipase activity comprising 1,2-o-dilauryl-rac-glycero-3-glutaric acid (6'-methylresorufin) ester as the substrate for measuring lipase activity.
Low temperature curable proppant particles, comprising: particles; a partially cured phenolic resin coating the particles; 0.1 weight parts or more to 2.0 weight parts or less of surfactant per 100 weight parts of the particles; and wherein the proppant particles are dry and free flowing at room temperature. particles; a partially cured phenolic resin coating the particles; 0.1 weight parts or more to 2.0 weight parts or less of surfactant per 100 weight parts of the particles; and wherein the proppant particles are dry and free flowing at room temperature.
Method for manufacturing a doped wurtzite Aluminum Nitride piezoelectric thin film material, which method comprises the steps of: - providing a deposition device, such as a pulsed laser deposition device or a physical vapor deposition device, with a target and a substrate, wherein the target material is a doped Aluminum Nitride composite, wherein the doping element is a rare earth element, preferably Scandium; - depositing a first layer of the target material on the substrate by operating the deposition device, wherein the kinetic energy of the plasma particles being deposited is above a first threshold value; and - depositing a second layer of the target material on top of the first layer by operating the deposition device, wherein the kinetic energy of the plasma particles being deposited is below a second threshold value, wherein the first threshold value is larger than the second threshold value. - providing a deposition device, such as a pulsed laser deposition device or a physical vapor deposition device, with a target and a substrate, wherein the target material is a doped Aluminum Nitride composite, wherein the doping element is a rare earth element, preferably Scandium; - depositing a first layer of the target material on the substrate by operating the deposition device, wherein the kinetic energy of the plasma particles being deposited is above a first threshold value; and - depositing a second layer of the target material on top of the first layer by operating the deposition device, wherein the kinetic energy of the plasma particles being deposited is below a second threshold value,
A recombinant polynucleotide comprising a nucleic acid sequence encoding an enzyme involved in converting tyrosine to L-DOPA, wherein said nucleic acid sequence is a CYP76AD6 gene under the control of a promoter or a CYP76AD15 gene under the control of a promoter.