mhurhangee/patent-ind-claim-en huggingface dataset:
A spacer textile comprising: a surface textile layer; a rear surface textile layer; and a spacer thread connecting the textile layers, wherein the surface textile layer and the rear surface textile layer include a main thread provided with a plurality of open loops formed with openings in a longitudinal direction, wherein the surface textile layer and the rear surface textile layer further include an additional thread having leg portions transversely connected to the main thread by closed loops formed at portions being overlapped with the main thread, wherein the additional thread is a monofilament, and wherein the main thread has open loops continuously formed on one wale, and the additional thread has closed loops discontinuously formed at portions being overlapped with the main thread, wherein the main thread is knitted in the wale direction with a plurality of open loops and does not cross between pairs of wales, and the closed loops of the additional thread cross-connect the pairs of wales with their leg portions, characterised in that the number of closed loops of the additional thread is less than the number of open loops of the main thread. a surface textile layer; a rear surface textile layer; and a spacer thread connecting the textile layers, wherein the surface textile layer and the rear surface textile layer include a main thread provided with a plurality of open loops formed with openings in a longitudinal direction, wherein the surface textile layer and the rear surface textile layer further include an additional thread having leg portions transversely connected to the main thread by closed loops formed at portions being overlapped with the main thread, wherein the additional thread is a monofilament, and wherein the main thread has open loops continuously formed on one wale, and the additional thread has closed loops discontinuously formed at portions being overlapped with the main thread, wherein the main thread is knitted in the wale direction with a plurality of open loops and does not cross between pairs of wales, and the closed loops of the additional thread cross-connect the pairs of wales with their leg portions, characterised in that the number of closed loops of the additional thread is less than the number of open loops of the main thread.
A method for installing an electrical machine , the electrical machine including a stator assembly and a rotor assembly , the rotor assembly comprising a plurality of magnetic poles composed of a permanent magnetic material that is in a non-magnetized condition, the method comprising: after the electrical machine is installed, magnetizing a plurality of magnetic domains in the permanent magnetic material of each of the plurality of magnetic poles , serially aligning each of the plurality of magnetic poles relative to a magnetizing fixture , characterized in that when each respective magnetic pole is aligned with the magnetizing fixture , positioning the magnetizing fixture at a plurality of positions relative to the magnetic pole, and; at each of the positions, causing the magnetizing fixture to generate an external magnetic field effective to produce one of the plurality of magnetic domains , thereby individually magnetizing the plurality of magnetic domains; wherein positioning the magnetizing fixture at the plurality of positions relative to the magnetic pole comprises: moving the magnetizing fixture in a single direction along a linear trajectory connecting the plurality of positions. after the electrical machine is installed, magnetizing a plurality of magnetic domains in the permanent magnetic material of each of the plurality of magnetic poles , serially aligning each of the plurality of magnetic poles relative to a magnetizing fixture , characterized in that when each respective magnetic pole is aligned with the magnetizing fixture , positioning the magnetizing fixture at a plurality of positions relative to the magnetic pole, and; at each of the positions, causing the magnetizing fixture to generate an external magnetic field effective to produce one of the plurality of magnetic domains , thereby individually magnetizing the plurality of magnetic domains; wherein positioning the magnetizing fixture at the plurality of positions relative to the magnetic pole comprises: moving the magnetizing fixture in a single direction along a linear trajectory connecting the plurality of positions.
A component for a gas turbine engine, comprising: a wall (58;158;258;358) having an internal surface and an outer skin (56; 156;356); a cooling hole (54;154;254;354) formed in said wall (58;158;258;358), said cooling hole (54;154;254;354) including an inlet (72; 172) extending from said internal surface and merging into a metering section (68;168;268;368), and a diffusion section (70;170;270;370) downstream of said metering section (68;168;268;368) that extends to an outlet (74;174;374) located at said outer skin (56; 156); and at least two lobes embedded within said diffusion section (70; 170;270;370) of said cooling hole (54;154;254;354), wherein at least one surface of each of said at least two lobes is at least partially cylindrical; characterised in that a trailing edge of each of the at least two lobes is longitudinally offset in an upstream direction from a trailing edge of said diffusion section ; and said at least two lobes include different radii. a wall (58;158;258;358) having an internal surface and an outer skin (56; 156;356); a cooling hole (54;154;254;354) formed in said wall (58;158;258;358), said cooling hole (54;154;254;354) including an inlet (72; 172) extending from said internal surface and merging into a metering section (68;168;268;368), and a diffusion section (70;170;270;370) downstream of said metering section (68;168;268;368) that extends to an outlet (74;174;374) located at said outer skin (56; 156); and at least two lobes embedded within said diffusion section (70; 170;270;370) of said cooling hole (54;154;254;354), wherein at least one surface of each of said at least two lobes is at least partially cylindrical; characterised in that a trailing edge of each of the at least two lobes is longitudinally offset in an upstream direction from a trailing edge of said diffusion section ; and said at least two lobes include different radii.
A method of performing a self-test associated with a magnetic field sensor , comprising: generating a proximity signal responsive to a proximity of a sensed object; generating a threshold signal proportional to peak values of the proximity signal; identifying a plurality of peak values representative of peaks of the proximity signal; identifying a plurality of threshold values of the threshold signal; generating one or more difference values by differencing the identified peak values and associated identified threshold values; categorizing the one or more difference values into a plurality of potential categories , wherein the plurality of potential categories is representative of a plurality of self-test states of the proximity signal, characterised in that at least one of the plurality of potential categories is representative of a respective passing self-test and wherein another at least one of the plurality of potential categories is representative of a respective marginally passing self-test, wherein the marginally passing self-test is indicative of a respective one of the plurality of peak values being within a minimum acceptable margin above or below at least one of the plurality of threshold values; and communicating at least one of the plurality of category values indicative of at least one of the plurality of potential categories into which at least one of the one or more difference values was categorized. generating a proximity signal responsive to a proximity of a sensed object; generating a threshold signal proportional to peak values of the proximity signal; identifying a plurality of peak values representative of peaks of the proximity signal; identifying a plurality of threshold values of the threshold signal; generating one or more difference values by differencing the identified peak values and associated identified threshold values; categorizing the one or more difference values into a plurality of potential categories , wherein the plurality of potential categories is representative of a plurality of self-test states of the proximity signal, characterised in that at least one of the plurality of potential categories is representative of a respective passing self-test and wherein another at least one of the plurality of potential categories is representative of a respective marginally passing self-test, wherein the marginally passing self-test is indicative of a respective one of the plurality of peak values being within a minimum acceptable margin above or below at least one of the plurality of threshold values; and communicating at least one of the plurality of category values indicative of at least one of the plurality of potential categories into which at least one of the one or more difference values was categorized.
An elongated, reactive member for use in a nuclear core comprising: a tubular cladding substantially extending an elongated length of the reactive member ; a top end plug sealing off a top end of a central hollow cavity of the tubular cladding; a bottom end plug sealing off a bottom end of the central hollow cavity of the tubular cladding; an active element substantially occupying a lower portion of the central hollow cavity; a coil spring substantially extending between the top end plug and an upper surface of the active element , pressuring the active element toward the lower end plug ; and a spacer between a lower end of the spring and the upper surface of the active element , spreading a force of the spring over a larger portion of the upper surface of the active element than would be applied by the spring directly, wherein the spring is mechanically attached to the spacer , the spacer has a substantially flat head facing the upper surface of the active element and an opposite side that extends in an axial direction of an elongated dimension of the cladding with the opposite side being mechanically attached to the spring, and an upper portion of the opposite side of the spacer is a split tube with an outwardly, radially extending lip that fits over a rung of the spring to mechanically secure the spacer to the spring. a tubular cladding substantially extending an elongated length of the reactive member ; a top end plug sealing off a top end of a central hollow cavity of the tubular cladding; a bottom end plug sealing off a bottom end of the central hollow cavity of the tubular cladding; an active element substantially occupying a lower portion of the central hollow cavity; a coil spring substantially extending between the top end plug and an upper surface of the active element , pressuring the active element toward the lower end plug ; and a spacer between a lower end of the spring and the upper surface of the active element , spreading a force of the spring over a larger portion of the upper surface of the active element than would be applied by the spring directly, wherein the spring is mechanically attached to the spacer , the spacer has a substantially flat head facing the upper surface of the active element and an opposite side that extends in an axial direction of an elongated dimension of the cladding with the opposite side being mechanically attached to the spring, and an upper portion of the opposite side of the spacer is a split tube with an outwardly, radially extending lip that fits over a rung of the spring to mechanically secure the spacer to the spring.
A method of generating a 3-D patient-specific musculoskeletal model, the method comprising: acquiring a plurality of raw radio frequency ("RF") signals from an A-mode ultrasound scan of a bone ; tracking the acquiring of the plurality of RF signals in 3-D space and generating tracked data; isolating a bone contour from each of the plurality of RF signals ; transforming the bone contours into a point cloud using the tracked data; and optimizing a 3-D bone model of the bone with respect to the point cloud ; wherein isolating the bone contour further comprises: sampling each of the plurality of RF signals; and identifying a bone echo in each sample; wherein the 3-D bone model of the bone is an average bone model of a plurality of bone models in a statistical atlas; and wherein optimizing the 3-D bone model of the bone further comprises: comparing the 3-D bone model with the point cloud ; and based on the comparing, deforming the 3-D bone model to match the point cloud . acquiring a plurality of raw radio frequency ("RF") signals from an A-mode ultrasound scan of a bone ; tracking the acquiring of the plurality of RF signals in 3-D space and generating tracked data; isolating a bone contour from each of the plurality of RF signals ; transforming the bone contours into a point cloud using the tracked data; and optimizing a 3-D bone model of the bone with respect to the point cloud ; sampling each of the plurality of RF signals; and identifying a bone echo in each sample; comparing the 3-D bone model with the point cloud ; and based on the comparing, deforming the 3-D bone model to match the point cloud .
Imaging system comprising a plurality of pixel groups and a trigger generator adapted to generate at least one reset signal (TD 1 to TD 4 ) and a transfer signal (TS), being arranged in a temporal interval in which the reset signals (TD 1 to TD 4 ) are switched off, wherein each of the pixel groups comprises at least one pixel (3 to 6) and a programmable memory element adapted to store either a first value or a second value, wherein each of the pixels (3 to 6) comprises a pixel circuit with a photodiode (PD) and a storage capacitance (C FD ), wherein the pixel circuits , the trigger generator and the memory element are interconnected so that when the trigger generator sends the reset signal (TD 1 to TD 4 ) to the pixel circuit , the photodiode (PD) is held at a constant voltage, when the reset signal (TD 1 to TD 4 ) is switched off, the photodiode (PD) is adapted to accumulate a charge when it is electromagnetically irradiated, when the trigger generator sends the transfer signal (TS) to the circuit, the charge is transferred from the photodiode (PD) to the storage capacitance (C FD ), and the memory element is adapted to block the transfer signal (TS) from arriving on all the pixel circuits of the corresponding pixel group when it has stored the first value and is adapted to pass the transfer signal (TS) to all the pixel circuits of the corresponding pixel group when it has stored the second value.
A terahertz antenna, comprising - at least one photoconductive layer which generates charge carriers upon irradiation of light; - two electroconductive antenna elements via which an electric field can be applied to at least one section of the photoconductive layer , - the photoconductive layer being doped with a dopant, wherein the dopant is a transition metal, wherein the photoconductive layer is generated by molecular beam epitaxy at a growth temperature of at least 200 °C and not more than 500 °C, wherein the dopant is arranged in the photoconductive layer in such a way that it generates a multitude of point defects, wherein substantially all dopant atoms each are arranged in the photoconductive layer in the form of a point defect, wherein the concentration of the dopant is at least 1 × 10 19 cm -3 . - at least one photoconductive layer which generates charge carriers upon irradiation of light; - two electroconductive antenna elements via which an electric field can be applied to at least one section of the photoconductive layer , - the photoconductive layer being doped with a dopant, wherein the dopant is a transition metal,
A data transmission method, applied to a terminal device comprising a Medium Access Control, MAC, layer and a physical layer, the method comprising: delivering , by the physical layer, indication information to the MAC layer, the indication information notifying the MAC layer that one piece of data is not transmitted by the physical layer, the one piece of data being determined by the physical layer as de-prioritized data and being determined by the MAC layer as prioritized data, wherein said delivering , by the physical layer, the indication information to the MAC layer comprises delivering, by the physical layer in response to the one piece of data not being transmitted by the physical layer, the indication information to the MAC layer; and adjusting , by the MAC layer based on the indication information, a priority of the one piece of data at the MAC layer from prioritized to de-prioritized; and re-transmitting the one piece of data, by the physical layer, to a network device after the priority of the one piece of data at the MAC layer being adjusted from prioritized to de-prioritized. delivering , by the physical layer, indication information to the MAC layer, the indication information notifying the MAC layer that one piece of data is not transmitted by the physical layer, the one piece of data being determined by the physical layer as de-prioritized data and being determined by the MAC layer as prioritized data, wherein said delivering , by the physical layer, the indication information to the MAC layer comprises delivering, by the physical layer in response to the one piece of data not being transmitted by the physical layer, the indication information to the MAC layer; and adjusting , by the MAC layer based on the indication information, a priority of the one piece of data at the MAC layer from prioritized to de-prioritized; and re-transmitting the one piece of data, by the physical layer, to a network device after the priority of the one piece of data at the MAC layer being adjusted from prioritized to de-prioritized.
A label comprising: (i) a topcoat comprising from 1 to 50 wt.% conductive particles and comprising a polyester-amino resin, wherein the amino resin is a melamine; (ii) a film comprising a material selected from the group consisting of a polyimide, a polyester, a polyetherimide (PEI), a polyethylene naphthalate (PEN), a polyether sulfone (PES), a polysulfone, polymethylpentene (PMP), a polyvinylidene fluoride (PVDF), an ethylene-chlorotrifluoroethylene (ECTFE), or combinations thereof; (iii) a primer layer comprising from 1 to 90 wt.% conductive particles and comprising a polyester-amino resin; (iv) an adhesive layer, and optionally (v) a releasable liner. (i) a topcoat comprising from 1 to 50 wt.% conductive particles and comprising a polyester-amino resin, wherein the amino resin is a melamine; (ii) a film comprising a material selected from the group consisting of a polyimide, a polyester, a polyetherimide (PEI), a polyethylene naphthalate (PEN), a polyether sulfone (PES), a polysulfone, polymethylpentene (PMP), a polyvinylidene fluoride (PVDF), an ethylene-chlorotrifluoroethylene (ECTFE), or combinations thereof; (iii) a primer layer comprising from 1 to 90 wt.% conductive particles and comprising a polyester-amino resin; (iv) an adhesive layer, and optionally (v) a releasable liner.
An oligonucleotide which comprises two to four sequences each represented by 5'-X 1 X 2 CpGX 3 X 4 -3' and has a length of 14 to 32 nucleotides, wherein the CpG is non-methylated CpG without modified phosphate backbones, wherein the oligonucleotide comprises at least one modified phosphate backbone with a phosphorothioate which is a S-form stereoisomer at a site other than the parts represented by 5'-X 1 X 2 CpGX 3 X 4 -3', wherein the X 1 X 2 is any one of AA, AT, GA, or GT without modified phosphate backbones, and wherein the X 3 X 4 is TT, AT, AC, TC or CG without modified phosphate backbones. wherein the CpG is non-methylated CpG without modified phosphate backbones, wherein the oligonucleotide comprises at least one modified phosphate backbone with a phosphorothioate which is a S-form stereoisomer at a site other than the parts represented by 5'-X 1 X 2 CpGX 3 X 4 -3', wherein the X 1 X 2 is any one of AA, AT, GA, or GT without modified phosphate backbones, and wherein the X 3 X 4 is TT, AT, AC, TC or CG without modified phosphate backbones.
An electric vehicle comprising: a vehicle body ; an electric motor provided in the vehicle body ; a wheel provided in the vehicle body ; an operator configured to be operated by a user to drive the wheel to rotate by power from the electric motor ; and a controller configured to control the electric motor according to an operation of the operator ; wherein the controller is configured to control the electric vehicle according to a plurality of control states including a basic state as an assist state wherein assist force based on a pedal force is generated from the electric motor , a drive-standby state, which is a self-propelleable state in which a driving force is generated from the electric motor by operation of the operator and which transitions to and from the basic state, and a driving state, which is a self-propelling state in which the operator is being operated, and a driving force is being generated from the electric motor , and which transitions to and from the drive-standby state and configured to cause transmission of the power of the electric motor to the wheel ; the controller is configured or programmed to transition to the driving state when the operator is operated in the drive-standby state, and characterised in that the controller is configured or programmed to transition to the basic state if it is judged in the drive-standby state that a user is not present in a vicinity of the vehicle body for a predetermined time or longer. a vehicle body ; an electric motor provided in the vehicle body ; a wheel provided in the vehicle body ; an operator configured to be operated by a user to drive the wheel to rotate by power from the electric motor ; and a controller configured to control the electric motor according to an operation of the operator ; wherein the controller is configured to control the electric vehicle according to a plurality of control states including a basic state as an assist state wherein assist force based on a pedal force is generated from the electric motor , a drive-standby state, which is a self-propelleable state in which a driving force is generated from the electric motor by operation of the operator and which transitions to and from the basic state, and a driving state, which is a self-propelling state in which the operator is being operated, and a driving force is being generated from the electric motor , and which transitions to and from the drive-standby state and configured to cause transmission of the power of the electric motor to the wheel ; the controller is configured or programmed to transition to the driving state when the operator is operated in the drive-standby state, and characterised in that the controller is configured or programmed to transition to the basic state if it is judged in the drive-standby state that a user is not present in a vicinity of the vehicle body for a predetermined time or longer.
A plasticizer composition comprising di(2-propylheptyl) phthalate; and a citrate-based material, wherein the di(2-propylheptyl) phthalate and the citrate-based material are included at a weight ratio of 99:1 to 1:99, and wherein the citrate-based material is one single compound or a mixture of two or more types selected from hybrid alkyl-substituted citrates having 4 to 9 carbon atoms and non-hybrid alkyl-substituted citrates having 4 to 9 carbon atoms, and the alkyl is linear or branched.