mhurhangee/ep-ind-claims huggingface dataset:
An analog neuromorphic memory system, comprising: a plurality of vector-by-matrix multiplication arrays, each vector-by-matrix multiplication array comprising an array of memory cells; and a temperature compensation block for modifying the slope of a current-voltage characteristic curve of a memory cell in the array of memory cells in a continuous manner as an operating temperature of the memory cell changes, the temperature compensation block comprising: a temperature sensor for generating an output indicative of an operating temperature; a controller for generating one or more control signals in response to the output of the temperature sensor; one or more adjustable devices for generating a temperature compensation voltage in response to the one or more control signals; wherein each of the memory cells in the array of memory cells is a flash memory cell and the one or more adjustable devices comprise one or more adjustable current sources, each of the one or more adjustable current sources adjusted by one of the one more control signals and coupled to a resistor, and wherein the temperature compensation voltage is generated at a node between the one or more adjustable current sources and the resistor and is applied to the flash memory cell to modify the slope of a current-voltage characteristic curve of the flash memory cell. a plurality of vector-by-matrix multiplication arrays, each vector-by-matrix multiplication array comprising an array of memory cells; and a temperature compensation block for modifying the slope of a current-voltage characteristic curve of a memory cell in the array of memory cells in a continuous manner as an operating temperature of the memory cell changes, the temperature compensation block comprising: a temperature sensor for generating an output indicative of an operating temperature; a controller for generating one or more control signals in response to the output of the temperature sensor; one or more adjustable devices for generating a temperature compensation voltage in response to the one or more control signals; a temperature sensor for generating an output indicative of an operating temperature; a controller for generating one or more control signals in response to the output of the temperature sensor; one or more adjustable devices for generating a temperature compensation voltage in response to the one or more control signals; wherein each of the memory cells in the array of memory cells is a flash memory cell and the one or more adjustable devices comprise one or more adjustable current sources, each of the one or more adjustable current sources adjusted by one of the one more control signals and coupled to a resistor, and wherein the temperature compensation voltage is generated at a node between the one or more adjustable current sources and the resistor and is applied to the flash memory cell to modify the slope of a current-voltage characteristic curve of the flash memory cell.
Use of a composition comprising squalane from olive oil for controlling scald in pome fruits, wherein the composition comprises squalane in a concentration of 70% v/v and a vehicle selected from: - oleic acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - palm fatty acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - a primary alcohol having 9 to 15 carbon atoms as emulsifying agent in a concentration of 30% v/v; or - sorbitan ester as emulsifying agent in a concentration of 30% v/v; wherein said composition is diluted for its use to a concentration of 0.1 - 10% v/v. - oleic acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - palm fatty acid as emulsifying agent in a concentration of 20% v/v, ammonia in a concentration of 4% v/v, and deionized water in a concentration of 6% v/v; or - a primary alcohol having 9 to 15 carbon atoms as emulsifying agent in a concentration of 30% v/v; or - sorbitan ester as emulsifying agent in a concentration of 30% v/v;
Method for converting an analogue measurement display into electrical signals, having the steps of: positioning an application-specific integrated circuit having a Hall sensor, which is arranged parallel to the surface of the integrated circuit in order to detect a magnetic flux density, with the Hall sensor parallel to the rotation plane and above the rotation axis of an indicator of the analogue rotary display of a measurement device, wherein the indicator bears a magnet and the integrated circuit is mounted on a viewing window, which is configured for installation on or attachment to a measurement device; measuring the rotation angle of the magnet by way of the application-specific integrated circuit having the Hall sensor; and outputting an electrical signal corresponding to the rotation angle of the magnet, characterized in that connections for supplying power and/or for tapping the electrical signal are led out through the viewing window to the exterior for a plug connection. positioning an application-specific integrated circuit having a Hall sensor, which is arranged parallel to the surface of the integrated circuit in order to detect a magnetic flux density, with the Hall sensor parallel to the rotation plane and above the rotation axis of an indicator of the analogue rotary display of a measurement device, wherein the indicator bears a magnet and the integrated circuit is mounted on a viewing window, which is configured for installation on or attachment to a measurement device; measuring the rotation angle of the magnet by way of the application-specific integrated circuit having the Hall sensor; and outputting an electrical signal corresponding to the rotation angle of the magnet, characterized in that connections for supplying power and/or for tapping the electrical signal are led out through the viewing window to the exterior for a plug connection.
A method of three-dimensional ultrasound imaging comprising: using a transducer with 3D electronic steering to acquire ultrasound data representative of an imaging volume as a function of time, from which can be obtained a plurality of two dimensional ultrasound images, the transducer being configured (i) for electronically steering ultrasound beams to acquire data representative of a 2D ultrasound image within a 2D imaging plane of the imaging volume and (ii) for sweeping the 2D imaging plane across the imaging volume; acquiring data from a stationary ultrasound beam concurrently with the acquiring of the ultrasound data representative of the imaging volume; analyzing the stationary ultrasound beam data to derive a parameter from the stationary ultrasound beam data; and rearranging a plurality of two dimensional ultrasound images obtained from the acquired ultrasound data representative of the imaging volume as a function of the derived parameter, characterized in that acquiring data from the stationary ultrasound beam comprises using said transducer with 3D electronic steering, wherein the transducer with 3D electronic steering is further configured for (iii) interleaving the acquiring data from the stationary ultrasound beam with the acquiring of the 2D ultrasound images, and in that the stationary ultrasound beam concurrently acquired with the ultrasound data representative of the imaging volume has the same stationary location through the imaging volume for all two dimensional ultrasound images. using a transducer with 3D electronic steering to acquire ultrasound data representative of an imaging volume as a function of time, from which can be obtained a plurality of two dimensional ultrasound images, the transducer being configured (i) for electronically steering ultrasound beams to acquire data representative of a 2D ultrasound image within a 2D imaging plane of the imaging volume and (ii) for sweeping the 2D imaging plane across the imaging volume; acquiring data from a stationary ultrasound beam concurrently with the acquiring of the ultrasound data representative of the imaging volume; analyzing the stationary ultrasound beam data to derive a parameter from the stationary ultrasound beam data; and rearranging a plurality of two dimensional ultrasound images obtained from the acquired ultrasound data representative of the imaging volume as a function of the derived parameter,
A method of wireless communication, performed by an scheduled entity and comprising: detecting a fluctuation in a beam strength of at least one transmit beam from a scheduling entity; transmitting a first message to the scheduling entity, the first message indicating at least the fluctuation in the beam strength of the at least one transmit beam from the scheduling entity; obtaining a second message from the scheduling entity in response to the first message, wherein the second message changes a frequency of beam refinement operations with respect to the at least one transmit beam and/or changes a frequency of beam quality reports with respect to the at least one transmit beam; and performing the beam refinement operations and/or transmitting the beam quality reports based on the second message. detecting a fluctuation in a beam strength of at least one transmit beam from a scheduling entity; transmitting a first message to the scheduling entity, the first message indicating at least the fluctuation in the beam strength of the at least one transmit beam from the scheduling entity; obtaining a second message from the scheduling entity in response to the first message, wherein the second message changes a frequency of beam refinement operations with respect to the at least one transmit beam and/or changes a frequency of beam quality reports with respect to the at least one transmit beam; and performing the beam refinement operations and/or transmitting the beam quality reports based on the second message.
A pneumatic tire with a rim diameter of 50.8 cm (20 inches) or more and an aspect ratio of 60% or less, the tire being obtainable from a mold for vulcanizing the tire having a crown portion molding part that forms a crown portion of the tire and a separate side portion molding part that forms a side portion of the tire, wherein a ratio dl/Ll is 0.15 or less, where in a cross-section in a tire width direction before rim assembly, a bead heel T is an intersection between an extension line m1 of a bead base surface and an extension line m2 of a bead back surface, M1 is a midpoint of a line segment A1 connecting the bead heel T with a position P1 of the pneumatic tire corresponding to a split position, L1 in millimeters is a length of the line segment A1, and d1 in millimeters is a distance from the midpoint M1 to an intersection between a tire outer surface and a normal line B1 to the line segment A1 passing through the midpoint M1, and a split position refers to the portion of the tire where a ridge is formed by inflowing rubber at the border between the crown portion molding part and the side portion molding part at the time of vulcanizing the tire.
Kitchen appliance for processing foodstuff, in particular for processing vegetables and fruit, comprising - a housing defining a hollow space and a longitudinal axis, the longitudinal axis running substantially vertically, - a motor located inside the hollow space, - control means for activating and deactivating the motor, - a motor output shaft connected to the motor for transmitting the output power provided by the motor, - a coupling section for connecting attachments for processing the foodstuff to the housing, - a further output shaft transmitting the output power to the coupling section, and - a gear mechanism for transmitting the output power from the motor output shaft to the further output shaft, wherein - the motor and the motor output shaft are arranged so that they form an angle (α) in the range of 5 to 60° and in particular between 15 and 30° relative to the longitudinal axis, characterized in that the motor output shaft and the motor are running through a plane defined by the longitudinal axis and the further output shaft is running perpendicular to the plane. - a housing defining a hollow space and a longitudinal axis, the longitudinal axis running substantially vertically, - a motor located inside the hollow space, - control means for activating and deactivating the motor, - a motor output shaft connected to the motor for transmitting the output power provided by the motor, - a coupling section for connecting attachments for processing the foodstuff to the housing, - a further output shaft transmitting the output power to the coupling section, and - a gear mechanism for transmitting the output power from the motor output shaft to the further output shaft, wherein - the motor and the motor output shaft are arranged so that they form an angle (α) in the range of 5 to 60° and in particular between 15 and 30° relative to the longitudinal axis,
A solid-phase polymerization method for preparing high-molecular-weight aliphatic polyester having a weight-average molecular weight in a range of 100,000 to 1,000,000, wherein the solid-phase polymerization of aliphatic polyester prepolymer is carried out in a gas stream which contains sulfonic acid catalyst and during the solid-phase polymerization the concentration Cg of said sulfonic acid catalyst in the gas stream ranges between 0.0001 mmol/L and 1mmol/L, and wherein the weight-average molecular weight of the aliphatic polyester is measured using CHCl 3 eluent and PS standard samples.
A resin suitable for use in the fabrication of a light emitting device, the resin comprising a plurality of nanoparticles dispersed in an encapsulation medium, wherein the nanoparticles are photoluminescent conjugated polymer nanoparticles formed from a π-conjugated cross-linked polymer, the π-conjugated cross-linked polymer comprising a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula I shown below: wherein Z 1 and Z 2 are monomeric moieties, and Y is absent, a bond, or a linking group; and wherein: (i) the nanoparticles comprise 3-10 mol% of the cross-linker; (ii) the loading of nanoparticles within the resin is 0.005 to 5 wt.%; and (iii) the encapsulation medium is a transparent polymeric encapsulation medium. a) 80-99.9 mol.% of π-conjugated monomers, and b) 0.1-20 mol.% of a cross-linker having the formula I shown below: wherein Z 1 and Z 2 are monomeric moieties, and Y is absent, a bond, or a linking group; and wherein: (i) the nanoparticles comprise 3-10 mol% of the cross-linker; (ii) the loading of nanoparticles within the resin is 0.005 to 5 wt.%; and (iii) the encapsulation medium is a transparent polymeric encapsulation medium. Z 1 and Z 2 are monomeric moieties, and Y is absent, a bond, or a linking group; and wherein: (i) the nanoparticles comprise 3-10 mol% of the cross-linker; (ii) the loading of nanoparticles within the resin is 0.005 to 5 wt.%; and (iii) the encapsulation medium is a transparent polymeric encapsulation medium. (i) the nanoparticles comprise 3-10 mol% of the cross-linker; (ii) the loading of nanoparticles within the resin is 0.005 to 5 wt.%; and (iii) the encapsulation medium is a transparent polymeric encapsulation medium.
A fractionation process for producing value-added bioproducts from a lignocellulosic biomass, comprising: a) mechanically refining the lignocellulosic biomass at a biomass consistency of 20% to 50% at 720 to 4320 MJ/t (200 to 1200 kWh/t) and a pressure of 100 to 600 kPa (1-6 bars) to form a refined biomass pulp with enhanced susceptibility to separation of hemicellulose, cellulose and lignin, and enhanced digestibility of carbohydrates in hydrolysis; b) subjecting the biomass to a chemical treatment using a mild chemical selected from the group of mild acids and alkalis, enzymes and oxidants at a temperature in the range of 20 to 145°C for 1 to 30 minutes; c) separating hemicellulose and sulfur-free lignin from cellulose in the refined biomass; and d) producing various bioproducts from the above said process. a) mechanically refining the lignocellulosic biomass at a biomass consistency of 20% to 50% at 720 to 4320 MJ/t (200 to 1200 kWh/t) and a pressure of 100 to 600 kPa (1-6 bars) to form a refined biomass pulp with enhanced susceptibility to separation of hemicellulose, cellulose and lignin, and enhanced digestibility of carbohydrates in hydrolysis; b) subjecting the biomass to a chemical treatment using a mild chemical selected from the group of mild acids and alkalis, enzymes and oxidants at a temperature in the range of 20 to 145°C for 1 to 30 minutes; c) separating hemicellulose and sulfur-free lignin from cellulose in the refined biomass; and d) producing various bioproducts from the above said process.
Method for vibration compensation in a reciprocating compressor, the piston compressor of which is driven by means of a crankshaft of a three-phase motor controlled by a frequency converter, characterised in that the current angular position of the crankshaft of the piston compressor is determined, and, based on this, a torque (M M) that follows the load moment (M L) of the piston compressor is prescribed by the frequency converter for the three-phase motor in order to reduce the vibration excitation of the reciprocating compressor as a whole, wherein the torque (M M) prescribed for the three-phase motor corresponds to the first order of the load moment profile of the piston compressor.
A copolymer obtainable by condensation of i) 92 to 98 mol%, based on components i to ii, of succinic acid; ii) 2 to 8 mol%, based on components i to ii, of azelaic acid, sebacic acid and/or brassylic acid; iii) 98 to 102 mol%, based on components i to ii, of 1,3-propanediol or 1,4-butanediol, and iv) 0.01% to 5% by weight, based on the total weight of said components i to iii, of a crosslinker iva selected from the group consisting of tartaric acid, citric acid, malic acid, trimethylolpropane, trimethylolethane, pentaerythritol, polyethertriols, glycerol, trimesic acid, trimellitic acid, trimellitic anhydride, pyromellitic acid and pyromellitic anhydride and/or a chain extender ivb selected from the group consisting of a difunctional isocyanate, isocyanurate, oxazoline and epoxide. i) 92 to 98 mol%, based on components i to ii, of succinic acid; ii) 2 to 8 mol%, based on components i to ii, of azelaic acid, sebacic acid and/or brassylic acid; iii) 98 to 102 mol%, based on components i to ii, of 1,3-propanediol or 1,4-butanediol, and iv) 0.01% to 5% by weight, based on the total weight of said components i to iii, of a crosslinker iva selected from the group consisting of tartaric acid, citric acid, malic acid, trimethylolpropane, trimethylolethane, pentaerythritol, polyethertriols, glycerol, trimesic acid, trimellitic acid, trimellitic anhydride, pyromellitic acid and pyromellitic anhydride and/or a chain extender ivb selected from the group consisting of a difunctional isocyanate, isocyanurate, oxazoline and epoxide.
Electric heater for a motor vehicle heating circuit which contains a heat-exchange liquid, this heater comprising a fluid inlet and a first fluid outlet and a second fluid outlet and means (16, 17) for electrically heating the heat-exchange liquid directed to the first outlet and the heat-exchange liquid directed to the second outlet, the first and the second outlet (12, 13) being intended to be connected to a first and a second radiator (3, 4) of the heating circuit, respectively, in order to heat these two radiators (3, 4) characterized in that said means (16, 17) distribute in a controlled manner the heating between the heat-exchange liquid directed to the first outlet and the heat-exchange liquid directed to the second outlet, in order to heat the two radiators (3, 4) to different temperatures.
A series of translating drive units, TDUs, comprising a first TDU (210, 600) and a second TDU (220, 600) which is longitudinally adjacent to the first TDU, each TDU comprising: a housing (216, 610); a plurality of guide rollers coupled to the housing; a drive system coupled to the housing, the drive system configured to translate the housing in a longitudinal direction; and a retractable pawl (212, 222, 620) coupled to the housing; a power source disposed within the housing; a cable (214, 650) disposed at a first longitudinal end of the housing, and a coupling mechanism disposed at a second longitudinal end of the housing, the coupling mechanism coupling the first TDU (210, 600) to the cable (214, 650) of the second TDU (220, 600); wherein, once coupled, the cable (214, 650) is unwound based on a longitudinal length of a respective unit load device, ULD and used to clamp the ULD between the retractable pawl of the first TDU and the retractable pawl of the second TDU and/or provide additional pulling force for translating the ULD. a housing (216, 610); a plurality of guide rollers coupled to the housing; a drive system coupled to the housing, the drive system configured to translate the housing in a longitudinal direction; and a retractable pawl (212, 222, 620) coupled to the housing; a power source disposed within the housing; a cable (214, 650) disposed at a first longitudinal end of the housing, and a coupling mechanism disposed at a second longitudinal end of the housing, the coupling mechanism coupling the first TDU (210, 600) to the cable (214, 650) of the second TDU (220, 600); wherein, once coupled, the cable (214, 650) is unwound based on a longitudinal length of a respective unit load device, ULD and used to clamp the ULD between the retractable pawl of the first TDU and the retractable pawl of the second TDU and/or provide additional pulling force for translating the ULD.
A radiation protection clothing arrangement having a flexible coat which comprises radiation protection material and which, in a state of use, surrounds an interior space with a bottom edge, and having a weight-relieving device, characterized in that the weight-relieving device is embodied as a support skeleton that is connected to the coat and absorbs the weight of the coat in multiple locations distributed in the direction of gravity, wherein the coat is no longer suspended on the support skeleton solely in the shoulder region, but rather has multiple attachment points that are distributed in the direction of gravity wherein the support skeleton is connected to a support device (11; 46, 47) which can be set up on an underlying surface in a state of use and which is arranged within an extension of the interior space in the direction of gravity and does not protrude outwardly past the coat.