mhurhangee/ep-ind-claims huggingface dataset:
Horizontal-axis electrical machine having an built-in stator, which is concentrically surrounded by a number of parallel retaining rings which are spaced apart from one another in the axial direction and are connected on their outer circumference on opposing sides in each case by means of retaining structures (19, 20, 21) to a base frame which extends in the axial direction, a horizontally acting spring, which has the form of a perpendicular, longitudinal plate, is fixed on the one hand with its ends to the associated retaining ring, and is firmly connected on the other hand with its freely flexible central part to the base frame by means of connecting elements (14, 16), being provided within each of the retaining structures (19, 20, 21), characterized in that vertically acting spring elements (13, 17) are arranged between the ends of the spring and the associated retaining ring.
A method of making a snack food product comprising, a) providing a plurality of cut or shaped food pieces; b) exposing the food pieces to a solution comprising one or more enzymes selected from the group consisting of amylase, cellulase, invertase, pectinase and amyloglucosidase to coat the surface thereof; c) after step b), blanching the plurality of food pieces to inactivate any enzymes on the surface of the food pieces and/or to inactivate any enzymes added in step b), wherein the food pieces have an initial moisture level after the blanching step; and d) heating a bulk quantity of the blanched food pieces in one or more ovens or driers at a first temperature of 135 - 191 °C for a first time period of 0.5 - 40 minutes, to reduce the initial moisture level to an intermediate level; and e) heating a bulk quantity of the intermediate moisture food pieces in the one or more ovens or driers at a lower second temperature within the range of 71.1 - 163 °C for a second time period of 4 - 12 minutes, wherein at least one of steps (d) or (e) comprises fluidizing the food pieces in air, and wherein steps (d) and (e) are conducted in the absence of frying in oil to reduce the initial moisture level to a final moisture level of 0.5 to 10 % by weight to yield the snack food product. a) providing a plurality of cut or shaped food pieces; b) exposing the food pieces to a solution comprising one or more enzymes selected from the group consisting of amylase, cellulase, invertase, pectinase and amyloglucosidase to coat the surface thereof; c) after step b), blanching the plurality of food pieces to inactivate any enzymes on the surface of the food pieces and/or to inactivate any enzymes added in step b), wherein the food pieces have an initial moisture level after the blanching step; and d) heating a bulk quantity of the blanched food pieces in one or more ovens or driers at a first temperature of 135 - 191 °C for a first time period of 0.5 - 40 minutes, to reduce the initial moisture level to an intermediate level; and e) heating a bulk quantity of the intermediate moisture food pieces in the one or more ovens or driers at a lower second temperature within the range of 71.1 - 163 °C for a second time period of 4 - 12 minutes, wherein at least one of steps (d) or (e) comprises fluidizing the food pieces in air, and wherein steps (d) and (e) are conducted in the absence of frying in oil to reduce the initial moisture level to a final moisture level of 0.5 to 10 % by weight to yield the snack food product.
A method for manufacturing a structure, the method involving a process for predicting the durability performance of a structure enabling optimization of said durability performance, wherein the structure is modeled by a series of calculation points, wherein, for each calculation point, - the stresses and strains brought by load cycles and defining hysteresis branches are determined by means of a finite element analysis, and - an accumulated damage due to said load cycles is predicted based on the previous value of the accumulated damage and the stress induced by said load cycles and stored, and - using a hysteresis operator, a change in the stress along a portion of a hysteresis branch is calculated as a function of a change in the load in time, and - using said change in the stress and the stored accumulated damage and the material constants, a change in the damage is calculated, and, hence, a change in the properties, including the stiffness, of the structure at said calculation point is also calculated based on a relation to the accumulated damage, and - a further change in the stresses and strains is calculated on the basis of said change in said properties to determine a new adapted hysteresis branch, and - using the hysteresis operator, a further change in the stress along a further portion of said adapted hysteresis branch is calculated as a function of a further change in the load in time, and at the end of the process, if fatigue failure does not occur, the structure is manufactured with the material properties and dimensions as specified by the model, otherwise the model is adapted and the prediction of the durability performance is repeated. - the stresses and strains brought by load cycles and defining hysteresis branches are determined by means of a finite element analysis, and - an accumulated damage due to said load cycles is predicted based on the previous value of the accumulated damage and the stress induced by said load cycles and stored, and - using a hysteresis operator, a change in the stress along a portion of a hysteresis branch is calculated as a function of a change in the load in time, and - using said change in the stress and the stored accumulated damage and the material constants, a change in the damage is calculated, and, hence, a change in the properties, including the stiffness, of the structure at said calculation point is also calculated based on a relation to the accumulated damage, and - a further change in the stresses and strains is calculated on the basis of said change in said properties to determine a new adapted hysteresis branch, and - using the hysteresis operator, a further change in the stress along a further portion of said adapted hysteresis branch is calculated as a function of a further change in the load in time, and at the end of the process, if fatigue failure does not occur, the structure is manufactured with the material properties and dimensions as specified by the model, otherwise the model is adapted and the prediction of the durability performance is repeated.
Device for extracting bleed air from flowing air in a secondary flow duct of an aircraft engine, having a means for the targeted setting of an inlet cross section for an opening in or in the region of a wall of the aircraft engine, characterized by a flow-guiding means for separating a boundary layer flow independently of the size of the inlet cross section, wherein the flow-guiding means has a rounded, substantially wedge-shaped nose which is directed into the boundary layer flow, and the flow-guiding means is arranged below the inlet cross section such that boundary layer flows in the secondary flow duct are separated and channelled away in a targeted manner.
A resin composition for molding, comprising: a chlorinated vinyl chloride-based resin; a thermal stabilizer; and a polyalcohol and/or a partial ester of a polyalcohol obtained by reaction with at least one mono- or polycarboxylic acid, the chlorinated vinyl chloride-based resin having a chlorine content of 65% by weight or more and less than 72% by weight, as measured in accordance with JIS K 7229, the chlorinated vinyl chloride-based resin having, as evaluated by NMR as set out in the description and based on the total number of moles of a structural unit (a) -CCl 2 -, a structural unit (b) -CHCl-, and a structural unit (c) -CH 2 -, a proportion of the structural unit (a) of 17.5 mol% or less, a proportion of the structural unit (b) of 46.0 mol% or more, and a proportion of the structural unit (c) of 37.0 mol% or less, the thermal stabilizer containing a compound represented by the formula Ca 1-x Zn x 2 where x satisfies the inequality 0 < x < 1 or a compound represented by the formula Ca 1-y Zn y O where y satisfies the inequality 0 < y < 1, and wherein the resin composition for molding contains the polyalcohol and/or the partial ester of a polyalcohol in a total amount within the range of 0.05 to 3 parts by weight based on 100 parts by weight of the chlorinated vinyl chloride-based resin. a chlorinated vinyl chloride-based resin; a thermal stabilizer; and a polyalcohol and/or a partial ester of a polyalcohol obtained by reaction with at least one mono- or polycarboxylic acid, the chlorinated vinyl chloride-based resin having a chlorine content of 65% by weight or more and less than 72% by weight, as measured in accordance with JIS K 7229, the chlorinated vinyl chloride-based resin having, as evaluated by NMR as set out in the description and based on the total number of moles of a structural unit (a) -CCl 2 -, a structural unit (b) -CHCl-, and a structural unit (c) -CH 2 -, a proportion of the structural unit (a) of 17.5 mol% or less, a proportion of the structural unit (b) of 46.0 mol% or more, and a proportion of the structural unit (c) of 37.0 mol% or less, the thermal stabilizer containing a compound represented by the formula Ca 1-x Zn x 2 where x satisfies the inequality 0 < x < 1 or a compound represented by the formula Ca 1-y Zn y O where y satisfies the inequality 0 < y < 1, and wherein the resin composition for molding contains the polyalcohol and/or the partial ester of a polyalcohol in a total amount within the range of 0.05 to 3 parts by weight based on 100 parts by weight of the chlorinated vinyl chloride-based resin.
A refrigerant centrifugal compressor comprising: a housing comprising a first compressor inlet and outlet and a second compressor inlet and outlet; first and second impellers (18, 19) arranged in the housing with the first impeller arranged fluidly between the first compressor inlet and outlet and the second impeller arranged fluidly between the second compressor inlet and outlet; and first and second diffusers (62,74) arranged in the housing with the first diffuser arranged fluidly between the first compressor outlet and the second compressor inlet, and the second diffuser arranged fluidly downstream from the second compressor outlet, the first and second diffusers (48, 148) being different from one another; wherein there are no variable inlet guide vanes at an upstream region at the first compressor inlet, wherein the second diffuser is a vaned diffuser and is geometrically fixed; and wherein the first diffuser is geometrically variable and includes: a movable diffuser wall element, the movable diffuser wall element being serrated with trailing edges of serration overlapping a throat area of the first diffuser; a plurality of fixed wedge-shaped vanes located fluidly downstream of the movable diffuser wall element. a housing comprising a first compressor inlet and outlet and a second compressor inlet and outlet; first and second impellers (18, 19) arranged in the housing with the first impeller arranged fluidly between the first compressor inlet and outlet and the second impeller arranged fluidly between the second compressor inlet and outlet; and first and second diffusers (62,74) arranged in the housing with the first diffuser arranged fluidly between the first compressor outlet and the second compressor inlet, and the second diffuser arranged fluidly downstream from the second compressor outlet, the first and second diffusers (48, 148) being different from one another; wherein there are no variable inlet guide vanes at an upstream region at the first compressor inlet, wherein the second diffuser is a vaned diffuser and is geometrically fixed; and wherein the first diffuser is geometrically variable and includes: a movable diffuser wall element, the movable diffuser wall element being serrated with trailing edges of serration overlapping a throat area of the first diffuser; a plurality of fixed wedge-shaped vanes located fluidly downstream of the movable diffuser wall element. a movable diffuser wall element, the movable diffuser wall element being serrated with trailing edges of serration overlapping a throat area of the first diffuser; a plurality of fixed wedge-shaped vanes located fluidly downstream of the movable diffuser wall element.
A valve comprising: a housing having a fluid inlet and a fluid outlet; a flow path connecting the fluid inlet to the fluid outlet; a rotatable hemi-wedge valve closure member mounted within the housing; a valve body core (4,5,6) defining a portion of the flow path; a downstream portion of the valve body core (4,5,6) having a first sealing surface (12,13); an upstream portion of the fluid outlet including a valve seat member (8,9); and the hemi-wedge valve closure member rotatable between an open position allowing for an unobstructed flow of fluid through the valve and a closed position in which an upstream surface of the hemi-wedge valve closure member engages the first sealing surface (12,13) and a downstream surface of the hemi-wedge valve closure member engages the valve seat member (8,9); wherein the valve body core (4,5,6) comprises three portions, a first valve core member and a second valve core member which are the upstream portions, and a third valve core member, and characterised by a resilient seal between the first and second valve core members (4, 5), whereby the first and second valve core members (4, 5) can move longitudinally with respect to each other. a housing having a fluid inlet and a fluid outlet; a flow path connecting the fluid inlet to the fluid outlet; a rotatable hemi-wedge valve closure member mounted within the housing; a valve body core (4,5,6) defining a portion of the flow path; a downstream portion of the valve body core (4,5,6) having a first sealing surface (12,13); an upstream portion of the fluid outlet including a valve seat member (8,9); and the hemi-wedge valve closure member rotatable between an open position allowing for an unobstructed flow of fluid through the valve and a closed position in which an upstream surface of the hemi-wedge valve closure member engages the first sealing surface (12,13) and a downstream surface of the hemi-wedge valve closure member engages the valve seat member (8,9); wherein the valve body core (4,5,6) comprises three portions, a first valve core member and a second valve core member which are the upstream portions, and a third valve core member, and characterised by a resilient seal between the first and second valve core members (4, 5), whereby the first and second valve core members (4, 5) can move longitudinally with respect to each other.
Method of estimating free-stream inflow at a downstream wind turbine (101b, B02) of a wind park (100, 200), the method comprising: selecting, from plural candidate wind turbines (101a, 101c, 101d) previously defined specifically for the downstream wind turbine, an upstream wind turbine based on a currently determined wind direction; using determination equipment of the selected upstream wind turbine to determine the free-stream inflow, in particular utilizing free-stream inflow at the upstream wind turbine and correcting it with a time delay calculated from the wind speed, wind direction and the distance between the upstream wind turbine and the downstream wind turbine. selecting, from plural candidate wind turbines (101a, 101c, 101d) previously defined specifically for the downstream wind turbine, an upstream wind turbine based on a currently determined wind direction; using determination equipment of the selected upstream wind turbine to determine the free-stream inflow, in particular utilizing free-stream inflow at the upstream wind turbine and correcting it with a time delay calculated from the wind speed, wind direction and the distance between the upstream wind turbine and the downstream wind turbine.
A composition for preserving umbilical cord mesenchymal stem cells (UCMSCs), adipose-derived mesenchymal stem cells(ADMSCs), bone marrow-derived mesenchymal stem cells(BMMSCs) or Human diploid fibroblast containing, as active ingredient(s), a plant-derived recombinant human serum albumin and a plant peptide, wherein the plant-derived recombinant human serum albumin being contained at 0.5-5 parts by weight, the plant peptide being contained at 1-5 parts by weight, on the basis of the total 100 parts by weight of the composition, wherein the plant-derived recombinant human serum albumin and the plant peptide were mixed with a basal medium not containing Phenol Red, wherein the plant-derived recombinant human serum albumin is extracted from rice, wherein the plant peptide is derived from soybean, wherein an amino acid composition of the plant peptide is 475 mg/L of Ala, 750 mg/L of Arg, 1275 mg/L of Asp, 317 mg/L of Glu, 550 mg/L of Gly, 250 mg/L of His, 600 mg/L of Ile, 1000 mg/L of Lys, 200 mg/L of Met,, 625 mg/L of Phe, 525 mg/L of Pro, 725 mg/L of Ser, 600 mg/L of Thr, 400 mg/L of Tyr, and 1800 mg/L of Val, wherein the composition further comprises inorganic salts at the following concentrations wherein the composition comprises amino acids at the following concentrations wherein the composition comprises vitamins at the following concentrations wherein the composition comprises nucleosides at the following concentrations wherein the composition comprises other ingredients at the following concentrations wherein the composition is xeno-free and animal-free. wherein the plant-derived recombinant human serum albumin being contained at 0.5-5 parts by weight, the plant peptide being contained at 1-5 parts by weight, on the basis of the total 100 parts by weight of the composition, wherein the plant-derived recombinant human serum albumin and the plant peptide were mixed with a basal medium not containing Phenol Red, wherein the plant-derived recombinant human serum albumin is extracted from rice, wherein the plant peptide is derived from soybean, wherein an amino acid composition of the plant peptide is 475 mg/L of Ala, 750 mg/L of Arg, 1275 mg/L of Asp, 317 mg/L of Glu, 550 mg/L of Gly, 250 mg/L of His, 600 mg/L of Ile, 1000 mg/L of Lys, 200 mg/L of Met,, 625 mg/L of Phe, 525 mg/L of Pro, 725 mg/L of Ser, 600 mg/L of Thr, 400 mg/L of Tyr, and 1800 mg/L of Val, wherein the composition further comprises inorganic salts at the following concentrations wherein the composition comprises amino acids at the following concentrations wherein the composition comprises vitamins at the following concentrations wherein the composition comprises nucleosides at the following concentrations wherein the composition comprises other ingredients at the following concentrations wherein the composition is xeno-free and animal-free.
A device, comprising: - an unsecure non-volatile memory; - a secure device including: a processor; and a secure non-volatile memory; characterized in that the secure device is configured to: - calculate a trusted monotonic counter, TMC, value from an offset and base value; - store a TMC version value in the secure non-volatile memory and the unsecure non-volatile memory, wherein the TMC version value is updated when TMC value is incremented the first time after the secure device is powered up; - store the base value in the unsecure memory; and - store the offset value in the secure non-volatile memory when the secure device is powered down and when power fails. - an unsecure non-volatile memory; - a secure device including: a processor; and a secure non-volatile memory; characterized in that the secure device is configured to: a processor; and a secure non-volatile memory; characterized in that the secure device is configured to: - calculate a trusted monotonic counter, TMC, value from an offset and base value; - store a TMC version value in the secure non-volatile memory and the unsecure non-volatile memory, wherein the TMC version value is updated when TMC value is incremented the first time after the secure device is powered up; - store the base value in the unsecure memory; and - store the offset value in the secure non-volatile memory when the secure device is powered down and when power fails.
Method for learning parameters of a convolutional neural network, CNN, using data processing means (11a, 11b, 11c) of at least one server (1a, 1b, 1c), in order to detect elements of interest in at least a first category of elements of interest and a second category of elements of interest visible in one or more images, the second category of elements of interest being a subportion of the first category of elements of interest, the method being characterized in that it is implemented based on a plurality of learning image bases in which said elements of interest are already annotated, each learning image base being associated with a set of categories of elements of interest, the elements of interest annotated in the images in a base being those belonging to a category of said set associated with the base, said sets of categories being different from one base to another and such that the set of categories of elements of interest associated with a first base of said plurality of learning image bases comprises the first category and the set of categories of elements of interest associated with a second base of said plurality of learning image bases comprises the second category, the CNN being a CNN common to said plurality of learning image bases, and having a common stem and a plurality of encoding layers each specific to one of said plurality of learning image bases, each encoding layer being a convolution layer or a fully connected layer, generating a representation vector of the detected elements of interest.
Mobile cooker comprising one or more induction hotplates, one or more magnetic metal containers destined to house food to be cooked via the induction source inducing heat into the metal container and a support frame adapted to support one or more containers on the induction hotplate(s), characterised in that the support frame (1, 200) thermally isolates the container(s) with respect to the induction hotplate.
Spray guard device (30, 31) for a detergent holder (12, 13, 14) of a household dishwasher, having a connecting element, which can be connected to the detergent holder (12, 13, 14) and a spray guard plate, which is pivotably mounted on the connecting element in order to bring the spray guard plate from an expanded state into a retracted state and vice versa.
A gearbox for transmitting a movement from a motor to an element driven by the motor, the gearbox including a first shaft and a second shaft, one of which is intended to be connected to the motor and the other of which is intended to be connected to the element driven by the motor, the gearbox further including an intermediate shaft transmitting the movement from the first shaft to the second shaft and a casing delimiting a chamber, the first shaft and the second shaft each extending at least partially outside the casing, the intermediate shaft being accommodated in the chamber and comprising a first gearing element cooperating with the first shaft and a second gearing element cooperating with the second shaft, characterized in that the first shaft and the intermediate shaft are arranged at a first height relative to a bottom of the chamber, the second shaft being arranged at a second height relative to the bottom of the chamber, the second height being lower than the first height, and in that the gearbox includes a first splash tub containing a lubricant, the first gearing element being at least partially submerged in the first splash tub.