mhurhangee/ep-ind-claims huggingface dataset:
A diode comprising between an upper electrode and a lower electrode: first (3; 152) and second (54; 102) semiconductor substrate portions of a first conductivity type connected to the lower electrode; a first vertical transistor (T1; T11) with a channel of the first conductivity type and a second transistor (T2; T12) formed in the first portion and series-connected between the electrodes, the gate (14; 160) of the first transistor being doped with the first conductivity type and coupled to the upper electrode, the second transistor having a channel of a second conductivity type and having a doped gate (24; 166) of the second conductivity type; first (80; 108) and second doped areas of the second conductivity type located in the second portion and separated by a substrate portion topped with another doped gate (84; 112) of the first conductivity type, the first doped area being used as a potential probe and being coupled to the gate of the second transistor, the second doped area and said other gate being coupled to the upper electrode. first (3; 152) and second (54; 102) semiconductor substrate portions of a first conductivity type connected to the lower electrode; a first vertical transistor (T1; T11) with a channel of the first conductivity type and a second transistor (T2; T12) formed in the first portion and series-connected between the electrodes, the gate (14; 160) of the first transistor being doped with the first conductivity type and coupled to the upper electrode, the second transistor having a channel of a second conductivity type and having a doped gate (24; 166) of the second conductivity type; first (80; 108) and second doped areas of the second conductivity type located in the second portion and separated by a substrate portion topped with another doped gate (84; 112) of the first conductivity type, the first doped area being used as a potential probe and being coupled to the gate of the second transistor, the second doped area and said other gate being coupled to the upper electrode.
A continuous flow process for converting a high-pour-point organic feedstock to an upgraded product comprising: providing a high-pour-point organic feedstock, wherein the high-pour-point organic feedstock has a pour point temperature greater than 10°C (50°F); feeding the high-pour-point organic feedstock into a separation system to produce a distillate fraction and a heavy fraction; feeding the heavy fraction from the separation system into a high-rate hydrothermal reactor system operating at supercritical water conditions and a Reynolds Number (Re) within the range of 2000 - 100,000, wherein the heavy fraction is maintained in the reactor for a residence time of less than one minute to produce an upgraded heavy fraction; and depressurizing the upgraded heavy fraction exiting the high-rate hydrothermal reactor system, filtering the depressurized upgraded heavy fraction, feeding the filtered upgraded heavy fraction to a feed-effluent heat exchanger, cooling the filtered upgraded heavy fraction, feeding the cooled filtered upgraded heavy fraction to one or more separators to remove fuel gas and water therefrom, and combining the upgraded heavy fraction exiting the one or more separators with the distillate fraction to form the upgraded product without the production of liquid byproducts. providing a high-pour-point organic feedstock, wherein the high-pour-point organic feedstock has a pour point temperature greater than 10°C (50°F); feeding the high-pour-point organic feedstock into a separation system to produce a distillate fraction and a heavy fraction; feeding the heavy fraction from the separation system into a high-rate hydrothermal reactor system operating at supercritical water conditions and a Reynolds Number (Re) within the range of 2000 - 100,000, wherein the heavy fraction is maintained in the reactor for a residence time of less than one minute to produce an upgraded heavy fraction; and depressurizing the upgraded heavy fraction exiting the high-rate hydrothermal reactor system, filtering the depressurized upgraded heavy fraction, feeding the filtered upgraded heavy fraction to a feed-effluent heat exchanger, cooling the filtered upgraded heavy fraction, feeding the cooled filtered upgraded heavy fraction to one or more separators to remove fuel gas and water therefrom, and combining the upgraded heavy fraction exiting the one or more separators with the distillate fraction to form the upgraded product without the production of liquid byproducts.
A computer-implemented method for generating custom-shaped garments comprising: generating, via a physically-based simulation training set including a shape training set with a variety of body shapes in the same pose and a pose training set with an average body shape in different poses, a learned clothing deformation model for a clothing type, wherein the clothing deformation model factors a change of clothing shape for the clothing type due to rigid limb rotation, pose-independent deformations induced by changes in clothing shape resulting from the clothing type being draped over different body shapes, and non-rigid pose-dependent deformations, wherein the clothing deformation model comprises a transformation A t such that A t = Q t R p(t) D t, and wherein Q t comprises a non-rigid pose-dependent deformation transformation, R p(t) comprises a rigid rotation transformation and D t comprises a pose-independent deformation transformation which is learned by performing clothing simulation on the shape training set; generating a custom-shaped garment for a given body by mapping, via the clothing deformation model, body shape parameters to clothing shape parameters; and automatically dressing the given body with the custom-shaped garment. generating, via a physically-based simulation training set including a shape training set with a variety of body shapes in the same pose and a pose training set with an average body shape in different poses, a learned clothing deformation model for a clothing type, wherein the clothing deformation model factors a change of clothing shape for the clothing type due to rigid limb rotation, pose-independent deformations induced by changes in clothing shape resulting from the clothing type being draped over different body shapes, and non-rigid pose-dependent deformations, wherein the clothing deformation model comprises a transformation A t such that A t = Q t R p(t) D t, and wherein Q t comprises a non-rigid pose-dependent deformation transformation, R p(t) comprises a rigid rotation transformation and D t comprises a pose-independent deformation transformation which is learned by performing clothing simulation on the shape training set; generating a custom-shaped garment for a given body by mapping, via the clothing deformation model, body shape parameters to clothing shape parameters; and automatically dressing the given body with the custom-shaped garment.
Process for making a conditioning gel phase comprising: i) forming an aqueous isotropic solution of cationic surfactant, wherein the isotropic solution also comprises neutralizer when amidoamine is present; ii) adding to the aqueous isotropic solution of cationic surfactant molten fatty alcohol wherein the temperature during mixing the fatty alcohol with the isotropic cationic surfactant solution is maintained from 55°C to 65°C and wherein the fatty alcohol has a straight chain alkyl group comprising from 8 to 22 carbons and wherein the cationic surfactant comprises a cationic surfactant of the formula N+R1R2R3R4 wherein R1, R2, R3 and R4 are independently C1 to C30 alkyl or benzyl, iii) and thereafter adding any remaining ingredients. i) forming an aqueous isotropic solution of cationic surfactant, wherein the isotropic solution also comprises neutralizer when amidoamine is present; ii) adding to the aqueous isotropic solution of cationic surfactant molten fatty alcohol wherein the temperature during mixing the fatty alcohol with the isotropic cationic surfactant solution is maintained from 55°C to 65°C and wherein the fatty alcohol has a straight chain alkyl group comprising from 8 to 22 carbons and wherein the cationic surfactant comprises a cationic surfactant of the formula N+R1R2R3R4 wherein R1, R2, R3 and R4 are independently C1 to C30 alkyl or benzyl, iii) and thereafter adding any remaining ingredients.
A process for styling hair, comprising transferring onto hair, packets, preferably droplets, of a hair care composition, held by capillary action or otherwise in cavities in a support, by putting said support in contact with keratinous substances or mucous membranes and/or by ejecting said packets, preferably said droplets, from the support by mechanical action and/or by using a gas jet, preferably coming from a container of compressed air, the composition comprising at least a setting agent, the composition comprising one or more fixing polymers as the setting agent(s).
Method for operating a water treatment system with a plurality of containers (1, 2) which can be operated in parallel and are each provided with one water treatment element of a basic capacity, and with valves (3, 5) comprising valve openings for adjusting partial volume flows of water to be treated through the containers (1, 2), wherein each container (1, 2) is either in normal operation or in regeneration operation, wherein in normal operation of a container (1, 2) the associated valve (3, 5) is at least partially opened and the water treatment element of the container has a residual capacity (7a, 7b, 7c, 7d, 7e, 7f, 8a, 8b, 8c, 8d, 8e, 8f), wherein in regeneration operation the valve (3, 5) is closed and a regeneration agent solution flows through the container (1, 2), wherein at any time at least one of the containers (1, 2) is in normal operation, and wherein a regeneration process of the water treatment element is initiated when the residual capacity of this water treatment element falls below a predetermined regeneration limit value, characterized in that the partial volume flows through the different containers (1, 2) are controlled separately in each case and are adjusted to predetermined values in normal operation through variation of the valve openings, wherein the values for the partial volume flows of different containers (1, 2) differ between two successive regenerations at least temporarily such that the residual capacities of the water treatment elements for different containers (1, 2) fall below the predetermined regeneration limit value at different points in time.
Transport and storage device, in particular flat palette, comprising - a support frame with a substantially square outline which has two access openings (3, 4) at each of its four sides which are configured for the access of two gripper arms of a forklift or the like, - a cover made of steel which is fastened to an upper side of the support frame and on which the load to be transported and/or be stored by means of the transport and storage device can be arranged, wherein the cover has a first cover plate and at least one second cover plate as well as - a base which is fastened to an underside of the support frame wherein the base has a first base plate and at least one second base plate, characterised in that - the first and second cover plate (120, 121) have different widths, wherein the widths of the first and second cover plate (120, 121) are selected such that the cover is divided in a ratio of roughly 2/3 to 1/3 by means of the two cover plates (120, 121) with different widths, - the first and second base plate (110, 111) have different widths, wherein the widths of the first and second base plate (110, 111) are selected such that the base is divided in a ratio of roughly 2/3 to 1/3 by means of the two base plates (110, 111) with different widths and - the base plates (110, 111) and cover plates (120, 121) are arranged such that the wider of the two base plates (110, 111) is located opposite the narrower of the two cover plates (120, 121) and the narrower of the two base plates (110, 111) is located opposite the wider of the two cover plates (120, 121). - a support frame with a substantially square outline which has two access openings (3, 4) at each of its four sides which are configured for the access of two gripper arms of a forklift or the like, - a cover made of steel which is fastened to an upper side of the support frame and on which the load to be transported and/or be stored by means of the transport and storage device can be arranged, wherein the cover has a first cover plate and at least one second cover plate as well as - a base which is fastened to an underside of the support frame wherein the base has a first base plate and at least one second base plate, - the first and second cover plate (120, 121) have different widths, wherein the widths of the first and second cover plate (120, 121) are selected such that the cover is divided in a ratio of roughly 2/3 to 1/3 by means of the two cover plates (120, 121) with different widths, - the first and second base plate (110, 111) have different widths, wherein the widths of the first and second base plate (110, 111) are selected such that the base is divided in a ratio of roughly 2/3 to 1/3 by means of the two base plates (110, 111) with different widths and - the base plates (110, 111) and cover plates (120, 121) are arranged such that the wider of the two base plates (110, 111) is located opposite the narrower of the two cover plates (120, 121) and the narrower of the two base plates (110, 111) is located opposite the wider of the two cover plates (120, 121).
A flexible, insulative battery cover, comprising: a flexible, tubular wall circumferentially bounding a cavity extending between a bottom end and a top end, said flexible, tubular wall having a composite outermost layer, a first thermoplastic innermost layer, and a nonwoven intermediate layer sandwiched between said composite outermost layer and said first thermoplastic innermost layer; and wherein said composite outermost layer includes a reflective outermost thermoplastic layer, a second thermoplastic innermost layer, and a metal layer sandwiched between said reflective outermost thermoplastic layer and said second thermoplastic innermost layer. a flexible, tubular wall circumferentially bounding a cavity extending between a bottom end and a top end, said flexible, tubular wall having a composite outermost layer, a first thermoplastic innermost layer, and a nonwoven intermediate layer sandwiched between said composite outermost layer and said first thermoplastic innermost layer; and wherein said composite outermost layer includes a reflective outermost thermoplastic layer, a second thermoplastic innermost layer, and a metal layer sandwiched between said reflective outermost thermoplastic layer and said second thermoplastic innermost layer.
A terminal for a communication system, the terminal comprising: a modem; and a controller configured to control the modem, when the terminal is in an idle mode, to: receive, from a base station during a listening interval of the idle mode, a paging message comprising information indicating a reception of multicast data for a group of terminals to which the terminal belongs; and receive, from the base station during the listening interval of the idle mode, the multicast data based on the information. a modem; and a controller configured to control the modem, when the terminal is in an idle mode, to: receive, from a base station during a listening interval of the idle mode, a paging message comprising information indicating a reception of multicast data for a group of terminals to which the terminal belongs; and receive, from the base station during the listening interval of the idle mode, the multicast data based on the information. receive, from a base station during a listening interval of the idle mode, a paging message comprising information indicating a reception of multicast data for a group of terminals to which the terminal belongs; and receive, from the base station during the listening interval of the idle mode, the multicast data based on the information.
A counterweight system for a wind turbine comprising a hub mounted to a nacelle such that the hub is rotatable around a rotation axis with respect to the nacelle, the hub comprising a blade root region (10,11,12) configured to receive a root of a blade and having a pitch system configured to rotate the blade around a pitch axis; the counterweight system comprising: a beam mountable to the blade root region (10,11,12) at a first point of the beam and a counterweight mass coupled to the beam at a second point of the beam at a distance from the first point of the beam, such that, when the beam is mounted to the blade root region (10,11,12), the beam is arranged substantially perpendicular to the pitch axis and the pitch system can cause the counterweight mass to rotate around the pitch axis.
A system for moving a patient into and from a medical apparatus, comprising: a patient support arranged outside a treatment space of a medical apparatus; a treatment table arranged inside the treatment space in the medical apparatus; a patient bed movable in a longitudinal direction from the patient support to the treatment table and back by means of activation of a transferring mechanism; characterised in that the patient bed is provided with at least a first communication channel for transferring communication signals, wherein said first communication channel is air-filled. a patient support arranged outside a treatment space of a medical apparatus; a treatment table arranged inside the treatment space in the medical apparatus; a patient bed movable in a longitudinal direction from the patient support to the treatment table and back by means of activation of a transferring mechanism; characterised in that the patient bed is provided with at least a first communication channel for transferring communication signals, wherein said first communication channel is air-filled.
An endoscopy system; capable of measuring and regulating the temperature of its distal tip (208; 230; 300; 650) comprising: a viewing element (236; 256; 276) located in the endoscope tip (208; 230; 300; 650), wherein said viewing element (236; 256; 276) comprises an image sensor (302; 312) and a lens assembly (304; 314) and is associated with one or more light emitting diode illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); characterised in that the endoscopy system further comprises a circuit board (306; 316) comprising a circuit for measuring a forward voltage across each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); and a controller programmed to compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values a viewing element (236; 256; 276) located in the endoscope tip (208; 230; 300; 650), wherein said viewing element (236; 256; 276) comprises an image sensor (302; 312) and a lens assembly (304; 314) and is associated with one or more light emitting diode illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); characterised in that the endoscopy system further comprises a circuit board (306; 316) comprising a circuit for measuring a forward voltage across each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601); and a controller programmed to compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values compute a temperature of each of said LED illuminators (242a; 242b; 242c; 252a; 252b; 272a; 272b; 308; 318; 601) by using said measured forward voltage and a function representing a relationship between the forward voltage and LED junction temperature for a given current; and take one or more corrective actions if the junction temperature is outside of a range of temperature values
A side airbag device comprising: a cushion that expands and deploys toward the front of the vehicle in the vehicle cabin to restrain an occupant seated in a seat from the side, and an inflator that is encased in the cushion and supplies the gas that expands and deploys the cushion, wherein the cushion is provided with a first panel facing the side position of the occupant in an expanded and deployed state and a second panel joined to the first panel positioned on the opposite side of the occupant, of the first panel and second panel, an insertion hole is provided at a position near the rear end of one of the panels and a stud bolt is inserted to fasten the inflator to the vehicle structure, and the cushion is attached to the wall facing toward the front of the vehicle to the side of the occupant together with the inflator using the stud bolt, characterized in that the first panel and the second panel have essentially the same shape and dimensions, and the length of the first panel and the second panel from the stud bolt are different in the front-rear direction and the longer panel in the front-rear direction is deployable to twist toward a shorter panel. a cushion that expands and deploys toward the front of the vehicle in the vehicle cabin to restrain an occupant seated in a seat from the side, and an inflator that is encased in the cushion and supplies the gas that expands and deploys the cushion, wherein the cushion is provided with a first panel facing the side position of the occupant in an expanded and deployed state and a second panel joined to the first panel positioned on the opposite side of the occupant, of the first panel and second panel, an insertion hole is provided at a position near the rear end of one of the panels and a stud bolt is inserted to fasten the inflator to the vehicle structure, and the cushion is attached to the wall facing toward the front of the vehicle to the side of the occupant together with the inflator using the stud bolt, characterized in that the first panel and the second panel have essentially the same shape and dimensions, and the length of the first panel and the second panel from the stud bolt are different in the front-rear direction and the longer panel in the front-rear direction is deployable to twist toward a shorter panel.