mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for use in a turbine section of a gas turbine engine, the assembly comprising: a blade outer air seal for a gas turbine engine, the blade outer air seal having a forward end and opposite aft end and a pair of opposing sides extending between the forward end and the opposite aft end ; and a blade outer air seal support , the blade outer air seal support having a rail , the rail engaging a hook located at the forward end of the blade outer air seal when the blade outer air seal is secured to the blade outer air seal support; characterized by : the rail having at least one scalloped opening , wherein two points of contact are made between the hook and the rail of the blade outer air seal support when the blade outer air seal is secured to the blade outer air seal support ; and a vane platform , that receives and supports a rail of the blade outer air seal , the rail being located at the aft end of the blade outer air seal and the rail extending continuously between the pair of opposing sides of the blade outer air seal , wherein a single point of contact is made between the rail of the blade outer air seal and the vane platform when the blade outer air seal is secured to the vane platform . a blade outer air seal for a gas turbine engine, the blade outer air seal having a forward end and opposite aft end and a pair of opposing sides extending between the forward end and the opposite aft end ; and a blade outer air seal support , the blade outer air seal support having a rail , the rail engaging a hook located at the forward end of the blade outer air seal when the blade outer air seal is secured to the blade outer air seal support; characterized by : the rail having at least one scalloped opening , wherein two points of contact are made between the hook and the rail of the blade outer air seal support when the blade outer air seal is secured to the blade outer air seal support ; and a vane platform , that receives and supports a rail of the blade outer air seal , the rail being located at the aft end of the blade outer air seal and the rail extending continuously between the pair of opposing sides of the blade outer air seal , wherein a single point of contact is made between the rail of the blade outer air seal and the vane platform when the blade outer air seal is secured to the vane platform . the rail having at least one scalloped opening , wherein two points of contact are made between the hook and the rail of the blade outer air seal support when the blade outer air seal is secured to the blade outer air seal support ; and a vane platform , that receives and supports a rail of the blade outer air seal , the rail being located at the aft end of the blade outer air seal and the rail extending continuously between the pair of opposing sides of the blade outer air seal , wherein a single point of contact is made between the rail of the blade outer air seal and the vane platform when the blade outer air seal is secured to the vane platform .
An accessory for a canister type vacuum cleaner, comprising: - a suction tube comprising a first end portion (7.1) to which a floor cleaning element is intended to be fastened, and a second end portion (7.2) opposite to the first end portion (7.1) and intended to be fluidly connected to a suction tip provided on a vacuum cleaner housing , - a gripping handle comprising a handle main part which is elongated, the gripping handle being hingedly mounted on the suction tube through a pivot link (P) defining a hinge axis (A) and a hinge area , the gripping handle being movably mounted relative to the suction tube between a first handle position and a second handle position, characterized in that the accessory further includes a cover movably mounted between a covering position in which the cover at least partially covers the hinge area and a clearance position in which the cover at least partially releases the hinge area and allows a pivoting of the gripping handle in the second handle position, the accessory being configured such that the cover occupies the covering position when the gripping handle occupies the first handle position and such that a movement of the gripping handle from the first handle position to the second handle position causes a movement of the cover from the covering position to the clearance position. - a suction tube comprising a first end portion (7.1) to which a floor cleaning element is intended to be fastened, and a second end portion (7.2) opposite to the first end portion (7.1) and intended to be fluidly connected to a suction tip provided on a vacuum cleaner housing , - a gripping handle comprising a handle main part which is elongated, the gripping handle being hingedly mounted on the suction tube through a pivot link (P) defining a hinge axis (A) and a hinge area , the gripping handle being movably mounted relative to the suction tube between a first handle position and a second handle position,
A process for the preparation of a synergistic supramolecular prebiotic composition comprising the following steps: heating 10 g of a phytosterol mixture of soy or tall oil origin with 20 g edible oil selected from the group consisting of corn oil, corn germ oil, corn fiber oil, coconut oil, pumpkinseed oil and fish oil for 2 hours at 100 °C; cooling said mixture produced in the previous step to 20 °C; adding to said mixture produced in the previous step, upon stirring, 20 g of a mixture of natural lecithins, the origin of which is selected from the group consisting of soy, sunflower seed and egg, 20 ml water and 10 g L-lysine; mixing said mixture produced in the previous step with 100g of a mixture of prebiotic carbohydrates, said mixture consisting of 80 g inulin, 10 g galacto-oligosaccharide, 8 g fructo-oligosaccharide and 2 g lactulose; or a 80 g of a mixture of prebiotic carbohydrates, said mixture consisting of 60 g inulin, 10 g beta-glucan, 8 g Aloe vera gel powder and 2 g tagatose; and, optionally, adding to said mixture produced in the previous step further components selected from the group consisting of plant extracts, plant powders, vitamins, minerals, antioxidants, fillers, stabilizers and adhesion modifiers. heating 10 g of a phytosterol mixture of soy or tall oil origin with 20 g edible oil selected from the group consisting of corn oil, corn germ oil, corn fiber oil, coconut oil, pumpkinseed oil and fish oil for 2 hours at 100 °C; cooling said mixture produced in the previous step to 20 °C; adding to said mixture produced in the previous step, upon stirring, 20 g of a mixture of natural lecithins, the origin of which is selected from the group consisting of soy, sunflower seed and egg, 20 ml water and 10 g L-lysine; mixing said mixture produced in the previous step with 100g of a mixture of prebiotic carbohydrates, said mixture consisting of 80 g inulin, 10 g galacto-oligosaccharide, 8 g fructo-oligosaccharide and 2 g lactulose; or a 80 g of a mixture of prebiotic carbohydrates, said mixture consisting of 60 g inulin, 10 g beta-glucan, 8 g Aloe vera gel powder and 2 g tagatose; and, optionally, adding to said mixture produced in the previous step further components selected from the group consisting of plant extracts, plant powders, vitamins, minerals, antioxidants, fillers, stabilizers and adhesion modifiers.
A computer-implemented method for controlling the velocity of a vehicle , the method comprising: acquiring , using at least one image capture device , a plurality of images of an area in a vicinity of the vehicle ; recognizing a curve to be navigated based on map data and vehicle position information; determining an initial target velocity for the vehicle based on at least one characteristic of the curve as reflected in the map data and a lateral acceleration limit associated with the vehicle, wherein the at least one characteristic of the curve includes an expected radius of curvature of the road ahead of the vehicle determined from the map data; adjusting a velocity of the vehicle to the initial target velocity; determining , based on the plurality of images, one or more observed characteristics of the curve, wherein the one or more observed characteristics of the curve include the radius of curvature of the road ahead of the vehicle; determining an updated target velocity based on the one or more observed characteristics of the curve and the lateral acceleration limit, wherein the lateral acceleration limit is adjusted based on a road width determined based on the plurality of images; and adjusting the velocity of the vehicle to the updated target velocity. acquiring , using at least one image capture device , a plurality of images of an area in a vicinity of the vehicle ; recognizing a curve to be navigated based on map data and vehicle position information; determining an initial target velocity for the vehicle based on at least one characteristic of the curve as reflected in the map data and a lateral acceleration limit associated with the vehicle, wherein the at least one characteristic of the curve includes an expected radius of curvature of the road ahead of the vehicle determined from the map data; adjusting a velocity of the vehicle to the initial target velocity; determining , based on the plurality of images, one or more observed characteristics of the curve, wherein the one or more observed characteristics of the curve include the radius of curvature of the road ahead of the vehicle; determining an updated target velocity based on the one or more observed characteristics of the curve and the lateral acceleration limit, wherein the lateral acceleration limit is adjusted based on a road width determined based on the plurality of images; and adjusting the velocity of the vehicle to the updated target velocity.
A semiconductor device comprising: an integrated circuit, IC, layer having IC components; a base substrate layer ; a buried oxide, BOX, layer having a BOX isolation breakdown voltage and separating the IC layer from the base substrate layer; at least a first isolation structure (15-1) disposed proximate to the IC layer, the first isolation structure extending through the BOX layer to the base substrate layer, the first isolation structure having an isolation breakdown voltage, the first isolation structure isolating the IC components; and a protective stack having a stack breakdown voltage greater than the isolation breakdown voltage, the stack coupled to the base substrate layer in at least two different locations , the stack comprising: a first voltage protection component (2-1) having a first anode coupled to one of the at least two different locations and a first cathode coupled to the first isolation structure and operable in use to receive a transient voltage, a difference between the transient voltage at a cathode of the stack and the substrate bias voltage being less than the isolation breakdown voltage; and a second voltage protection component (2-2) having a second anode and a second cathode, the second anode coupled to the first cathode of the first voltage protection component, the second cathode of the second voltage protection component being at the cathode of the stack. an integrated circuit, IC, layer having IC components; a base substrate layer ; a buried oxide, BOX, layer having a BOX isolation breakdown voltage and separating the IC layer from the base substrate layer; at least a first isolation structure (15-1) disposed proximate to the IC layer, the first isolation structure extending through the BOX layer to the base substrate layer, the first isolation structure having an isolation breakdown voltage, the first isolation structure isolating the IC components; and a protective stack having a stack breakdown voltage greater than the isolation breakdown voltage, the stack coupled to the base substrate layer in at least two different locations , the stack comprising: a first voltage protection component (2-1) having a first anode coupled to one of the at least two different locations and a first cathode coupled to the first isolation structure and operable in use to receive a transient voltage, a difference between the transient voltage at a cathode of the stack and the substrate bias voltage being less than the isolation breakdown voltage; and a second voltage protection component (2-2) having a second anode and a second cathode, the second anode coupled to the first cathode of the first voltage protection component, the second cathode of the second voltage protection component being at the cathode of the stack.
An anti-penetration and gas permeable potting container, with an open-ended cavity, wherein, said potting container is made by bonding aggregate particles with hydrophobic binder, and pores which allow gas molecules to penetrate and liquid water molecules not to penetrate are formed between adjacent said aggregate particles, wherein, said aggregate particles are quartz sand and slag mixed at the weight ratio of 5:1, the grain sizes of the quartz sand are 0.075-0.3mm, the grain sizes of the slag are 0.1-0.3mm, and pores of 0.01-0.2mm are formed between adjacent aggregate particles and are thoroughly distributed on the potting container; or said aggregate particles are quartz sand and ceramsite mixed at the weight ratio of 4:2, the grain sizes of the quartz sand are 0.1-0.3mm, the grain sizes of the ceramsite are 0.075-0.3mm, and pores of 0.01-0.2mm are formed between adjacent aggregate particles and are thoroughly distributed on the potting container; or said aggregate particles are ceramsite and glass beads mixed at the weight ratio of 2:1, the grain sizes of the ceramsite are 0.075-0.6mm, the grain sizes of the glass beads are 0.04-0.15mm, and pores of 0.02-0.2mm are formed between adjacent aggregate particles and are thoroughly distributed on the potting container; or said aggregate particles are quartz sand and glass beads mixed at the weight ratio of 5:1, and the grain sizes of the quartz sand are 0.075-0.3mm, while the grain sizes of the glass beads are 0.04-0.15mm, and pores of 0.02-0.15mm are formed between adjacent aggregate particles and are thoroughly distributed on the potting container.
A moistening system for paper sheets or strips in a cardboard making machine, comprising a frame which supports a plurality of nozzles for spraying water, comprising a micro-perforated plate comprising holes for distributing atomized water and micro-holes for dispensing a ventilation air flow, characterized in that the system comprises a plate which supports a plurality of ventilation nozzles , wherein the plate is sandwiched between the frame and the micro-perforated plate .
A method for determining the amount of thyroglobulin in a test sample, comprising: (a) digesting thyroglobulin and an added isotopically labeled thyroglobulin peptide standard in said test sample to form Tg peptides and Tg peptide standard products, wherein in the Tg peptide standard one or more valine residues are isotopically labeled with 13 C, 15 N or both; (b) purifying said Tg peptides and Tg peptide standard products from step (a); (c) ionizing said Tg peptides and Tg peptide standard products from step (b) to produce one or more Tg peptide ions and Tg peptide standard product ions detectable by mass spectrometry; (d) detecting the amount of the ion(s) from step (c) by mass spectrometry; wherein the amount of the ion(s) detected in step (d) is related to the amount of thyroglobulin in said test sample and the amount of thyroglobulin peptide standard that was digested in step (a); and (e) determining the amount of thyroglobulin in the test sample, taking into account the amount of ions of Tg peptide standard products that was detected in step (d); wherein the thyroglobulin peptide standard comprises the amino acid sequence KVPESKVIFDANAPV*AV*RSKVPDS, wherein V* denotes an isotopically labeled valine residue. (a) digesting thyroglobulin and an added isotopically labeled thyroglobulin peptide standard in said test sample to form Tg peptides and Tg peptide standard products, wherein in the Tg peptide standard one or more valine residues are isotopically labeled with 13 C, 15 N or both; (b) purifying said Tg peptides and Tg peptide standard products from step (a); (c) ionizing said Tg peptides and Tg peptide standard products from step (b) to produce one or more Tg peptide ions and Tg peptide standard product ions detectable by mass spectrometry; (d) detecting the amount of the ion(s) from step (c) by mass spectrometry; wherein the amount of the ion(s) detected in step (d) is related to the amount of thyroglobulin in said test sample and the amount of thyroglobulin peptide standard that was digested in step (a); and (e) determining the amount of thyroglobulin in the test sample, taking into account the amount of ions of Tg peptide standard products that was detected in step (d); wherein the thyroglobulin peptide standard comprises the amino acid sequence KVPESKVIFDANAPV*AV*RSKVPDS, wherein V* denotes an isotopically labeled valine residue.
A gain control method, comprising: acquiring a signal power of a current period ; determining a maximum received power of a next period according to the signal power of the current period ; and determining a gain value of the next period according to the maximum received power of the next period characterized in that , acquiring the signal power of the current period comprises: acquiring a power of a synchronization signal block with a maximum power in the current period. acquiring a signal power of a current period ; determining a maximum received power of a next period according to the signal power of the current period ; and determining a gain value of the next period according to the maximum received power of the next period characterized in that , acquiring the signal power of the current period comprises: acquiring a power of a synchronization signal block with a maximum power in the current period.
A can end structured to be coupled to a can body, said can end comprising: a can end body that includes a center panel , an annular portion , a chuck wall and a curl ; wherein said annular portion is disposed about said center panel ; said chuck wall is disposed about said annular portion ; said curl extends radially outwardly from the chuck wall ; and said annular portion includes a first annular planar portion , a second annular planar portion , a countersink and an annular tapered portion wherein: said first annular planar portion extends in a plane perpendicular to said center panel, said second annular planar portion extends in a plane perpendicular to said center panel, said countersink is disposed between the first annular planar portion 54A and the second annular planar portion 54B, characterized in that said annular tapered portion extends at an angle of between 0° and 30° relative to a plane of the center panel; and said annual portion includes a subsurface step disposed within, or immediately adjacent the tapered portion , the subsurface step being an area of transition between two planes and disposed below the plane of the upper surface. a can end body that includes a center panel , an annular portion , a chuck wall and a curl ; wherein said annular portion is disposed about said center panel ; said chuck wall is disposed about said annular portion ; said curl extends radially outwardly from the chuck wall ; and said annular portion includes a first annular planar portion , a second annular planar portion , a countersink and an annular tapered portion wherein: said first annular planar portion extends in a plane perpendicular to said center panel, said second annular planar portion extends in a plane perpendicular to said center panel, said countersink is disposed between the first annular planar portion 54A and the second annular planar portion 54B, characterized in that said annular tapered portion extends at an angle of between 0° and 30° relative to a plane of the center panel; and said annual portion includes a subsurface step disposed within, or immediately adjacent the tapered portion , the subsurface step being an area of transition between two planes and disposed below the plane of the upper surface. said first annular planar portion extends in a plane perpendicular to said center panel, said second annular planar portion extends in a plane perpendicular to said center panel, said countersink is disposed between the first annular planar portion 54A and the second annular planar portion 54B, characterized in that said annular tapered portion extends at an angle of between 0° and 30° relative to a plane of the center panel; and said annual portion includes a subsurface step disposed within, or immediately adjacent the tapered portion , the subsurface step being an area of transition between two planes and disposed below the plane of the upper surface.
A method performed by a user equipment, UE, the method comprising: receiving , by the UE from a base station, a UE-specific radio resource control, RRC, message indicating a sidelink, SL, communication resource configuration to be used by the UE for communicating SL control information and SL data between the UE and another UE; transmitting , by the UE, SL control information to the other UE using a communication resource indicated by the SL communication resource configuration received from the base station; and transmitting , by the UE, SL data to the other UE using the communication resource indicated by the SL communication resource configuration, wherein the SL communication resource configuration comprises an indication of a periodicity of the communication resource, and wherein the SL control information and the SL data are transmitted by the UE without the UE receiving from a base station, in a downlink control information, DCI, a grant of the communication resource, wherein the SL control information indicates the communication resource used for transmitting the SL data, wherein the SL communication resource configuration further comprises a transmission pattern that defines a pattern of time resources, frequency resources or time and frequency resources for transmitting the SL data to the other UE, and wherein the resources for transmitting the control information to the other UE are derived from the transmission pattern that defines the SL data resources to be used. receiving , by the UE from a base station, a UE-specific radio resource control, RRC, message indicating a sidelink, SL, communication resource configuration to be used by the UE for communicating SL control information and SL data between the UE and another UE; transmitting , by the UE, SL control information to the other UE using a communication resource indicated by the SL communication resource configuration received from the base station; and transmitting , by the UE, SL data to the other UE using the communication resource indicated by the SL communication resource configuration, wherein the SL communication resource configuration comprises an indication of a periodicity of the communication resource, and wherein the SL control information and the SL data are transmitted by the UE without the UE receiving from a base station, in a downlink control information, DCI, a grant of the communication resource, wherein the SL control information indicates the communication resource used for transmitting the SL data, wherein the SL communication resource configuration further comprises a transmission pattern that defines a pattern of time resources, frequency resources or time and frequency resources for transmitting the SL data to the other UE, and wherein the resources for transmitting the control information to the other UE are derived from the transmission pattern that defines the SL data resources to be used.