mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine, comprising: an ambient-air cooling circuit comprising a cooling channel disposed in a turbine blade and in fluid communication with a source of ambient air that provides cooling fluid ; and a pre-swirler , comprising: an inner shroud ; an outer shroud ; and a plurality of guide vanes , each spanning from the inner shroud to the outer shroud , wherein circumferentially adjacent guide vanes define respective nozzles there between, the nozzles defining a portion of the cooling circuit , each nozzle defined by a pressure side of a first guide vane , a suction side of the adjacent guide vane , an outer end wall defined by the inner shroud , and an inner end wall defined by the outer shroud ; wherein forces created by a rotation of the turbine blade motivate the cooling fluid through the cooling circuit ; and wherein the pre-swirler is configured to impart swirl to the cooling fluid drawn through the nozzles and to direct the swirled cooling fluid toward a base of the turbine blade . an ambient-air cooling circuit comprising a cooling channel disposed in a turbine blade and in fluid communication with a source of ambient air that provides cooling fluid ; and a pre-swirler , comprising: an inner shroud ; an outer shroud ; and a plurality of guide vanes , each spanning from the inner shroud to the outer shroud , wherein circumferentially adjacent guide vanes define respective nozzles there between, the nozzles defining a portion of the cooling circuit , each nozzle defined by a pressure side of a first guide vane , a suction side of the adjacent guide vane , an outer end wall defined by the inner shroud , and an inner end wall defined by the outer shroud ; an inner shroud ; an outer shroud ; and a plurality of guide vanes , each spanning from the inner shroud to the outer shroud , wherein circumferentially adjacent guide vanes define respective nozzles there between, the nozzles defining a portion of the cooling circuit , each nozzle defined by a pressure side of a first guide vane , a suction side of the adjacent guide vane , an outer end wall defined by the inner shroud , and an inner end wall defined by the outer shroud ; wherein forces created by a rotation of the turbine blade motivate the cooling fluid through the cooling circuit ; and wherein the pre-swirler is configured to impart swirl to the cooling fluid drawn through the nozzles and to direct the swirled cooling fluid toward a base of the turbine blade .
Clip filter for a hydraulic valve, having filter elements held in a support frame, wherein the support frame is of ring-like form and has a clip filter lock , wherein, for the purpose of closing the clip filter , ends of the support frame are able to be brought into engagement with one another, wherein the first end has a nose-like clip element and the second end has a recess complementary with respect to the clip element , wherein the recess is formed such that, in the locked state, the nose-like clip element is completely surrounded by it in a circumferential direction and is completely surrounded at one end and largely surrounded at the other end by it in a radial direction, wherein the nose-like clip element is of wedge-shaped form with a bottom side and with a top side configured facing away from the bottom side , and the recess is configured in a complementary manner, so as to have complementary surfaces, and wherein the clip element and the recess each have at least one surface portion formed so as to be orthogonal to the opening and closing direction and the clip element has a bottom side formed so as to be substantially parallel to the opening and closing direction, characterized in that , for opening force-optimized formation of the clip filter lock , the recess has a bulge on a surface opposite the bottom side of the clip element and the bottom side of the clip element has a recess complementary with respect to the bulge , and an outer arm formed on an outer side of the support frame is formed for the change of position in a closing process, wherein the outer arm has a cross-sectional reduction in the region of the recess .
Plant for treating objects in form of vehicle bodies and/or components, in particular for spray-painting vehicle bodies, comprising a plurality of stations, each station comprising a booth with at least one entrance and at least one exit for an object, an handling system configured for moving the object between entrance and exit and at least one robot configured for treating the object in the booth, inside the booth a support exists for supporting the object which enters the booth , which support is motor-driven to rotate about a vertical axis so as to rotate sequentially in respect to the treatment robot the object present on the support , and the handling system being arranged on the support so as to rotate together therewith so that it may be aligned with the entrance in order to receive an object and with the exit in order to evacuate an object, characterized in that the stations are arranged in checkboard or honeycomb configuration and for at least one of the stations the booth has at least one exit which is not aligned with at least one entrance .
A printed circuit board assembly , comprising: a first layer and a second layer wherein the first layer has a first side and a second side, and wherein the second layer has a first side and a second side; one or more sensors formed on or embedded in at least one of the first layer and the second layer, wherein the one or more sensors are configured to measure a temperature of the printed circuit board assembly; at least one thermoelectric device having a first side and a second side, wherein the at least one thermoelectric device is configured to adjust the temperature of the printed circuit board assembly based on the measurements of the one or more sensors, wherein a thermal epoxy couples the first side of the thermoelectric device to the second side of the first layer, and thermal epoxy couples the second side of the at least one thermoelectric device to the first side of the second layer; and a control circuit coupled to the at least one thermoelectric device and the one or more sensors, wherein the control circuit is configured to control the at least one thermoelectric device, wherein the control circuit is configured to monitor a temperature set point at one or more target locations in the printed circuit board assembly. a first layer and a second layer wherein the first layer has a first side and a second side, and wherein the second layer has a first side and a second side; one or more sensors formed on or embedded in at least one of the first layer and the second layer, wherein the one or more sensors are configured to measure a temperature of the printed circuit board assembly; at least one thermoelectric device having a first side and a second side, wherein the at least one thermoelectric device is configured to adjust the temperature of the printed circuit board assembly based on the measurements of the one or more sensors, wherein a thermal epoxy couples the first side of the thermoelectric device to the second side of the first layer, and thermal epoxy couples the second side of the at least one thermoelectric device to the first side of the second layer; and a control circuit coupled to the at least one thermoelectric device and the one or more sensors, wherein the control circuit is configured to control the at least one thermoelectric device, wherein the control circuit is configured to monitor a temperature set point at one or more target locations in the printed circuit board assembly.
A patient support (10; 110) comprising: a plurality of stacked layers of cushioning material, at least two of the stacked layers having a different firmness, and at least one of the stacked layers including a gel layer (40; 140), wherein the gel layer is formed by a plurality of intersecting gel walls (40b; 140b), the gel walls forming spaces there between, at least some of the spaces each having a foam body inserted therein to reinforce the adjacent gel walls (40b; 140b) so that immersion response of the gel layer (40; 140) is modified to provide a more gradual immersion into the support.
A refractive lens for retarding the progression of myopia in a human eye, the refractive lens comprising: a concentric annular multi-zone refractive lens including: correcting zones of optical power for correcting refractive error, and defocusing zones having a progressive power profile for projecting multiple defocus images or non-homogenous defocused images in front of at least a part of retina to inhibit myopic eye growth, the defocusing zones having a range of less negative powers than the optical power for correcting refractive power of the correcting zones ; wherein the correcting zones and the defocusing zones are alternated in the lens, wherein the lens has at least a total number of more than three correcting zones and defocusing zones alternating in a concentric manner, wherein the central first correcting/defocusing zone is smaller than the pupil is measured under photopic lighting conditions, wherein the same single homogeneous power is maintained over the correcting zones , characterized in that the defocusing zones have a sinusoidal power profile. a concentric annular multi-zone refractive lens including: correcting zones of optical power for correcting refractive error, and defocusing zones having a progressive power profile for projecting multiple defocus images or non-homogenous defocused images in front of at least a part of retina to inhibit myopic eye growth, the defocusing zones having a range of less negative powers than the optical power for correcting refractive power of the correcting zones ; correcting zones of optical power for correcting refractive error, and defocusing zones having a progressive power profile for projecting multiple defocus images or non-homogenous defocused images in front of at least a part of retina to inhibit myopic eye growth, the defocusing zones having a range of less negative powers than the optical power for correcting refractive power of the correcting zones ; wherein the correcting zones and the defocusing zones are alternated in the lens, wherein the lens has at least a total number of more than three correcting zones and defocusing zones alternating in a concentric manner, wherein the central first correcting/defocusing zone is smaller than the pupil is measured under photopic lighting conditions, wherein the same single homogeneous power is maintained over the correcting zones , characterized in that the defocusing zones have a sinusoidal power profile.
A composition comprising particles or agglomerates of one or more phosphorus oxide cotelomer comprising the polymerization residue of from 20 to 99.2 wt.% of one or more unsaturated carboxylic acids of polymerized units bearing carboxylic acid or salt groups, based on the total weight of reactants used to make the cotelomer, and at least 0.8 wt.% of methacrylic anhydride groups, based on the total weight of acidic polymerized units in the cotelomer, having a mean average particle size of from 2 μm to 1 mm.
An address information obtaining method, comprising: sending, by the first terminal, a type of a network repository function, NRF, and information about a first network slice to a dynamic host configuration protocol, DHCP server, to obtain a network repository network element that supports the type of the NRF, that is in the first network slice and that serves the first network slice; and receiving, by the first terminal, address information of the network repository network element from the DHCP server; determining , by a first terminal, that a network element that supports a type of a first network function, NF and that is in the first network slice needs to be accessed; sending , by the first terminal, the type of the first NF and the information about the first network slice to the network repository network element based on the address information of the network repository network element, to obtain address information of the network element that supports the type of the first NF and that is in the first network slice; and receiving , by the first terminal, address information of a first network element from the network repository network element, wherein the first network element is the network element that supports the type of the first NF and that is in the first network slice. sending, by the first terminal, a type of a network repository function, NRF, and information about a first network slice to a dynamic host configuration protocol, DHCP server, to obtain a network repository network element that supports the type of the NRF, that is in the first network slice and that serves the first network slice; and receiving, by the first terminal, address information of the network repository network element from the DHCP server; determining , by a first terminal, that a network element that supports a type of a first network function, NF and that is in the first network slice needs to be accessed; sending , by the first terminal, the type of the first NF and the information about the first network slice to the network repository network element based on the address information of the network repository network element, to obtain address information of the network element that supports the type of the first NF and that is in the first network slice; and receiving , by the first terminal, address information of a first network element from the network repository network element, wherein the first network element is the network element that supports the type of the first NF and that is in the first network slice.
An electrical energy storage system for an aircraft , comprising at least one electrical energy storage unit with power supply lines and an energy source that is configured to store electrical energy and to supply electrical power at a predetermined voltage range via the power supply lines , wherein the at least one electrical energy storage unit comprises: a power switching unit that is adapted to operate in an associated supply mode for supplying electrical power from the energy source via the power supply lines , and to operate in an associated disconnect mode for disconnecting the energy source from the power supply lines ; a driver enable stage that comprises at least a first enable channel and a second enable channel , wherein each one of the first enable channel and the second enable channel is adapted to operate in one of an enable mode and a disable mode; and a switch driver unit that is adapted to operate in one of an enable mode and a disable mode; wherein the power switching unit is configured to operate in the supply mode if the switch driver unit and at least one of the first enable channel and the second enable channel are operated in enable mode, and wherein the power switching unit is configured to operate in the disconnect mode if the switch driver unit is operated in disable mode, or if both the first enable channel and the second enable channel are operated in disable mode. a power switching unit that is adapted to operate in an associated supply mode for supplying electrical power from the energy source via the power supply lines , and to operate in an associated disconnect mode for disconnecting the energy source from the power supply lines ; a driver enable stage that comprises at least a first enable channel and a second enable channel , wherein each one of the first enable channel and the second enable channel is adapted to operate in one of an enable mode and a disable mode; and a switch driver unit that is adapted to operate in one of an enable mode and a disable mode; wherein the power switching unit is configured to operate in the supply mode if the switch driver unit and at least one of the first enable channel and the second enable channel are operated in enable mode, and wherein the power switching unit is configured to operate in the disconnect mode if the switch driver unit is operated in disable mode, or if both the first enable channel and the second enable channel are operated in disable mode.
A photon counting-type radiation detector , comprising: a first cell (1-1) transmitting radiation; and a second cell (1-2) stacked with the first cell (1-1), the second cell (1-2) absorbing the radiation passing through the first cell (1-1), wherein the first cell and the second cell are of direct photon counting, the first cell includes a first front-side electrode , a first backside electrode , and a first x-ray absorption layer , the second cell includes a second front-side electrode , a second backside electrode , and a second x-ray absortion layer , characterized in that the first front-side electrode, the first backside electrode, the second front-side electrode, and the second backside electrode include carbide or silicide, the carbide or the silicide includes one selected from a group consisting of Ti, W, Mo, Ta, and Nb, a width of the first front-side electrode and a width of the second front-side electrode are 250 μm or less; wherein the first cell (1-1) and the second cell (1-2) are of a Schottky type. a first cell (1-1) transmitting radiation; and a second cell (1-2) stacked with the first cell (1-1), the second cell (1-2) absorbing the radiation passing through the first cell (1-1), wherein the first cell and the second cell are of direct photon counting, the first cell includes a first front-side electrode , a first backside electrode , and a first x-ray absorption layer , the second cell includes a second front-side electrode , a second backside electrode , and a second x-ray absortion layer , characterized in that the first front-side electrode, the first backside electrode, the second front-side electrode, and the second backside electrode include carbide or silicide, the carbide or the silicide includes one selected from a group consisting of Ti, W, Mo, Ta, and Nb, a width of the first front-side electrode and a width of the second front-side electrode are 250 μm or less; wherein the first cell (1-1) and the second cell (1-2) are of a Schottky type.
A computer aided manufacturing system comprising: a numerically controlled NC machine tool providing a cutting tool; and a device for generating instructions for the numerically controlled NC machine tool, the device comprising: input means for receiving a machining pattern; input means for receiving a tool axis orientation; a processing module having addressable memory, the processing module adapted to determine a tool path based on a received machining pattern and a received axis orientation of the cutting tool, wherein the determined tool path is based on building each received machining pattern and each received orientation as objects to be used interchangeably so that any individual object is independent; and means for outputting the determined tool path as one or more NC machine instructions comprising five-axis operations to be performed by the cutting tool on a workpiece; wherein the system is configured to apply the cutting tool to the workpiece in accordance with the determined tool path. a numerically controlled NC machine tool providing a cutting tool; and a device for generating instructions for the numerically controlled NC machine tool, the device comprising: input means for receiving a machining pattern; input means for receiving a tool axis orientation; a processing module having addressable memory, the processing module adapted to determine a tool path based on a received machining pattern and a received axis orientation of the cutting tool, wherein the determined tool path is based on building each received machining pattern and each received orientation as objects to be used interchangeably so that any individual object is independent; and means for outputting the determined tool path as one or more NC machine instructions comprising five-axis operations to be performed by the cutting tool on a workpiece; wherein the system is configured to apply the cutting tool to the workpiece in accordance with the determined tool path. input means for receiving a machining pattern; input means for receiving a tool axis orientation; a processing module having addressable memory, the processing module adapted to determine a tool path based on a received machining pattern and a received axis orientation of the cutting tool, wherein the determined tool path is based on building each received machining pattern and each received orientation as objects to be used interchangeably so that any individual object is independent; and means for outputting the determined tool path as one or more NC machine instructions comprising five-axis operations to be performed by the cutting tool on a workpiece; wherein the system is configured to apply the cutting tool to the workpiece in accordance with the determined tool path.
Pneumatic vehicle tyre comprising a profiled tread with grooves , which run at an angle (α) of 0° to 70° to the axial direction and have two groove flanks and a groove base , and with base elevations , which sit on the groove base , are joined to the groove flanks and are in each case delimited by two end faces and in the radial direction by a top face , the top face , when viewed in cross section through the respective groove , running in a radially inwardly curved manner and reaching along the groove flanks either up to the periphery of the tread or ending before it at a distance of up to 2.0 mm, determined in the radial direction, characterized in that the top face of the base elevations , when viewed in cross section through the respective groove , runs in a radially inwardly curved manner.
A condensation water trap device comprising: a neutralizing unit including an inlet to introduce condensation water, an inner space to receive a neutralization agent for neutralizing the introduced condensation water, and a condensation water passage to allow condensation water, which is neutralized in the inner space by the neutralization agent, to flow out; and a discharging unit including a storage space to store the condensation water directly or indirectly introduced through the condensation water passage , an outlet open in a circular shape such that the stored condensation water is discharged, and a ball having a spherical shape and seated on the outlet to close the outlet , wherein the ball is spaced apart from the outlet through buoyancy applied by the condensation water when the condensation water is received at a threshold water level or more in the storage space , such that the condensation water is discharged through the outlet , wherein the condensation water trap device further comprises a discharge partition configured to separate the neutralizing unit from the discharging unit , wherein the condensation water passage is positioned in one point, which is higher than a position of the inlet , of the discharge partition . a neutralizing unit including an inlet to introduce condensation water, an inner space to receive a neutralization agent for neutralizing the introduced condensation water, and a condensation water passage to allow condensation water, which is neutralized in the inner space by the neutralization agent, to flow out; and a discharging unit including a storage space to store the condensation water directly or indirectly introduced through the condensation water passage , an outlet open in a circular shape such that the stored condensation water is discharged, and a ball having a spherical shape and seated on the outlet to close the outlet , wherein the ball is spaced apart from the outlet through buoyancy applied by the condensation water when the condensation water is received at a threshold water level or more in the storage space , such that the condensation water is discharged through the outlet , wherein the condensation water trap device further comprises a discharge partition configured to separate the neutralizing unit from the discharging unit , wherein the condensation water passage is positioned in one point, which is higher than a position of the inlet , of the discharge partition .