mhurhangee/patent-ind-claim-en huggingface dataset:
A food product forming machine , comprising: a) a food supply comprising a1) a hopper for holding a supply of food product, and a2) an auger system configured to deliver food product from the hopper , wherein the auger system has at least one feed screw located in the hopper and a feed screw drive configured to rotate the feed screw ; b) a rotary food pump connected to the food supply ; c) a molding mechanism having a mold plate , the mold plate being reciprocated by a mold plate drive between a cavity fill position and a cavity discharge position, wherein the auger system is adapted to deliver food product from the hopper toward the molding mechanism ; d) a knockout drive for reciprocating a knockout plunger to discharge molded food products from a cavity in the mold plate ; and e) a manifold connected to an outlet of the food pump and having an outlet passageway connected to an inlet of the molding mechanism for filling the cavity of the mold plate ; characterized in that f) the hopper has an opening at a lower rear of the hopper configured to remove the feed screw therethrough, and g) the hopper has a cap for removably covering the opening, and h) the feed screw is journaled to rotate in an opening of the cap . a) a food supply comprising a1) a hopper for holding a supply of food product, and a2) an auger system configured to deliver food product from the hopper , wherein the auger system has at least one feed screw located in the hopper and a feed screw drive configured to rotate the feed screw ; a1) a hopper for holding a supply of food product, and a2) an auger system configured to deliver food product from the hopper , wherein the auger system has at least one feed screw located in the hopper and a feed screw drive configured to rotate the feed screw ; b) a rotary food pump connected to the food supply ; c) a molding mechanism having a mold plate , the mold plate being reciprocated by a mold plate drive between a cavity fill position and a cavity discharge position, wherein the auger system is adapted to deliver food product from the hopper toward the molding mechanism ; d) a knockout drive for reciprocating a knockout plunger to discharge molded food products from a cavity in the mold plate ; and e) a manifold connected to an outlet of the food pump and having an outlet passageway connected to an inlet of the molding mechanism for filling the cavity of the mold plate ; f) the hopper has an opening at a lower rear of the hopper configured to remove the feed screw therethrough, and g) the hopper has a cap for removably covering the opening, and h) the feed screw is journaled to rotate in an opening of the cap .
A method of managing snapshots on a storage system, the method comprising: a storage controller receiving a request to store a first snapshot associated with a first volume among a plurality of volumes on the storage system; determining if an assigned snapshot reserve space associated with the first volume remaining is less than an amount of space that is required to store the first snapshot; characterized by, in response to the assigned snapshot reserve space remaining being less than the amount of space required, borrowing snapshot reserve space first from an unused assigned snapshot reserve space assigned to another volume of the plurality of volumes to store snapshots for the respective other volume but is currently unused by the respective other volume, and once there is no unused assigned snapshot reserve space , borrowing snapshot reserve space from an unused unassigned space within the storage system; and storing at least a portion of the first snapshot to the borrowed snapshot reserve space. a storage controller receiving a request to store a first snapshot associated with a first volume among a plurality of volumes on the storage system; determining if an assigned snapshot reserve space associated with the first volume remaining is less than an amount of space that is required to store the first snapshot; characterized by, in response to the assigned snapshot reserve space remaining being less than the amount of space required, borrowing snapshot reserve space first from an unused assigned snapshot reserve space assigned to another volume of the plurality of volumes to store snapshots for the respective other volume but is currently unused by the respective other volume, and once there is no unused assigned snapshot reserve space , borrowing snapshot reserve space from an unused unassigned space within the storage system; and storing at least a portion of the first snapshot to the borrowed snapshot reserve space.
A method for protecting a biometric template, comprising the steps of: retrieving an original vector (V) representing said biometric template, said vector comprising a plurality of n original elements (v 1 , v 2 , ..v i ,.., v n ); mapping at least some elements from said original vector to a protected vector (P) comprising a plurality of n-m+1 protected elements (p 1 , p 2 , ..p i ,.., p n-m+1 ); characterized in that the mapping is based on multivariate polynomials defined by a number m of user-specific coefficients (C) and exponents (E). retrieving an original vector (V) representing said biometric template, said vector comprising a plurality of n original elements (v 1 , v 2 , ..v i ,.., v n ); mapping at least some elements from said original vector to a protected vector (P) comprising a plurality of n-m+1 protected elements (p 1 , p 2 , ..p i ,.., p n-m+1 ); characterized in that the mapping is based on multivariate polynomials defined by a number m of user-specific coefficients (C) and exponents (E).
A method carried out by a base station for random access preamble detection, comprising: partitioning a received uplink signal into a plurality of segments each having time duration equal to the time duration of a random access sequence of a plurality of identical random access sequences; determining a frequency offset of the received uplink signal; adjusting the received uplink signal for the determined frequency offset, wherein adjusting the received uplink signal with the determined frequency offset comprises compensating for the determined frequency offset for each of the plurality of segments to obtain a plurality of offset-compensated segments; detecting , from the adjusted uplink signal, whether there is a random access preamble with a first false alarm value, wherein the random access preamble comprises at least the sequence of the plurality of identical random access sequences; detecting , from the received uplink signal, whether there is a random access preamble with a second false alarm value, before determining the frequency offset of the received uplink signal, wherein determining the frequency offset of the received uplink signal is performed in response that a random access preamble is detected with the second false alarm value; and the second false alarm value is higher than the first false alarm value. partitioning a received uplink signal into a plurality of segments each having time duration equal to the time duration of a random access sequence of a plurality of identical random access sequences; determining a frequency offset of the received uplink signal; adjusting the received uplink signal for the determined frequency offset, wherein adjusting the received uplink signal with the determined frequency offset comprises compensating for the determined frequency offset for each of the plurality of segments to obtain a plurality of offset-compensated segments; detecting , from the adjusted uplink signal, whether there is a random access preamble with a first false alarm value, wherein the random access preamble comprises at least the sequence of the plurality of identical random access sequences; detecting , from the received uplink signal, whether there is a random access preamble with a second false alarm value, before determining the frequency offset of the received uplink signal, wherein determining the frequency offset of the received uplink signal is performed in response that a random access preamble is detected with the second false alarm value; and the second false alarm value is higher than the first false alarm value.
A bone cement mixing device , comprising at least two needles , an ampoule holder , a housing , a cap and two ampoules filled with a liquid, which can be perforated by a respective needle , and wherein the liquid is dischargeable from the ampoules through the needles ; wherein the ampoules can be slidingly engaged with the needles simultaneously, by means of the ampoule holder ; wherein the ampoules are placed in the ampoule holder which is arranged in the cap which is slidably accommodated in the housing . wherein the ampoules can be slidingly engaged with the needles simultaneously, by means of the ampoule holder ; wherein the ampoules are placed in the ampoule holder which is arranged in the cap which is slidably accommodated in the housing .
A catheter comprising an elongated member of cylindrical shape comprising first and second lumens extending each between a distal end and a proximal portion of the elongated member ; wherein the elongated member comprises a longitudinal wave-shaped opening along the whole length of the second lumen , at least between the distal end of the elongated member and said proximal portion of the elongated member .
An aircraft nacelle comprising: a first fan cowl , rotatable about a first axis, wherein an opening is defined in an exterior surface of the first fan cowl ; a second fan cowl , rotatable about a second axis; a blade , located along the exterior surface of the first fan cowl and moveable along a path of movement between a stowed position and a deployed position; a latch mechanism , moveable between a latched position, where the first fan cowl and the second fan cowl are secured to one another, and an unlatched position, where a portion of the latch mechanism obstructs the path of movement of the blade ; an arm , moveable between a retracted position, where the arm is positioned within an interior volume of the aircraft nacelle , and an extended position, where a portion of the arm extends through the opening in the exterior surface of the first fan cowl ; and a linkage assembly , operably connecting the arm to the blade , wherein the arm is unable to move from the extended position into the retracted position when the blade is in the deployed position and the latch mechanism is in the unlatched position, wherein the linkage assembly includes a shaft , connected to the arm , and wherein the shaft is configured to rotate about a longitudinal axis to actuate the arm into the extended position. a first fan cowl , rotatable about a first axis, wherein an opening is defined in an exterior surface of the first fan cowl ; a second fan cowl , rotatable about a second axis; a blade , located along the exterior surface of the first fan cowl and moveable along a path of movement between a stowed position and a deployed position; a latch mechanism , moveable between a latched position, where the first fan cowl and the second fan cowl are secured to one another, and an unlatched position, where a portion of the latch mechanism obstructs the path of movement of the blade ; an arm , moveable between a retracted position, where the arm is positioned within an interior volume of the aircraft nacelle , and an extended position, where a portion of the arm extends through the opening in the exterior surface of the first fan cowl ; and a linkage assembly , operably connecting the arm to the blade , wherein the arm is unable to move from the extended position into the retracted position when the blade is in the deployed position and the latch mechanism is in the unlatched position, wherein the linkage assembly includes a shaft , connected to the arm , and wherein the shaft is configured to rotate about a longitudinal axis to actuate the arm into the extended position.
A method of inspecting a component using computed tomography, the method comprising the steps of; (a) providing a computed tomography (CT) scanner; (b) (i) providing a target component that includes a solid area; and (ii) providing 3D reference data for the target component to 3D image software; (c) reviewing the geometry of the target component; (d) estimating the best component orientation, in order to minimize long X-Ray path lengths through the solid area; (e) orienting the target component in the estimated best component orientation; (f) scanning the target component with the CT scanner, to obtain best orientation CT scan data; (g) loading the obtained best orientation CT scan data into the 3D image software; (h) registering the best orientation CT scan data to the 3D reference data for the target component; (i) determining acceptable and unacceptable regions of the best orientation CT scan data; (j) if one or more regions of the best orientation CT scan data has been determined as being unacceptable, determining additional component orientations for additional scanning; (k) repeating steps (e) through (j) for one or more of the determined additional component orientations, until acceptable CT scan data has been obtained for all regions of the target component; and (l) creating a merged volume of acceptable CT scan data for the target component. (a) providing a computed tomography (CT) scanner; (b) (i) providing a target component that includes a solid area; and (ii) providing 3D reference data for the target component to 3D image software; (i) providing a target component that includes a solid area; and (ii) providing 3D reference data for the target component to 3D image software; (c) reviewing the geometry of the target component; (d) estimating the best component orientation, in order to minimize long X-Ray path lengths through the solid area; (e) orienting the target component in the estimated best component orientation; (f) scanning the target component with the CT scanner, to obtain best orientation CT scan data; (g) loading the obtained best orientation CT scan data into the 3D image software; (h) registering the best orientation CT scan data to the 3D reference data for the target component; (i) determining acceptable and unacceptable regions of the best orientation CT scan data; (j) if one or more regions of the best orientation CT scan data has been determined as being unacceptable, determining additional component orientations for additional scanning; (k) repeating steps (e) through (j) for one or more of the determined additional component orientations, until acceptable CT scan data has been obtained for all regions of the target component; and (l) creating a merged volume of acceptable CT scan data for the target component.
Apparatus for producing multilayer needle-punched nonwovens with the same or different materials and quantities over the nonwoven thickness and/or nonwoven width of the respective individual layers, characterized in that it comprises spreading devices for applying the materials to at least one or more un-needled or needled fiber pile layer(s) , wherein one or more of the spreading devices are located between doffer conveyor belts of a carding machine .
A core assembly for wireless power communication comprising: a plate shaped core made of a magnetic material, the plate shaped core including concave parts provided in a main surface thereof; and a plurality of winding type coils received in the concave parts and partially overlapped with each other, wherein the concave parts include: a first concave part which is formed at a first depth having a first curved contour; and a second concave part formed to be in communication with the first concave part, the second concave part is formed at a second depth having a second curved contour, the second depth being shallower than the first depth, and wherein the first and second concave parts are formed by being recessed in a form in which the contours of the first concave part and the second concave part partially overlap each other; and a circuit board is positioned beneath the plate shaped core, the circuit board being connected to both ends of each of the coils to control application of a power to the coils. a plate shaped core made of a magnetic material, the plate shaped core including concave parts provided in a main surface thereof; and a plurality of winding type coils received in the concave parts and partially overlapped with each other, wherein the concave parts include: a first concave part which is formed at a first depth having a first curved contour; and a second concave part formed to be in communication with the first concave part, the second concave part is formed at a second depth having a second curved contour, the second depth being shallower than the first depth, and wherein the first and second concave parts are formed by being recessed in a form in which the contours of the first concave part and the second concave part partially overlap each other; and a circuit board is positioned beneath the plate shaped core, the circuit board being connected to both ends of each of the coils to control application of a power to the coils. a first concave part which is formed at a first depth having a first curved contour; and a second concave part formed to be in communication with the first concave part, the second concave part is formed at a second depth having a second curved contour, the second depth being shallower than the first depth, and wherein the first and second concave parts are formed by being recessed in a form in which the contours of the first concave part and the second concave part partially overlap each other; and a circuit board is positioned beneath the plate shaped core, the circuit board being connected to both ends of each of the coils to control application of a power to the coils.
A (R)-3-(1-(2,3-dichloro-4-(pyrazin-2-yl)phenyl)-2,2,2-trifluoroethyl)-1-methyl-1-(1-methylpiperidin-4-yl)urea fumarate salt, said salt being at least 50% in crystalline form.
A process for conducting an eye examination of a user using a mobile device, the process comprising: capturing a first image of an object using a camera of the mobile device set to a fixed focusing distance, the object being in focus; using a processor coupled to the camera, the camera comprising a lens having a focal length and a focal plane: determining , based on the focal length, a best-focus distance, a distance between the lens and the focal plane of the camera, and an image size of the object, with reference to the first image, an absolute size of the object; capturing a second image of the object using the camera of the mobile device; determining , based on the absolute size of the object and with reference to the second image, a distance from the mobile device to the object; providing an indication via the mobile device to move the mobile device relative to the object; and receiving input from the user of the mobile device in response to an eye examination program. capturing a first image of an object using a camera of the mobile device set to a fixed focusing distance, the object being in focus; using a processor coupled to the camera, the camera comprising a lens having a focal length and a focal plane: determining , based on the focal length, a best-focus distance, a distance between the lens and the focal plane of the camera, and an image size of the object, with reference to the first image, an absolute size of the object; capturing a second image of the object using the camera of the mobile device; determining , based on the absolute size of the object and with reference to the second image, a distance from the mobile device to the object; providing an indication via the mobile device to move the mobile device relative to the object; and receiving input from the user of the mobile device in response to an eye examination program. determining , based on the focal length, a best-focus distance, a distance between the lens and the focal plane of the camera, and an image size of the object, with reference to the first image, an absolute size of the object; capturing a second image of the object using the camera of the mobile device; determining , based on the absolute size of the object and with reference to the second image, a distance from the mobile device to the object; providing an indication via the mobile device to move the mobile device relative to the object; and
Connection device comprising: - a housing body which forms a connection structure and a supply cable input , and - several plug contacts , wherein - the plug contacts are designed as clamping contacts, which are received in recesses in a base segment , - Aacircuit receiving section is formed in the housing body , and - an electronic plug circuit is received in the circuit receiving section , - the plug contacts are accessible via slot openings in a lower end face of the base segment , - the plug circuit is designed as an addressable plug circuit and adjusts the power transfer from a power wire of a supply cable to at least one of the plug contacts in accordance with an information content of a supplied signal on at least one of the plug contacts , and - the plug circuit is constructed and configured so that it generates a feedback signal that describes the current flowing through the plug contact . - a housing body which forms a connection structure and a supply cable input , and - several plug contacts , wherein - the plug contacts are designed as clamping contacts, which are received in recesses in a base segment , - Aacircuit receiving section is formed in the housing body , and - an electronic plug circuit is received in the circuit receiving section , - the plug contacts are accessible via slot openings in a lower end face of the base segment , - the plug circuit is designed as an addressable plug circuit and adjusts the power transfer from a power wire of a supply cable to at least one of the plug contacts in accordance with an information content of a supplied signal on at least one of the plug contacts , and - the plug circuit is constructed and configured so that it generates a feedback signal that describes the current flowing through the plug contact .