mhurhangee/patent-ind-claim-en huggingface dataset:
A method for granting access to objects by entities in a computerized system, comprising: providing (S1) an access control list (ACL) specifying for each object access rights to the objects of the computerized system; assigning (S2) a capability requirement information to at least one of the objects in the access control list (ACL); assigning a capability information to at least one entity of the entities in the computerized system; requesting (S11) access to an object by an entity ; checking if the requesting entity has an access right in accordance with the ACL; and granting access (S5) to the requested object by the requesting entity only if the capability information assigned to the requesting entity matches with the capability requirement information assigned to the requested object , wherein the capability requirement information is a data flag in the ACL indicating a capability requirement, a capability requirement data entry (CRDE) and/or a pointer to a capability requirement data entry (CRDE). providing (S1) an access control list (ACL) specifying for each object access rights to the objects of the computerized system; assigning (S2) a capability requirement information to at least one of the objects in the access control list (ACL); assigning a capability information to at least one entity of the entities in the computerized system; requesting (S11) access to an object by an entity ; checking if the requesting entity has an access right in accordance with the ACL; and granting access (S5) to the requested object by the requesting entity only if the capability information assigned to the requesting entity matches with the capability requirement information assigned to the requested object , wherein the capability requirement information is a data flag in the ACL indicating a capability requirement, a capability requirement data entry (CRDE) and/or a pointer to a capability requirement data entry (CRDE).
Driver's cab for a utility vehicle , in particular for a military utility vehicle, comprising an interior space (I) enclosed by the driver's cab , a driver's cab floor , a first protrusion formed on the driver's cab floor and a second protrusion formed on the driver's cab floor , wherein the first protrusion and the second protrusion are curved away from the interior space (I) such that the first protrusion and the second protrusion extend away from the interior space (I) and extend into a surroundings (U) of the driver's cab , wherein the first protrusion and the second protrusion each comprise a first contour defining the first protrusion and the second protrusion in a first sectional plane (E1) intersecting the driver's cab floor , wherein the first contour is curved in an arcuate manner at least in sections, wherein the first protrusion and the second protrusion each comprise a second contour defining the first protrusion and the second protrusion in a second sectional plane (E2) intersecting the driver's cab floor , wherein the second contour is curved in an arcuate manner at least in sections, and wherein the first sectional plane (E1) and the second sectional plane (E2) are positioned perpendicular to each other, wherein the first protrusion and the second protrusion are arranged at a distance from each other, wherein a third protrusion is formed on the driver's cab floor , wherein the third protrusion is curved away from the interior space (I), and wherein the third protrusion is arranged between the first protrusion and the second protrusion . an interior space (I) enclosed by the driver's cab , a driver's cab floor , a first protrusion formed on the driver's cab floor and a second protrusion formed on the driver's cab floor , wherein the first protrusion and the second protrusion are curved away from the interior space (I) such that the first protrusion and the second protrusion extend away from the interior space (I) and extend into a surroundings (U) of the driver's cab , wherein the first protrusion and the second protrusion each comprise a first contour defining the first protrusion and the second protrusion in a first sectional plane (E1) intersecting the driver's cab floor , wherein the first contour is curved in an arcuate manner at least in sections, wherein the first protrusion and the second protrusion each comprise a second contour defining the first protrusion and the second protrusion in a second sectional plane (E2) intersecting the driver's cab floor , wherein the second contour is curved in an arcuate manner at least in sections, and wherein the first sectional plane (E1) and the second sectional plane (E2) are positioned perpendicular to each other, wherein the first protrusion and the second protrusion are arranged at a distance from each other, wherein a third protrusion is formed on the driver's cab floor , wherein the third protrusion is curved away from the interior space (I), and wherein the third protrusion is arranged between the first protrusion and the second protrusion .
Liposomal irinotecan for use in an antineoplastic therapy for the treatment of a solid tumor in a patient, wherein the liposomal irinotecan is administered in combination with a Poly(ADP-ribose) Polymerase (PARP) inhibitor , wherein the liposomal irinotecan is repeatedly administered, and wherein the treatment comprises: i) administering to the patient liposomal irinotecan once every two weeks; and ii) administering the PARP inhibitor daily for 3 to 10 days between consecutive administrations of the liposomal irinotecan, wherein the PARP inhibitor is administered at least 2, 3, 4 or 5 days after the administration of the liposomal irinotecan and at least 2, 3, 4 or 5 days prior to the next administration of the liposomal irinotecan. i) administering to the patient liposomal irinotecan once every two weeks; and ii) administering the PARP inhibitor daily for 3 to 10 days between consecutive administrations of the liposomal irinotecan, wherein the PARP inhibitor is administered at least 2, 3, 4 or 5 days after the administration of the liposomal irinotecan and at least 2, 3, 4 or 5 days prior to the next administration of the liposomal irinotecan.
Filter device, at least consisting of an enclosure and a filter element that can be replaceably received therein, said filter element having at least two key or lock parts engaging in correspondingly shaped lock or key parts in the enclosure , which, when engaged in pairs with respect to one another, act together as - coding means and/or - fixing means and/or - functional means and/or - means to protect against replication, the respective key or lock parts of the filter element being arranged on a ring which is attached to an end cap of the filter element and preferably forms a monobloc part of the end cap , the enclosure for receiving the ring comprising a receptacle that follows the outer contour of said ring , which comprises a sealing apparatus on at least one of its free end faces, which, with a lid part sealing the enclosure as a part thereof and/or with parts of the enclosure itself, seals the inside of the filter device from the environment, at least in this region of the system, characterised in that the respective sealing apparatus used follows the shape of the key parts . - coding means and/or - fixing means and/or - functional means and/or - means to protect against replication,
An assembly of a module and a mounting frame for a modular conveyor, wherein the module comprises a body part extending transversely to a direction (T) having a top surface and a bottom , wherein the body part at the front and rear viewed in the direction (T) is provided with coupling elements and wherein the coupling elements of the module are couplable to coupling elements of similar modules successive in the direction (T), and wherein a receiving provision is provided for coupling the mounting frame , wherein the receiving provision comprises a quick coupling , wherein at least one lock is provided which is configured for locking the mounting frame against uncoupling from the module , wherein an axle is mounted on the mounting frame , wherein the axle is provided with at least one roller , characterized in that the top surface of the module is a substantially closed and flat surface, and in that the receiving provision is provided on the flat top surface and the mounting frame is configured for placement of the mounting frame on the module and removal from the module , respectively, in an insertion direction (V) along the flat top surface from the side of the module which is directed substantially transversely to the direction (T).
A method, comprising: at a user equipment device ,UE, : entering a dual connectivity mode with a cellular network, wherein the dual connectivity mode includes connections to a master cell group and a secondary cell group; transmitting , to a base station of the cellular network, information including a suggested uplink split bearer configuration for a bearer connecting the UE to the master cell group and the secondary cell group, wherein the information includes a data split threshold, wherein for uplink transmissions less than the data split threshold amount, uplink transmission may occur via only the primary radio link control, RLC, entity; receiving , from the base station, an indication of a selected uplink bearer configuration; and transmitting , to the base station, uplink data according to the selected uplink bearer configuration. entering a dual connectivity mode with a cellular network, wherein the dual connectivity mode includes connections to a master cell group and a secondary cell group; transmitting , to a base station of the cellular network, information including a suggested uplink split bearer configuration for a bearer connecting the UE to the master cell group and the secondary cell group, wherein the information includes a data split threshold, wherein for uplink transmissions less than the data split threshold amount, uplink transmission may occur via only the primary radio link control, RLC, entity; receiving , from the base station, an indication of a selected uplink bearer configuration; and transmitting , to the base station, uplink data according to the selected uplink bearer configuration.
A transport refrigeration unit, TRU, system , comprising: a plurality of containers ; a plurality of TRUs , each of the plurality of TRUs operably coupled to a corresponding one of the plurality of containers and comprising: components configured to control an environment within an interior (201; 203) of the corresponding container ; and a TRU battery pack configured to store energy for powering at least the components ; an electrical grid , wherein each of the plurality of TRUs is coupled to the electrical grid such that a capacity of the TRU battery pack of each of the plurality of TRUs can be made available to the electrical grid ; and a control unit which is communicative with each of the plurality of TRUs and the electrical grid and which is configured to manage power supplies and demands between the TRU battery pack of each of the plurality of TRUs and the electrical grid . a plurality of containers ; a plurality of TRUs , each of the plurality of TRUs operably coupled to a corresponding one of the plurality of containers and comprising: components configured to control an environment within an interior (201; 203) of the corresponding container ; and a TRU battery pack configured to store energy for powering at least the components ; components configured to control an environment within an interior (201; 203) of the corresponding container ; and a TRU battery pack configured to store energy for powering at least the components ; an electrical grid , wherein each of the plurality of TRUs is coupled to the electrical grid such that a capacity of the TRU battery pack of each of the plurality of TRUs can be made available to the electrical grid ; and a control unit which is communicative with each of the plurality of TRUs and the electrical grid and which is configured to manage power supplies and demands between the TRU battery pack of each of the plurality of TRUs and the electrical grid .
A pad for electrically stimulated wound healing, comprising: a pad configured to be placed on a wound; at least one anode disposed on the pad to contact the wound; and at least one cathode disposed on the pad to contact the wound, the at least one cathode being disposed separately from the at least one anode, wherein the at least one anode and the at least one cathode are configured such that in contact with the wound they provide a flow of electrical current in an intended direction through the wound based on the separate locations of the at least one anode and the at least one cathode, characterized in that the at least one anode and the at least one cathode are woven into the pad via two or more distinct metallic wires. a pad configured to be placed on a wound; at least one anode disposed on the pad to contact the wound; and at least one cathode disposed on the pad to contact the wound, the at least one cathode being disposed separately from the at least one anode, wherein the at least one anode and the at least one cathode are configured such that in contact with the wound they provide a flow of electrical current in an intended direction through the wound based on the separate locations of the at least one anode and the at least one cathode, characterized in that the at least one anode and the at least one cathode are woven into the pad via two or more distinct metallic wires.
An absorbent article comprising a liquid-retentive absorbent member , and a leg cuff extending outward in a width direction from each of two lateral side portions of the absorbent member that extend in a longitudinal direction, the leg cuff extending along the lateral side portion, wherein two or more leg elastic members extending in the longitudinal direction are arranged in the leg cuff in a stretched state, the leg cuff is divided, by an imaginary line (IL) extending in the longitudinal direction through a center in the width direction between, out of the leg elastic members , an outermost leg elastic member located farthest outward in the width direction and an innermost leg elastic member located farthest inward in the width direction, into a leg cuff first region (ST) that extends from the imaginary line (IL) up to and comprising the outermost leg elastic member and a leg cuff second region (IT) that extends from the imaginary line (IL) up to and comprising the innermost leg elastic member , and when an elongation amount of the leg cuff first region (ST) and the leg cuff second region (IT) in a natural state is defined as 0, and the elongation amount thereof in a maximally stretched state is defined as 100, stress in the leg cuff first region (ST) is greater than stress in the leg cuff second region (IT) when the elongation amount is 5, and stress in the leg cuff second region (IT) is greater than stress in the leg cuff first region (ST) when the elongation amount is 100, wherein the outermost leg elastic member has a higher elongation percentage than the innermost leg elastic member , and wherein the innermost leg elastic member has a greater thickness than the outermost leg elastic member . wherein two or more leg elastic members extending in the longitudinal direction are arranged in the leg cuff in a stretched state, the leg cuff is divided, by an imaginary line (IL) extending in the longitudinal direction through a center in the width direction between, out of the leg elastic members , an outermost leg elastic member located farthest outward in the width direction and an innermost leg elastic member located farthest inward in the width direction, into a leg cuff first region (ST) that extends from the imaginary line (IL) up to and comprising the outermost leg elastic member and a leg cuff second region (IT) that extends from the imaginary line (IL) up to and comprising the innermost leg elastic member , and when an elongation amount of the leg cuff first region (ST) and the leg cuff second region (IT) in a natural state is defined as 0, and the elongation amount thereof in a maximally stretched state is defined as 100, stress in the leg cuff first region (ST) is greater than stress in the leg cuff second region (IT) when the elongation amount is 5, and stress in the leg cuff second region (IT) is greater than stress in the leg cuff first region (ST) when the elongation amount is 100, wherein the outermost leg elastic member has a higher elongation percentage than the innermost leg elastic member , and wherein the innermost leg elastic member has a greater thickness than the outermost leg elastic member .
A screw compressor comprising: a casing body ; a screw rotor disposed to rotate inside the casing body ; a slide valve movably provided between the casing body and the screw rotor ; a partition wall provided to face a back surface side of the slide valve and configured to divide an interior of the casing body into a discharge pressure space and a suction pressure space; and an injection mechanism configured to supply oil to a gap between an inner circumferential surface of the partition wall and the back surface side of the slide valve to seal the gap, the injection mechanism being configured to have at least one first oil feed hole formed to pass through the slide valve and at least one oil feed port serving as an oil outflow-side opening of the at least one first oil feed hole , one end of the at least one first oil feed hole facing the partition wall and configured to supply the oil to the gap from the opening- wherein the injection mechanism further has a first oil groove provided in the back surface side of the slide valve to face the partition wall and configured to distribute the oil supplied to the gap, the first oil groove and the at least one first oil feed hole communicating with each other via the at least one oil feed port to supply the oil to the gap from the first oil groove , wherein the first oil groove extends in a circumferential direction of the back surface side . a casing body ; a screw rotor disposed to rotate inside the casing body ; a slide valve movably provided between the casing body and the screw rotor ; a partition wall provided to face a back surface side of the slide valve and configured to divide an interior of the casing body into a discharge pressure space and a suction pressure space; and an injection mechanism configured to supply oil to a gap between an inner circumferential surface of the partition wall and the back surface side of the slide valve to seal the gap, the injection mechanism being configured to have at least one first oil feed hole formed to pass through the slide valve and at least one oil feed port serving as an oil outflow-side opening of the at least one first oil feed hole , one end of the at least one first oil feed hole facing the partition wall and configured to supply the oil to the gap from the opening- wherein the injection mechanism further has a first oil groove provided in the back surface side of the slide valve to face the partition wall and configured to distribute the oil supplied to the gap, the first oil groove and the at least one first oil feed hole communicating with each other via the at least one oil feed port to supply the oil to the gap from the first oil groove , wherein the first oil groove extends in a circumferential direction of the back surface side .
A method, performed by a device , of processing an image, the method comprising: obtaining at least two images of a target space captured using a camera, and a lens shading correction parameter and a weight value for blending pixel values of pixels, wherein the at least two images have a circular shape; determining 3D mesh model information and mapping information for the at least two images, wherein the mapping information indicates mapping between the at least two images and the 3D mesh model; generating metadata including the lens shading correction parameter, the weight value for blending pixel values of pixels included in overlapped regions, the 3D mesh model information and the mapping information; editing the at least two images to minimize margin regions having no data included, which are generated due to transmitting images of circular shapes to a terminal using a rectangular image structure, by: cropping image regions of each of the at least two images of the target space in the form of concentric bands ; and rearranging the cropped image regions to form a rectangular image transmitted to the terminal; and transmitting the rectangular image and the metadata , to the terminal for generating a 360 degree virtual reality, VR, image of the target space. obtaining at least two images of a target space captured using a camera, and a lens shading correction parameter and a weight value for blending pixel values of pixels, wherein the at least two images have a circular shape; determining 3D mesh model information and mapping information for the at least two images, wherein the mapping information indicates mapping between the at least two images and the 3D mesh model; generating metadata including the lens shading correction parameter, the weight value for blending pixel values of pixels included in overlapped regions, the 3D mesh model information and the mapping information; editing the at least two images to minimize margin regions having no data included, which are generated due to transmitting images of circular shapes to a terminal using a rectangular image structure, by: cropping image regions of each of the at least two images of the target space in the form of concentric bands ; and rearranging the cropped image regions to form a rectangular image transmitted to the terminal; and cropping image regions of each of the at least two images of the target space in the form of concentric bands ; and rearranging the cropped image regions to form a rectangular image transmitted to the terminal; and transmitting the rectangular image and the metadata , to the terminal for generating a 360 degree virtual reality, VR, image of the target space.
A biosensor , which enables measuring the concentration of a desired molecule inside a liquid medium, comprising - at least one metallic plate which functions as a ground plate, and which is preferably manufactured from aluminum, - at least one dielectric substrate which is located on top of the metallic plate , - at least one split-ring resonator which is realized on top of the dielectric substrate , and characterized by - at least two symmetrical antennas which are realized on the same plane with the electrically passive split-ring resonator on top of the substrate and which are exciting the electrically passive split-ring resonator by emitting electromagnetic waves, - the metallic plate which enables the electromagnetic wave emitted from the antennas to be transmitted to the electrically passive split-ring resonator by reflecting the said waves, - at least two ports where a network analyzer is connected to the antennas . - at least one metallic plate which functions as a ground plate, and which is preferably manufactured from aluminum, - at least one dielectric substrate which is located on top of the metallic plate , - at least one split-ring resonator which is realized on top of the dielectric substrate , and characterized by - at least two symmetrical antennas which are realized on the same plane with the electrically passive split-ring resonator on top of the substrate and which are exciting the electrically passive split-ring resonator by emitting electromagnetic waves, - the metallic plate which enables the electromagnetic wave emitted from the antennas to be transmitted to the electrically passive split-ring resonator by reflecting the said waves, - at least two ports where a network analyzer is connected to the antennas .