mhurhangee/patent-ind-claim-en huggingface dataset:
Hinge closure , comprising a frame assembly , which has a pin and is intended for fastening on a door frame, and a hinge assembly , which can be mounted in a rotatable manner on the pin and has a door part for fastening the hinge assembly onto a door, also has a pivoting part , which is mounted on the door part such that it can be pivoted about a pivot pin , and additionally has a slide , which is mounted in a displaceable manner in the door part , wherein in a hinge state, in which the pivoting part has been pivoted into the door part , the hinge assembly is movable exclusively in a rotatable manner about the pin of the frame assembly and in a venting state, in which the pivoting part has been pivoted out of the door part , said hinge assembly can be offset in a translatory manner in a direction transverse to the pin of the frame assembly and is not yet fully removable from the pin of the frame assembly , and wherein, by virtue of the slide being actuated manually counter to spring prestressing, the hinge assembly can be transferred from the venting state into a removal state, in which the hinge assembly is fully removable from the frame assembly , characterized in that the slide is designed and arranged such that, in the hinge state, the slide together with the door part forms a seat for the pin of the frame assembly , and in that the pivoting part is designed and arranged such that, also in the hinge state, the pivot pin of the pivoting part is offset in relation to the pin of the frame assembly , wherein, while being pivoted out of the door part , the pivoting part acts on the slide and, until the venting state is reached, displaces the slide and, for the purpose of reaching the removal state, the slide has to be displaced onwards manually counter to the spring prestressing.
A system for mimicking daylight in a space by using one or more light sources having a redirectable light output, said system comprising: at least one input interface ; at least one control interface ; and at least one processor configured to: - determine a daylight-mimicking light output direction for said light output in said space based on a time of day, - obtain input via said at least one input interface , and characterised by the at least one processor being configured to: - determine an estimated or detected position of a person or animal in said space from said input, - determine an adjusted light output direction for said one or more light sources in dependence on said daylight-mimicking light output direction and said estimated or detected position, and - control, via said at least one control interface , said one or more light sources to render said light output in said adjusted light output direction . at least one input interface ; at least one control interface ; and at least one processor configured to: - determine a daylight-mimicking light output direction for said light output in said space based on a time of day, - obtain input via said at least one input interface , and characterised by the at least one processor being configured to: - determine an estimated or detected position of a person or animal in said space from said input, - determine an adjusted light output direction for said one or more light sources in dependence on said daylight-mimicking light output direction and said estimated or detected position, and - control, via said at least one control interface , said one or more light sources to render said light output in said adjusted light output direction . - determine a daylight-mimicking light output direction for said light output in said space based on a time of day, - obtain input via said at least one input interface , and characterised by the at least one processor being configured to: - determine an estimated or detected position of a person or animal in said space from said input, - determine an adjusted light output direction for said one or more light sources in dependence on said daylight-mimicking light output direction and said estimated or detected position, and - control, via said at least one control interface , said one or more light sources to render said light output in said adjusted light output direction .
A textile fabric comprising aramid fibres and provided with a water-repellent finish, wherein the water-repellent finish comprises a mixture of a component A, a component B and a component C, wherein - component A is a reaction product of an aliphatic carboxylic acid with a methylolmelamine; - component B is a paraffin wax and - component C is an ester wax C1 and/or a further paraffin wax C2 and the paraffin wax forming the component B of the water-repellent finish has a melting point T B and the further paraffin wax C2 of the component C has a melting point T C2 , where T C2 is lower than T B . - component A is a reaction product of an aliphatic carboxylic acid with a methylolmelamine; - component B is a paraffin wax and - component C is an ester wax C1 and/or a further paraffin wax C2 and the paraffin wax forming the component B of the water-repellent finish has a melting point T B and the further paraffin wax C2 of the component C has a melting point T C2 , where T C2 is lower than T B .
An article comprising: a glass substrate having opposing major surfaces, a thickness ranging from 50μm to 5mm and a first average strain-to-failure measured using ball-on-ring testing; a crack mitigating layer disposed on a first major surface; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured using ball-on-ring testing that is less than the first average strain-to-failure, wherein the crack mitigating layer prevents cracks originating in one of the film or the glass substrate from bridging to the other of the film or the glass substrate , wherein the crack mitigating layer comprises polyimide and has a thickness in the range from 0.01 μm to 10μm, wherein the film comprises a transparent conductive oxide layer, and wherein the glass substrate is chemically strengthened and has a surface compressive stress greater than 500 MPa and a compressive depth-of-layer greater than 15 μm. a glass substrate having opposing major surfaces, a thickness ranging from 50μm to 5mm and a first average strain-to-failure measured using ball-on-ring testing; a crack mitigating layer disposed on a first major surface; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured using ball-on-ring testing that is less than the first average strain-to-failure, wherein the crack mitigating layer prevents cracks originating in one of the film or the glass substrate from bridging to the other of the film or the glass substrate , wherein the crack mitigating layer comprises polyimide and has a thickness in the range from 0.01 μm to 10μm, wherein the film comprises a transparent conductive oxide layer, and wherein the glass substrate is chemically strengthened and has a surface compressive stress greater than 500 MPa and a compressive depth-of-layer greater than 15 μm.
A method for enabling a safe and smooth overtaking when a first and second vehicle travel on the same road wherein the second vehicle is in front of the first vehicle, the method comprising the following steps: determining a speed of the second vehicle, communicating , by a display in the first vehicle, the determined speed of the second vehicle, characterised in that the method further comprises the following steps: determining , by controlling circuitry in the first vehicle configured for predicting a position, a predicted position for the first vehicle in relation to the second vehicle during overtaking wherein the predicted position enables the first vehicle to maintain the speed the first vehicle had before overtaking, and communicating , by a display in the first vehicle, the determined predicted position for the first vehicle. determining a speed of the second vehicle, communicating , by a display in the first vehicle, the determined speed of the second vehicle, characterised in that the method further comprises the following steps: determining , by controlling circuitry in the first vehicle configured for predicting a position, a predicted position for the first vehicle in relation to the second vehicle during overtaking wherein the predicted position enables the first vehicle to maintain the speed the first vehicle had before overtaking, and communicating , by a display in the first vehicle, the determined predicted position for the first vehicle.
A system for managing computer resources for detection of malicious files comprising: a hardware processor configured to: form at least one behavior pattern (n) grouping selected commands (c i ) with shared parameters (p i ) selected from a created behavior log comprising a totality of executable commands from a file; apply a convolution function on the at least one behavior pattern to obtain computed parameters; calculate a degree of harmfulness on the basis of the obtained computed parameters using a model for detection of malicious files, wherein the degree of harmfulness is a number value characterizing the probability that malicious activity will be manifested by a time of computing said degree of harmfulness, and wherein the model for detection is a machine learning model, previously trained using computed parameters of previous behavior patterns subjected to convolution, to output degrees of harmfulness; manage computing resources used to ensure security of a computing device, based on the calculated degree of harmfulness, wherein the degree of harmfulness is within a predetermined range of values; and if the calculated degree of harmfulness of applications exceeds a predetermined threshold value, allocate additional resources available on the computing device for the detection of malicious files, otherwise free up previously allocated resources of the computing device. form at least one behavior pattern (n) grouping selected commands (c i ) with shared parameters (p i ) selected from a created behavior log comprising a totality of executable commands from a file; apply a convolution function on the at least one behavior pattern to obtain computed parameters; calculate a degree of harmfulness on the basis of the obtained computed parameters using a model for detection of malicious files, wherein the degree of harmfulness is a number value characterizing the probability that malicious activity will be manifested by a time of computing said degree of harmfulness, and wherein the model for detection is a machine learning model, previously trained using computed parameters of previous behavior patterns subjected to convolution, to output degrees of harmfulness; manage computing resources used to ensure security of a computing device, based on the calculated degree of harmfulness, wherein the degree of harmfulness is within a predetermined range of values; and if the calculated degree of harmfulness of applications exceeds a predetermined threshold value, allocate additional resources available on the computing device for the detection of malicious files, otherwise free up previously allocated resources of the computing device.
A method for the dosing of an analyte of interest in a solution comprising the steps of: a) providing a solution of said analyte of interest bound to a solid support , said solution having a first pH; b) placing in contact with said analyte solution a composition of liposomes containing an aqueous solution having a second pH different from the first pH and presenting on the surface at least one ligand specific for said analyte of interest, so as to create a bond between said analyte and said ligand ; c) removing unbound liposomes by washing cycles; d) applying an external stimulus so as to cause release of the aqueous solution contained in said liposomes into the solution containing said analyte so as to obtain a third pH; e) measuring said third pH; f) calculating the dosage of said analyte . a) providing a solution of said analyte of interest bound to a solid support , said solution having a first pH; b) placing in contact with said analyte solution a composition of liposomes containing an aqueous solution having a second pH different from the first pH and presenting on the surface at least one ligand specific for said analyte of interest, so as to create a bond between said analyte and said ligand ; c) removing unbound liposomes by washing cycles; d) applying an external stimulus so as to cause release of the aqueous solution contained in said liposomes into the solution containing said analyte so as to obtain a third pH; e) measuring said third pH; f) calculating the dosage of said analyte .
Piston/cylinder unit of a hydraulic system, in particular a slave cylinder for a hydraulic release system (CSC) of a friction clutch of a vehicle, the slave cylinder having a housing which is arranged concentrically with respect to a transmission input shaft, the housing having at least one circularly annular ring space , in which an annular piston is guided in an axially displaceable manner, which annular piston is provided in the direction towards a pressure space (D) with a seal which is fastened to a sealing ring carrier which is received on the annular piston , and latching elements being arranged on the sealing ring carrier , which latching elements latch with corresponding latching means of the annular piston , the latching elements of the sealing ring carrier being configured in the form of snap-in hooks (6.1) which are distributed on the circumference, and the latching means of the annular piston being configured as recesses (3.1) in the annular piston which correspond with the snap-in hooks, the annular piston having, in a manner which adjoins the recess (3.1) in the direction of the sealing ring carrier, a collar (3.2) with a first end side (S1) which points in the direction of the sealing ring carrier and a second end side (S2) which faces away from the said first end side (S1), and the snap-in hooks (6.1) engaging into the recesses (3.1) and having a radially inwardly pointing lug (6.2) which bears with a bearing face (S5) against the second end side (S2) of the collar (3.2) of the piston with the application of an axial prestress, characterized in that , starting from the fourth end side (S4), the snap-in hooks (6.1) are angled away radially to the outside and subsequently extend in the axial direction, and in that an axial spring travel is provided by way of the radial angled-away portion and/or the collar (3.2) has at least one groove (3.3) which runs in the circumferential direction and by way of which an axial spring travel is provided in the region of the collar (3.2) .
An implantable device for vessel occlusion comprising: (a) a solid marker having a proximal end and a distal end ; and (b) a resilient mesh body attached to the distal end of the marker , the resilient mesh body having a delivery shape and said implantable device being characterized in that the resilient mesh has a deployed shape having a height that is between 10% to 20% of its width in free air, capable of conforming to vessel walls; wherein the resilient mesh body is a dual layer of mesh comprising a single layer of mesh folded circumferentially to create a circumferential fold line around the circumference of the body , and wherein the ends of said dual layer of mesh intersect with the solid marker positioned at a core of said dual layer of mesh . (a) a solid marker having a proximal end and a distal end ; and (b) a resilient mesh body attached to the distal end of the marker , the resilient mesh body having a delivery shape and said implantable device being characterized in that the resilient mesh has a deployed shape having a height that is between 10% to 20% of its width in free air, capable of conforming to vessel walls;
An authentication server device for providing an authentication mechanism, said authentication server device being arranged: a) to extract, from an authentication message received from a user equipment, service selection information for selecting a service provided by a cellular packet-switched network; and b) to use said service selection information for establishing a connection for the user equipment to services provided by the cellular packet-switched network provided over an access point of a wireless local area network, WLAN, network by establishing a connection between an access server of the WLAN network and an application server providing the requested service and being identified by at least one access point name, APN, parameter comprised within the service selection information, wherein the service is indicated by said service selection information, and the authentication message is based on an extensible authentication protocol, EAP. a) to extract, from an authentication message received from a user equipment, service selection information for selecting a service provided by a cellular packet-switched network; and b) to use said service selection information for establishing a connection for the user equipment to services provided by the cellular packet-switched network provided over an access point of a wireless local area network, WLAN, network by establishing a connection between an access server of the WLAN network and an application server providing the requested service and being identified by at least one access point name, APN, parameter comprised within the service selection information, wherein the service is indicated by said service selection information, and the authentication message is based on an extensible authentication protocol, EAP.
Motor pump unit with vertical wheel axle (XX'), comprising a body , from which a discharge nozzle proceeds, the upper part of the side surface of said body being surrounded by a jacket at a horizontal distance such that there is a space between them, characterised by : - an annular channel supported by spacers on the upper face of the body and delimited by a base , an inner face at a distance from the axle (XX') and an outer face , the upper edge of the inner face being lower than the upper edge of the outer face, and - a bypass duct connecting the discharge nozzle with the channel . - an annular channel supported by spacers on the upper face of the body and delimited by a base , an inner face at a distance from the axle (XX') and an outer face , the upper edge of the inner face being lower than the upper edge of the outer face, and - a bypass duct connecting the discharge nozzle with the channel .
A gas discharge tube assembly comprising: a multi-cell gas discharge tube, GDT, including: a housing defining a GDT chamber ; a plurality of inner electrodes (E1-E21) located in the GDT chamber ; a trigger resistor located in the GDT chamber ; and a gas (M) contained in the GDT chamber ; wherein the inner electrodes (E1-E21) are serially disposed in the chamber in spaced apart relation to define a series of cells (C) and spark gaps (G); and characterised in that : the multi-cell GDT includes first and second trigger end electrodes ; the series of cells (C) and spark gaps (G) extends from the first trigger end electrode to the second trigger end electrode ; the trigger resistor electrically connects the first trigger end electrode to the second trigger end electrode ; the trigger resistor includes an interface surface exposed to at least one of the cells (C); the trigger resistor is responsive to an electrical surge through the trigger resistor to generate a spark along the interface surface and thereby promote an electrical arc in the at least one cell (C). a multi-cell gas discharge tube, GDT, including: a housing defining a GDT chamber ; a plurality of inner electrodes (E1-E21) located in the GDT chamber ; a trigger resistor located in the GDT chamber ; and a gas (M) contained in the GDT chamber ; wherein the inner electrodes (E1-E21) are serially disposed in the chamber in spaced apart relation to define a series of cells (C) and spark gaps (G); and a housing defining a GDT chamber ; a plurality of inner electrodes (E1-E21) located in the GDT chamber ; a trigger resistor located in the GDT chamber ; and a gas (M) contained in the GDT chamber ; wherein the inner electrodes (E1-E21) are serially disposed in the chamber in spaced apart relation to define a series of cells (C) and spark gaps (G); and characterised in that : the multi-cell GDT includes first and second trigger end electrodes ; the series of cells (C) and spark gaps (G) extends from the first trigger end electrode to the second trigger end electrode ; the trigger resistor electrically connects the first trigger end electrode to the second trigger end electrode ; the trigger resistor includes an interface surface exposed to at least one of the cells (C); the trigger resistor is responsive to an electrical surge through the trigger resistor to generate a spark along the interface surface and thereby promote an electrical arc in the at least one cell (C). the multi-cell GDT includes first and second trigger end electrodes ; the series of cells (C) and spark gaps (G) extends from the first trigger end electrode to the second trigger end electrode ; the trigger resistor electrically connects the first trigger end electrode to the second trigger end electrode ; the trigger resistor includes an interface surface exposed to at least one of the cells (C); the trigger resistor is responsive to an electrical surge through the trigger resistor to generate a spark along the interface surface and thereby promote an electrical arc in the at least one cell (C).
An apparatus for securing a sensor to a heart of a patient, the apparatus comprising: a heart anchor lead having a single main lead (14; 660); a first anchor (14; 620; 720) coupled to the main lead (14; 660) and extending from a branch point ; a second anchor (14; 630; 730) coupled to the main lead (14; 660) and extending from the branch point ; and a sensor fixed to the apparatus at a point between the main lead (14; 660) and one or both of the anchors (14; 620, 630; 720, 730); wherein the sensor is a motion sensor for detecting motion of the heart. a heart anchor lead having a single main lead (14; 660); a first anchor (14; 620; 720) coupled to the main lead (14; 660) and extending from a branch point ; a second anchor (14; 630; 730) coupled to the main lead (14; 660) and extending from the branch point ; and a sensor fixed to the apparatus at a point between the main lead (14; 660) and one or both of the anchors (14; 620, 630; 720, 730); wherein the sensor is a motion sensor for detecting motion of the heart.
A method for navigating a vehicle , wherein a contour of an environment of the vehicle is detected by means of a contour detection sensor , a position and/or pose of the vehicle is determined on the basis of the contour, and a reliability measure is determined, a map being generated in advance in which contour information of the environment of a trail is entered, characterized in that the vehicle navigates along a predetermined trajectory guided by a virtual trail , in that the reliability measure indicates how precisely the position and/or pose is determined, the reliability measure being assigned to a position along the trail and being displayed in the form of a map that shows positions of the trail and associated reliability measures, so that those positions can be identified at which a failure of the localization and, as a consequence, of the navigation is likely to occur.