mhurhangee/ep-ind-claims huggingface dataset:
A monitoring system for monitoring electrical devices, wherein the monitoring system (13; 213) comprises: - an assignments providing unit (7; 207) for providing assignments between the electrical devices (A, B, C, D, E; F, G, H, S1, S2, S3) and behavior classes, wherein a behavior class defines an expected behavior of a respective electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) assigned to the behavior class over time, - a monitoring unit (8; 208) for monitoring the behavior of the electrical devices (A, B, C, D, E; F, G, H, S1, S2, S3) over time, characterized by - a deviation determination unit (9; 209) for determining a deviation by using a similarity measure a) between a monitored behavior of an electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) assigned to a behavior class and an expected behavior defined by a behavior class and/or b) between a monitored behavior of an electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) and a monitored behavior of another electrical device (A, B, C, D, E; F, G, H, S1, S2, S3), and - an output unit (10; 210) for providing an output depending on the determined deviation, wherein the output is indicative of the electrical device having been assigned to the wrong behavior class. - an assignments providing unit (7; 207) for providing assignments between the electrical devices (A, B, C, D, E; F, G, H, S1, S2, S3) and behavior classes, wherein a behavior class defines an expected behavior of a respective electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) assigned to the behavior class over time, - a monitoring unit (8; 208) for monitoring the behavior of the electrical devices (A, B, C, D, E; F, G, H, S1, S2, S3) over time, characterized by - a deviation determination unit (9; 209) for determining a deviation by using a similarity measure a) between a monitored behavior of an electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) assigned to a behavior class and an expected behavior defined by a behavior class and/or b) between a monitored behavior of an electrical device (A, B, C, D, E; F, G, H, S1, S2, S3) and a monitored behavior of another electrical device (A, B, C, D, E; F, G, H, S1, S2, S3), and - an output unit (10; 210) for providing an output depending on the determined deviation,
A device for locating and dilating a natural ostium of a maxillary sinus, the device comprising: an elongate shaft (352, 382, 422), comprising: a substantially rigid proximal portion; a curved distal portion (316, 354, 374); an atraumatic distal tip (334, 424) at the end of the curved distal portion, wherein the curved distal portion has a size and shape to allow passage of the distal portion into a nasal cavity to position the atraumatic distal tip within or near a maxillary sinus ostium; and an inflation lumen passing through at least part of the shaft; and at least one inflatable balloon (318, 332, 356, 372, 384, 426) configured about the curved distal portion of the shaft and extending from proximal to the curve along the shaft to beyond the distal tip, wherein the balloon (318, 332, 356, 372, 384, 426) is in fluid communication with the inflation lumen and is adapted to inflate on the curve such that the balloon is elongate along the curved distal portion when inflated. an elongate shaft (352, 382, 422), comprising: a substantially rigid proximal portion; a curved distal portion (316, 354, 374); an atraumatic distal tip (334, 424) at the end of the curved distal portion, a substantially rigid proximal portion; a curved distal portion (316, 354, 374); an atraumatic distal tip (334, 424) at the end of the curved distal portion, wherein the curved distal portion has a size and shape to allow passage of the distal portion into a nasal cavity to position the atraumatic distal tip within or near a maxillary sinus ostium; and an inflation lumen passing through at least part of the shaft; and at least one inflatable balloon (318, 332, 356, 372, 384, 426) configured about the curved distal portion of the shaft and extending from proximal to the curve along the shaft to beyond the distal tip, wherein the balloon (318, 332, 356, 372, 384, 426) is in fluid communication with the inflation lumen and is adapted to inflate on the curve such that the balloon is elongate along the curved distal portion when inflated.
A fabric conditioning composition comprising an emulsion of particles in an aqueous vehicle, the particles comprising (a) an esterquat comprising an alkyl dialkanol amine esterquat of a fatty acid, wherein from at least 90 wt% to up to 100 wt% of the esterquat is comprised of diesterquat and from 0 wt% to up to 10 wt% of the esterquat is comprised of monoesterquat, and the fatty acid is substantially saturated and has an iodine value of less than 5, and (b) a water swellable cationic polymer.
A method of manufacturing a liquid crystal display, comprising: preparing a base substrate, the base substrate including an active region at the center and a dummy region surrounding the active region; forming films (22, 23; 421, 412; 421, 412, 413) on the active region and dummy region of the base substrate so as to form a first substrate, wherein a total thickness of the film (22, 23; 421, 412; 421, 412, 413) formed in the active region is smaller than a total thickness of the film (22, 23; 421, 412; 421, 412, 413) formed in the dummy region; preparing a second substrate and coating a sealant on the periphery of the second substrate; dropping liquid crystal material in an area corresponding to the active region on a side of the first substrate formed with the films (22, 23; 421, 412; 421, 412, 413), wherein a speed of diffusion of the liquid crystal toward periphery of the first substrate becomes slower after it is dropped in the active region; and aligning the first substrate and the second substrate in the state that the side of the first substrate formed with the films faces a side of the second substrate coated with the sealant, bonding the first substrate and the second substrate and sealing the liquid crystal material with use of the sealant. preparing a base substrate, the base substrate including an active region at the center and a dummy region surrounding the active region; forming films (22, 23; 421, 412; 421, 412, 413) on the active region and dummy region of the base substrate so as to form a first substrate, wherein a total thickness of the film (22, 23; 421, 412; 421, 412, 413) formed in the active region is smaller than a total thickness of the film (22, 23; 421, 412; 421, 412, 413) formed in the dummy region; preparing a second substrate and coating a sealant on the periphery of the second substrate; dropping liquid crystal material in an area corresponding to the active region on a side of the first substrate formed with the films (22, 23; 421, 412; 421, 412, 413), wherein a speed of diffusion of the liquid crystal toward periphery of the first substrate becomes slower after it is dropped in the active region; and aligning the first substrate and the second substrate in the state that the side of the first substrate formed with the films faces a side of the second substrate coated with the sealant, bonding the first substrate and the second substrate and sealing the liquid crystal material with use of the sealant.
A system for timing read operations with a memory device, comprising: a gating circuit configured to receive a timing signal from the memory device and to pass through the timing signal as a filtered timing signal during a gating window, wherein the gating circuit generates the gating window based on a control signal; a timing control circuit configured to generate the control signal after receiving a read request from a memory controller, wherein the timing control circuit adjusts the control signal to account for temporal variations in the timing signal from the memory device; and a feedback circuit, wherein the feedback circuit comprises: the timing control circuit; and a phase detector circuit configured to receive the filtered timing signal and the control signal as inputs and to send a phase detect output value to the timing control circuit. a gating circuit configured to receive a timing signal from the memory device and to pass through the timing signal as a filtered timing signal during a gating window, wherein the gating circuit generates the gating window based on a control signal; a timing control circuit configured to generate the control signal after receiving a read request from a memory controller, wherein the timing control circuit adjusts the control signal to account for temporal variations in the timing signal from the memory device; and a feedback circuit, wherein the feedback circuit comprises: the timing control circuit; and a phase detector circuit configured to receive the filtered timing signal and the control signal as inputs and to send a phase detect output value to the timing control circuit. the timing control circuit; and a phase detector circuit configured to receive the filtered timing signal and the control signal as inputs and to send a phase detect output value to the timing control circuit.
Kitchen appliance supplementing component with a support leg (30, 30'), which comprises at least two elements connected to one another, wherein a first of the elements has a component attachment, which attaches to the kitchen appliance supplementing component or is designed to be attached to the kitchen appliance supplementing component and wherein a second of the elements has an attachment end for attachment to a base, wherein the distance (H, H 1, H 2) between the component attachment and the attachment end can be adjusted, wherein the support leg (30, 30') further comprises a fixing mechanism (37, 37') for fixing at least two different selectable positions of the at least two elements (31, 33) relative to one another, so that the distance (H, H 1, H 2) can be adjusted continuously at least within a range, wherein the support leg further comprises a spring mechanism which is designed to push the component attachment and the attachment end apart, characterised in that the at least two elements are connected telescopically to one another. wherein a first of the elements has a component attachment, which attaches to the kitchen appliance supplementing component or is designed to be attached to the kitchen appliance supplementing component and wherein a second of the elements has an attachment end for attachment to a base, wherein the distance (H, H 1, H 2) between the component attachment and the attachment end can be adjusted, wherein the support leg (30, 30') further comprises a fixing mechanism (37, 37') for fixing at least two different selectable positions of the at least two elements (31, 33) relative to one another, so that the distance (H, H 1, H 2) can be adjusted continuously at least within a range, wherein the support leg further comprises a spring mechanism which is designed to push the component attachment and the attachment end apart, characterised in that the at least two elements are connected telescopically to one another.
An ocular implant insertion apparatus, comprising: a main body (5A, 5A-1, 5B, 5C, 5D, 5E) defining a longitudinal axis; a plunger (6A, 6B, 6C, 6D, 6E), movable relative to the main body, including a rod portion (7A, 7B, 7C, 7D, 7E) and an operational portion (8A, 8A-2, 8A-3, 8B, 8C, 8C-1, 8D, 8E) rotatably mounted on the rod portion; characterized by one of the main body and the operational portion includes a helical slot (25A, 25A-3, 25B, 25C, 25D, 25E) and at least one longitudinally extending clearance groove (26A, 26B, 26C, 26D, 26E) that intersects the helical slot; and the other of the main body and the operational portion includes at least one protrusion (12A, 12A-1, 12B, 12C, 12C-1, 12D, 12E) that is sized and shaped to fit within the helical slot and within the at least one longitudinally extending clearance groove. a main body (5A, 5A-1, 5B, 5C, 5D, 5E) defining a longitudinal axis; a plunger (6A, 6B, 6C, 6D, 6E), movable relative to the main body, including a rod portion (7A, 7B, 7C, 7D, 7E) and an operational portion (8A, 8A-2, 8A-3, 8B, 8C, 8C-1, 8D, 8E) rotatably mounted on the rod portion; characterized by one of the main body and the operational portion includes a helical slot (25A, 25A-3, 25B, 25C, 25D, 25E) and at least one longitudinally extending clearance groove (26A, 26B, 26C, 26D, 26E) that intersects the helical slot; and the other of the main body and the operational portion includes at least one protrusion (12A, 12A-1, 12B, 12C, 12C-1, 12D, 12E) that is sized and shaped to fit within the helical slot and within the at least one longitudinally extending clearance groove.
An aircraft passenger cabin, comprising: a longitudinal aisle; a first branch aisle extending from the longitudinal aisle; a door positioned at one end of the branch aisle opposite the longitudinal aisle; a closet positioned to one side of the first branch aisle, the closet comprising: a first compartment extending between a first wall and a second wall and from a floor to a ceiling formed in the first compartment, and the first compartment dimensioned to accommodate a wheelchair in an unfolded condition; and a second compartment positioned to one side of the first compartment, at least one passenger seat positioned on a side of the closet opposite the first branch aisle and facing the closet; and a second branch aisle positioned between the at least one passenger seat and the closet, the second branch aisle extending from the longitudinal aisle; wherein each of the first branch aisle and the second branch aisle is dimensioned to accommodate the wheelchair and provide direct access into the first compartment from the respective branch aisle. a longitudinal aisle; a first branch aisle extending from the longitudinal aisle; a door positioned at one end of the branch aisle opposite the longitudinal aisle; a closet positioned to one side of the first branch aisle, the closet comprising: a first compartment extending between a first wall and a second wall and from a floor to a ceiling formed in the first compartment, and the first compartment dimensioned to accommodate a wheelchair in an unfolded condition; and a second compartment positioned to one side of the first compartment, a first compartment extending between a first wall and a second wall and from a floor to a ceiling formed in the first compartment, and the first compartment dimensioned to accommodate a wheelchair in an unfolded condition; and a second compartment positioned to one side of the first compartment, at least one passenger seat positioned on a side of the closet opposite the first branch aisle and facing the closet; and a second branch aisle positioned between the at least one passenger seat and the closet, the second branch aisle extending from the longitudinal aisle; wherein each of the first branch aisle and the second branch aisle is dimensioned to accommodate the wheelchair and provide direct access into the first compartment from the respective branch aisle.
Method for operating an internal combustion engine having an injection system which has a high pressure accumulator, wherein an instantaneous high pressure (p I) in the high pressure accumulator is monitored in a time-dependent manner by means of a high pressure sensor, wherein it is checked whether a first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for a predetermined threshold duration (Δt L) in an uninterrupted manner, and wherein it is checked whether the first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for the first time with a predetermined, first threshold frequency (H L1), wherein a first alert level is set if either a) the first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for the predetermined threshold duration (Δt L) in an uninterrupted manner, or b) the first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for the first time with the predetermined, first threshold frequency (H L1), characterized in that a frequency value (H A) which indicates an instantaneous frequency of the exceeding of the first high pressure threshold value (p L1) by the instantaneous high pressure (p I) is incremented if the instantaneous high pressure (p I) reaches or exceeds the first high pressure threshold value (p L1) from below a second high pressure threshold value (p L2), wherein the second high pressure threshold value (p L2) is smaller than the first high pressure threshold value (p L1), and wherein the frequency value (H A) is compared with the predetermined first threshold frequency (H L1). a) the first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for the predetermined threshold duration (Δt L) in an uninterrupted manner, or b) the first predetermined high pressure threshold value (p L1) is exceeded by the instantaneous high pressure (p I) for the first time with the predetermined, first threshold frequency (H L1),
An image processing apparatus comprising: a latent image composition unit configured to compose background information with latent image information to generate a latent-image-embedded image; a latent-image-embedded image addition unit configured to add the latent-image-embedded image to print data; and at least one of a latent image information extraction unit configured to extract the latent image information from the print data and a background information extraction unit configured to extract the background information from the print data, characterized in that the latent-image-embedded image addition unit is configured to delete the extracted latent image information from the print data. a latent image composition unit configured to compose background information with latent image information to generate a latent-image-embedded image; a latent-image-embedded image addition unit configured to add the latent-image-embedded image to print data; and at least one of a latent image information extraction unit configured to extract the latent image information from the print data and a background information extraction unit configured to extract the background information from the print data, characterized in that the latent-image-embedded image addition unit is configured to delete the extracted latent image information from the print data.
A roller cutter for a raise boring tool comprising: a journal; a cutter shell positioned radially around a journal; wherein the journal comprises an external surface from which a journal end protrudes from; a seal retainer positioned between the journal and the roller cutter; a longitudinal axis; characterised in that: at least one digital identification tag is located on the roller cutter; wherein the identification tag is located on the journal. a journal; a cutter shell positioned radially around a journal; a seal retainer positioned between the journal and the roller cutter; a longitudinal axis; characterised in that: at least one digital identification tag is located on the roller cutter; wherein the identification tag is located on the journal. at least one digital identification tag is located on the roller cutter; wherein the identification tag is located on the journal.
A computer-implemented method, comprising: - modeling a multi-component control or actuator system using a component fault tree, the component fault tree comprising a plurality of elements associated with components of the system and a plurality of interconnections between elements of the plurality of elements associated with functional dependencies between the components of the system, - assigning, to at least some elements of the plurality of elements, operational failure events associated with malfunctioning of the respective component of the system, - assigning, to at least some elements of the plurality of elements, diagnostic failure events associated with malfunctioning of a diagnostic measure associated with the respective component of the system, - correlating the operational failure events with the diagnostic failure events, and - depending on said correlating, identifying dormant system failure states and non-dormant system failure states of a plurality of system failure states of the system. - modeling a multi-component control or actuator system using a component fault tree, the component fault tree comprising a plurality of elements associated with components of the system and a plurality of interconnections between elements of the plurality of elements associated with functional dependencies between the components of the system, - assigning, to at least some elements of the plurality of elements, operational failure events associated with malfunctioning of the respective component of the system, - assigning, to at least some elements of the plurality of elements, diagnostic failure events associated with malfunctioning of a diagnostic measure associated with the respective component of the system, - correlating the operational failure events with the diagnostic failure events, and - depending on said correlating, identifying dormant system failure states and non-dormant system failure states of a plurality of system failure states of the system.