mhurhangee/ep-ind-claims huggingface dataset:
A method of providing a frame for an open roof assembly, wherein the method comprises the steps of: a) providing a first frame element having an edge and a first attachment area adjacent to the edge; b) providing a second frame element having a second attachment area; c) arranging the first attachment area and the second attachment area at least partly over each other; d) applying a fluid sealant adjacent to the edge of the first frame element; e) applying a sealing element on at least one of the first frame element and the second frame element and on the sealant, while the sealant is still at least partly fluid; and f) curing the sealant to provide a fluid-tight sealing between the first frame element, the second frame element and the sealing element. a) providing a first frame element having an edge and a first attachment area adjacent to the edge; b) providing a second frame element having a second attachment area; c) arranging the first attachment area and the second attachment area at least partly over each other; d) applying a fluid sealant adjacent to the edge of the first frame element; e) applying a sealing element on at least one of the first frame element and the second frame element and on the sealant, while the sealant is still at least partly fluid; and f) curing the sealant to provide a fluid-tight sealing between the first frame element, the second frame element and the sealing element.
A computer-implemented method (600, 700) for fault detection of at least one hall sensor, wherein the at least one hall sensor is one of a plurality of hall sensors positioned about a shaft of a motor, such that while the shaft of the motor rotates, the shaft passes a plurality of fields monitored by each of the plurality of hall sensors (103A, 103B, 103C), the method comprising: receiving a previous state of the hall sensor; detecting a current state of the hall sensor; and predicting a predicted next state of the hall sensor based on the previous state of the hall sensor, the current state of the hall sensor, and a direction of a shaft of the motor, comparing the predicted next state with an actual next state of the hall sensor to determine whether the predicted next state matches the actual next state performing the receiving, detecting and predicting steps for each of the hall sensors of the plurality of hall sensors (103A, 103B, 103C); determining whether the predicted next state matches an actual next state for each of the plurality of hall sensors; responsive to determining that the predicted next state does not match an actual next state, adding an error to an incorrect hall sensor signal and flagging a hall signal responsive to the hall signal exceeding a maximum threshold; and responsive to determining that the predicted next state does match an actual next state, subtracting the error from a correct hall sensor signal and unflagging the hall signal responsive to the hall signal being below the maximum threshold. receiving a previous state of the hall sensor; detecting a current state of the hall sensor; and predicting a predicted next state of the hall sensor based on the previous state of the hall sensor, the current state of the hall sensor, and a direction of a shaft of the motor, comparing the predicted next state with an actual next state of the hall sensor to determine whether the predicted next state matches the actual next state performing the receiving, detecting and predicting steps for each of the hall sensors of the plurality of hall sensors (103A, 103B, 103C); determining whether the predicted next state matches an actual next state for each of the plurality of hall sensors; responsive to determining that the predicted next state does not match an actual next state, adding an error to an incorrect hall sensor signal and flagging a hall signal responsive to the hall signal exceeding a maximum threshold; and responsive to determining that the predicted next state does match an actual next state, subtracting the error from a correct hall sensor signal and unflagging the hall signal responsive to the hall signal being below the maximum threshold.
A sealing enclosure for a connector on a cable, such as a standardised fibre-optic connector, the sealing enclosure including: a cable seal adapted to sealingly engage the cable; an inner body comprising a connector volume adapted to receive the connector, the connector volume being open at least at a rearward end and the cable seal being arranged at the rearward end of the connector volume; and an outer body adapted to slide over the inner body to a forward position, comprising at least one locking element that is adapted to axially secure the sealing enclosure to a mating enclosure if the outer body is in the forward position, wherein, in the forward position, the outer body extends beyond the cable seal in the rearward direction; the sealing enclosure characterised in that the at least one locking element is of the bayonet type and the inner body at its rearward end is provided with a clamping section, which is adapted to receive the cable seal and which is adapted to be compressed radially about the cable seal. a cable seal adapted to sealingly engage the cable; an inner body comprising a connector volume adapted to receive the connector, the connector volume being open at least at a rearward end and the cable seal being arranged at the rearward end of the connector volume; and an outer body adapted to slide over the inner body to a forward position, comprising at least one locking element that is adapted to axially secure the sealing enclosure to a mating enclosure if the outer body is in the forward position, wherein, in the forward position, the outer body extends beyond the cable seal in the rearward direction; the sealing enclosure characterised in that the at least one locking element is of the bayonet type and the inner body at its rearward end is provided with a clamping section, which is adapted to receive the cable seal and which is adapted to be compressed radially about the cable seal.
An active rear diffuser assembly comprising: a base produced by extrusion; at least one rail (18a, 18b); at least one carrier (16a, 16b) connected to the at least one base and the at least one rail (18a, 18b), wherein the at least one carrier (16a, 16b) and base move on the at least one rail (18a, 18b) between a stowed position and an extended position; a cover connected to the base, wherein the cover moves between the stowed position and the extended position; characterized in that the active rear diffuser further comprises a track (20a, 20b) formed on the at least one rail (18a, 18b) and a slidable connection between the track (20a, 20b) and the at least one carrier (16a, 16b); a retainer (78a, 78b) connected to the at least one carrier (16a, 16b) and the at least one rail (18a, 18b), wherein the retainer (78a, 78b) has at least one post slidably positioned in the track (20a, 20b) allowing the retainer (78a, 78b) to slide with the at least one carrier (16a, 16b) along the track (20a, 20b) between the stowed position and the extended position; and a channel portion (92a, 92b) formed on the at least one carrier (16a, 16b) for receiving at least a portion of the at least one rail (18a, 18b) when the at least one carrier (16a, 16b) is moved to the stowed position. a base produced by extrusion; at least one rail (18a, 18b); at least one carrier (16a, 16b) connected to the at least one base and the at least one rail (18a, 18b), wherein the at least one carrier (16a, 16b) and base move on the at least one rail (18a, 18b) between a stowed position and an extended position; a cover connected to the base, wherein the cover moves between the stowed position and the extended position; characterized in that the active rear diffuser further comprises a track (20a, 20b) formed on the at least one rail (18a, 18b) and a slidable connection between the track (20a, 20b) and the at least one carrier (16a, 16b); a retainer (78a, 78b) connected to the at least one carrier (16a, 16b) and the at least one rail (18a, 18b), wherein the retainer (78a, 78b) has at least one post slidably positioned in the track (20a, 20b) allowing the retainer (78a, 78b) to slide with the at least one carrier (16a, 16b) along the track (20a, 20b) between the stowed position and the extended position; and a channel portion (92a, 92b) formed on the at least one carrier (16a, 16b) for receiving at least a portion of the at least one rail (18a, 18b) when the at least one carrier (16a, 16b) is moved to the stowed position.
A light-emitting marker particle comprising a light-emitting particle core comprising a silica matrix, first surface groups covalently bound to the silica of the light-emitting particle core and second surface groups covalently bound to the silica of the light-emitting particle core wherein: the light-emitting core comprises the silica matrix and a light-emitting material; the first surface group comprises a polar group; the first surface group is an inert surface group which does not bind to a biomolecule when brought into contact with the biomolecule in water at 25°C; the second surface group comprises a biomolecule binding group; and a number of moles of the second surface group is less than 10% of a total number of moles of the first and second surface groups.
Kettle comprising a body provided with a handle having an inner cavity, a heating plate, a lower sealed casing in which an internal control device is housed, and a sealed external control casing arranged on the handle, said external control casing having an external control device electrically connected by at least one cable to the internal control device and configured to manually activate said internal control device, characterised in that the lower casing is connected to the external control casing in a sealed manner by an electrically insulating duct in which at least one cable is arranged, and in that the inner cavity of the handle allows the housing and passage of duct, the lower casing, the external control casing and the duct forming a sealed zone.
A conveyor belt system having a conveyor belt running in the longitudinal direction and having support-roller arrangements spaced from one another along the conveyor belt, which have at least four support rollers (3.1, 3.2, 3.3, 3.4, 3.5, 3.6) distributed around the outer periphery of the conveyor belt in each case, wherein the conveyor belt is shaped by means of an annular positioning of the support rollers (3.1, 3.2, 3.3, 3.4, 3.5, 3.6) of the support-roller arrangements to form a hose with overlapping edges (4a, 4b), and wherein, as seen in cross section, the conveyor belt extends from the edge located on the inside at the overlap in a circumferential direction to the edge located on the outside, and the edges (4a, 4b) overlap at a last support roller (3.6) as seen in the circumferential direction, wherein the spacing (r.6) between the last support roller (3.6) as seen in the circumferential direction and a focus of the light profile delimited by the support rollers (3.1, 3.2, 3.3, 3.4, 3.5, 3.6) is larger than the corresponding spacing (r.1) of the adjacent first support roller (3.1) in the circumferential direction, characterised in that the spacing (r.1, r.2, r.3, r.4, r.5, r.6) of the successive support rollers (3.1, 3.2, 3.3, 3.4, 3.5, 3 6) in the circumferential direction increases continuously to the focus.
A battery, comprising: a housing; an electrode element, accommodated in the housing and including a first electrode and a second electrode; a first terminal protruding to an outside of the housing and electrically connected to the first electrode; a second terminal protruding to the outside of the housing and electrically connected to the second electrode; and a fuse structure, electrically connected to the first terminal and the housing, wherein when a current between the housing and the first terminal is greater than a preset fuse point, the fuse structure is cut-off, and an electrical connection between the housing and the first terminal is disconnected; and the fuse structure is located outside an electrical conduction path of the first terminal and the first electrode, wherein the housing comprises a cavity body with an opening, and a cover plate covering the opening of the cavity body; the cavity body is electrically connected to the cover plate; the first terminal is electrically connected to the cavity body through the fuse structure, wherein the fuse structure is located inside the cavity body of the housing; the battery further comprises a current collecting plate located in a receiving space of the cavity body, the current collecting plate is electrically connected to the first terminal and the first electrode, and the current collecting plate is electrically connected to the cover plate or the cavity body through the fuse structure. a housing; an electrode element, accommodated in the housing and including a first electrode and a second electrode; a first terminal protruding to an outside of the housing and electrically connected to the first electrode; a second terminal protruding to the outside of the housing and electrically connected to the second electrode; and a fuse structure, electrically connected to the first terminal and the housing, wherein when a current between the housing and the first terminal is greater than a preset fuse point, the fuse structure is cut-off, and an electrical connection between the housing and the first terminal is disconnected; and the fuse structure is located outside an electrical conduction path of the first terminal and the first electrode, wherein the housing comprises a cavity body with an opening, and a cover plate covering the opening of the cavity body; the cavity body is electrically connected to the cover plate; the first terminal is electrically connected to the cavity body through the fuse structure, wherein the fuse structure is located inside the cavity body of the housing; the battery further comprises a current collecting plate located in a receiving space of the cavity body, the current collecting plate is electrically connected to the first terminal and the first electrode, and the current collecting plate is electrically connected to the cover plate or the cavity body through the fuse structure.
A wearable cardioverter defibrillator, comprising: a support structure configured to be worn by a patient; a processor coupled to the support structure; an energy storage module configured to store an electrical charge and in communication with the processor; a discharge circuit coupled to the energy storage module, the discharge circuit in communication with the processor and configured to discharge the stored electrical charge through a body of the patient; and the processor configured to: detect an event at the WCD, classify the detected event as one of a binary event and an indeterminate event, wherein a binary event is a discernable event with a singular determine factor and an indeterminate event requires analysis to determine if the event exists, determining an alarm onset time of the detected categorized event based on the event classification, wherein a duration of the alarm onset time is based on the type of classified event, and issue an alarm after the determined alarm onset time has expired. a support structure configured to be worn by a patient; a processor coupled to the support structure; an energy storage module configured to store an electrical charge and in communication with the processor; a discharge circuit coupled to the energy storage module, the discharge circuit in communication with the processor and configured to discharge the stored electrical charge through a body of the patient; and the processor configured to: detect an event at the WCD, classify the detected event as one of a binary event and an indeterminate event, wherein a binary event is a discernable event with a singular determine factor and an indeterminate event requires analysis to determine if the event exists, determining an alarm onset time of the detected categorized event based on the event classification, wherein a duration of the alarm onset time is based on the type of classified event, and issue an alarm after the determined alarm onset time has expired. detect an event at the WCD, classify the detected event as one of a binary event and an indeterminate event, wherein a binary event is a discernable event with a singular determine factor and an indeterminate event requires analysis to determine if the event exists, determining an alarm onset time of the detected categorized event based on the event classification, wherein a duration of the alarm onset time is based on the type of classified event, and issue an alarm after the determined alarm onset time has expired.
A dental furnace, in particular also for pre-drying dental restoration parts, - comprising at least one electric heating element which extends adjacent to a heating chamber and is driven by a heating controller, - said heating controller regulating the temperature in the heating chamber and, for this purpose, comprising an output connection for the at least one heating element and an input connection for detecting the temperature of the heating element, - being electrically connected to a temperature detection device, the temperature detection device comprising the heating element, characterized in that - the temperature detection device comprises a compensation device with which nonlinearities, i.e. deviations from the proportionality of the increase in resistance to the increase in temperature can be compensated for, and - the heating controller controls its output connection based on the detected resistance of at least part of at least one heating element and based on the compensation device. - comprising at least one electric heating element which extends adjacent to a heating chamber and is driven by a heating controller, - said heating controller regulating the temperature in the heating chamber and, for this purpose, comprising an output connection for the at least one heating element and an input connection for detecting the temperature of the heating element, - being electrically connected to a temperature detection device, the temperature detection device comprising the heating element, characterized in that - the temperature detection device comprises a compensation device with which nonlinearities, i.e. deviations from the proportionality of the increase in resistance to the increase in temperature can be compensated for, and - the heating controller controls its output connection based on the detected resistance of at least part of at least one heating element and based on the compensation device.
An oil-in-water emulsion comprising a TLR4 agonist and a metabolizable oil, wherein the metabolizable oil is present in the oil-in-water emulsion at a concentration of 0.01%-1% v/v, and wherein the hydrophobic:lipophilic balance of the oil-in-water emulsion is greater than 9, or greater than 10, or between 9-12, wherein the TLR4 agonist is selected from the group consisting of monophosphoryl lipid A, 3-O-deacylated monophosphoryl lipid A and synthetic glucopyranosyl lipid adjuvant.
A domed encapsulated radio frequency identification ('RFID') tag characterised in that the tag comprises: a substrate layer; an RFID tag layer having a first side adhered to said substrate layer, and a second side; an art image layer comprising an art image thereon, said layer having a first side substantially adhered to the second side of the RFID tag; and a second side; and a translucent encapsulating domed layer substantially adhered to the second side of said art image layer; wherein said layers are single, continuous and unbroken, and the contact surfaces thereof are flat. a substrate layer; an RFID tag layer having a first side adhered to said substrate layer, and a second side; an art image layer comprising an art image thereon, said layer having a first side substantially adhered to the second side of the RFID tag; and a second side; and a translucent encapsulating domed layer substantially adhered to the second side of said art image layer; wherein said layers are single, continuous and unbroken, and the contact surfaces thereof are flat.
A propulsor adapted to produce thrust for use in an aircraft, the propulsor comprising an electric motor configured to convert electrical power to mechanical rotation, a fan unit including a nacelle structure and a fan rotor coupled to the electric motor to be rotationally driven by the electric motor about a central axis relative to the nacelle structure, the nacelle structure including a hub arranged along the central axis, a fan case arranged around the fan rotor and the central axis, and a plurality of guide vanes that extend from the hub to the fan case aft of the fan rotor so that all accelerated air discharged from the fan rotor interacts with the guide vanes as all the accelerated air moves through the nacelle structure, and a thrust control system coupled to the nacelle structure and located immediately aft of guide vanes so that the thrust control system is the next structure movable relative to the nacelle structure that interacts with all the accelerated air as it leaves the nacelle structure, the thrust control system being configured to provide a variable area nozzle and thrust reverser, wherein the thrust control system includes a first flap (72, 272) mounted to rotate about a first-flap axis and a rotation actuator coupled to the first flap (72, 272) to drive movement of the first flap (72, 272) about the first-flap axis, and the thrust control system includes a second flap (74, 274) mounted to rotate about a second-flap axis and the rotation actuator is configured to drive movement of the second flap (74, 274) about the second flap axis, and wherein the rotation actuator is housed in the hub of the nacelle structure, the rotation actuator is configured to extend and retract along the central axis, and the rotation actuator is coupled to the first flap (72, 272) and the second flap (74, 274) by links extending out from the hub, or the first flap (72, 272) and the second flap (74, 274) are each mounted to slide along the central axis relative to the nacelle structure from a first position abutting an aft end of the fan case to a second position spaced apart from the aft end of the fan case. the rotation actuator is housed in the hub of the nacelle structure, the rotation actuator is configured to extend and retract along the central axis, and the rotation actuator is coupled to the first flap (72, 272) and the second flap (74, 274) by links extending out from the hub, or the first flap (72, 272) and the second flap (74, 274) are each mounted to slide along the central axis relative to the nacelle structure from a first position abutting an aft end of the fan case to a second position spaced apart from the aft end of the fan case.