mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: an accessory gear box including an accessory gear box housing supporting a gear train driven by a tower shaft; a tower shaft housing supporting rotation of the tower shaft; an inlet manifold supported by the accessory gear box housing receiving bypass airflow; an impeller in communication with the inlet manifold for pressurizing the received bypass airflow; and an outlet receiving pressurized cooling airflow from the impeller for communicating cooling air to an internal component of the gas turbine engine characterized in that: the impeller is supported for rotation within the accessory gear box housing and driven by the gear train. an accessory gear box including an accessory gear box housing supporting a gear train driven by a tower shaft; a tower shaft housing supporting rotation of the tower shaft; an inlet manifold supported by the accessory gear box housing receiving bypass airflow; an impeller in communication with the inlet manifold for pressurizing the received bypass airflow; and an outlet receiving pressurized cooling airflow from the impeller for communicating cooling air to an internal component of the gas turbine engine characterized in that: the impeller is supported for rotation within the accessory gear box housing and driven by the gear train.
Detection device (100, 200, 300, 400, 500, 1000) for detecting the shape and/or orientation of rotor blades of wind turbines having the following feature: a. the detection device (100, 200,300,400, 500, 1000) is configured to detect an upper side and a lower side of the rotor blade at the same time, characterised in that the detection device has a support structure (20, 22, 24) which has two partial support structures (22, 24) between which a receiving area is provided for the rotor blade, and on the two partial support structures (22, 24) distance measuring devices directed towards the receiving area are provided for the simultaneous detection of an upper side and a lower side of the rotor blade, and in that the distance measuring devices are configured as non-contact laser distance measuring devices. a. the detection device (100, 200,300,400, 500, 1000) is configured to detect an upper side and a lower side of the rotor blade at the same time, the detection device has a support structure (20, 22, 24) which has two partial support structures (22, 24) between which a receiving area is provided for the rotor blade, and on the two partial support structures (22, 24) distance measuring devices directed towards the receiving area are provided for the simultaneous detection of an upper side and a lower side of the rotor blade, and in that the distance measuring devices are configured as non-contact laser distance measuring devices.
Electrical shielding member (100, 100') for a network connector, wherein the electrical shielding member (100, 100') is made from bend and cut sheet metal, comprising: a receiving portion (no) for receiving a cable end of a shielded cable at least partially, wherein the receiving portion (no) is adapted to be in contact with a shielding of the cable, and wherein the receiving portion comprises: at least one coupling element (116a, 116b), protruding outwardly from the receiving portion, wherein the coupling element (116a, 116b) is adapted to be coupled to a corresponding counter coupling element (316a, 316b) of a network connector housing; and at least one engagement element, protruding inwardly into the receiving portion, wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule (200, 200') of the cable, the electrical shielding member further comprising: at least one contact beam (130; 150), extending from the receiving portion (no), wherein the contact beam (130; 150) is adapted to be electrically connected to a counter electrical shielding member of a counter connector, characterized in that the coupling element (116a, 116b) is a coupling protrusion embossed in the receiving portion, and at least three sides of the coupling element (116a, 116b) are connected with the receiving portion. a receiving portion (no) for receiving a cable end of a shielded cable at least partially, wherein the receiving portion (no) is adapted to be in contact with a shielding of the cable, and wherein the receiving portion comprises: at least one coupling element (116a, 116b), protruding outwardly from the receiving portion, wherein the coupling element (116a, 116b) is adapted to be coupled to a corresponding counter coupling element (316a, 316b) of a network connector housing; and at least one engagement element, protruding inwardly into the receiving portion, wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule (200, 200') of the cable, the electrical shielding member further comprising: at least one coupling element (116a, 116b), protruding outwardly from the receiving portion, wherein the coupling element (116a, 116b) is adapted to be coupled to a corresponding counter coupling element (316a, 316b) of a network connector housing; and at least one engagement element, protruding inwardly into the receiving portion, wherein the engagement element is adapted to be engaged with the cable and/or a fastening ferrule (200, 200') of the cable, the electrical shielding member further comprising: at least one contact beam (130; 150), extending from the receiving portion (no), wherein the contact beam (130; 150) is adapted to be electrically connected to a counter electrical shielding member of a counter connector, characterized in that the coupling element (116a, 116b) is a coupling protrusion embossed in the receiving portion, and at least three sides of the coupling element (116a, 116b) are connected with the receiving portion.
A thermostat comprising a main body and a cover, the main body comprising a display screen, a control button, and a battery compartment for housing a battery to power the thermostat, wherein the cover is moveable between an open configuration in which the battery compartment and control button are accessible, and a closed configuration in which the cover shields the battery compartment and control button, characterized in that the thermostat further comprises: a finger protruding from one of the cover or main body; a slot in the other of the cover or main body, for receiving the finger when the cover is in the closed configuration; a first bore extending through the cover or main body, and a second bore extending through the finger, the first and second bores being aligned when the cover is in the closed configuration; and a fastener receivable in the first bore, for inserting into the second bore when the cover is in the closed configuration, thereby preventing removal of the finger from the slot such that the cover is locked in the closed configuration, wherein the finger, the slot, the first bore, the second bore and the fastener form a locking arrangement for locking the cover in the closed configuration. a finger protruding from one of the cover or main body; a slot in the other of the cover or main body, for receiving the finger when the cover is in the closed configuration; a first bore extending through the cover or main body, and a second bore extending through the finger, the first and second bores being aligned when the cover is in the closed configuration; and a fastener receivable in the first bore, for inserting into the second bore when the cover is in the closed configuration, thereby preventing removal of the finger from the slot such that the cover is locked in the closed configuration, wherein the finger, the slot, the first bore, the second bore and the fastener form a locking arrangement for locking the cover in the closed configuration.
An applicator for insertion and lubrication of a body lumen, comprising: an elongate, hollow, cylindrical outer sheath including a receiving cup at a distal end for receiving a lubrication capsule; a plunger slidingly received within the elongate, hollow cylindrical outer sheath, the plunger including a piercing element at a distal end adapted to extend into the receiving cup; characterized in that the applicator further comprises: a liquid filled capsule disposed in the receiving cup; and wherein the piercing element is used to puncture the capsule located in the receiving cup prior to insertion of the applicator into the body lumen, and wherein the plunger can be depressed once the applicator is inserted into the body lumen to eject the pierced capsule into the body lumen, after which the applicator is withdrawn. an elongate, hollow, cylindrical outer sheath including a receiving cup at a distal end for receiving a lubrication capsule; a plunger slidingly received within the elongate, hollow cylindrical outer sheath, the plunger including a piercing element at a distal end adapted to extend into the receiving cup; a liquid filled capsule disposed in the receiving cup; and wherein the piercing element is used to puncture the capsule located in the receiving cup prior to insertion of the applicator into the body lumen, and wherein the plunger can be depressed once the applicator is inserted into the body lumen to eject the pierced capsule into the body lumen, after which the applicator is withdrawn.
An aircraft seat unit comprising: - a main seat, and - a companion seat, the main seat and the companion seat facing each other, wherein the companion seat comprises a seat pan, providing a seat pan surface, and a moveable seat element; characterised in that the moveable seat element is moveable in relation to the seat pan between a stowed position, in which the companion seat provides an additional support surface for a main passenger in the main seat, and a deployed position, in which the moveable seat element provides a backrest surface for a companion passenger in the companion seat; wherein the moveable seat element is slidable and/or rotatable with respect to the seat pan; wherein the moveable seat element is rotatable about a rotation axis adjacent a rear edge of the moveable seat element, wherein the rotation axis is also adjacent a rear edge of the seat pan surface, and wherein the seat pan surface is upwardly facing and is angled so that a front edge of the seat pan surface is higher than the rear edge of the seat pan surface; and wherein, when the moveable seat element is in the stowed position, the backrest surface is downwardly facing and is correspondingly angled so as to lie against the seat pan surface. - a main seat, and - a companion seat, the main seat and the companion seat facing each other, wherein the companion seat comprises a seat pan, providing a seat pan surface, and a moveable seat element; characterised in that the moveable seat element is moveable in relation to the seat pan between a stowed position, in which the companion seat provides an additional support surface for a main passenger in the main seat, and a deployed position, in which the moveable seat element provides a backrest surface for a companion passenger in the companion seat; wherein the moveable seat element is slidable and/or rotatable with respect to the seat pan; wherein the moveable seat element is rotatable about a rotation axis adjacent a rear edge of the moveable seat element, wherein the rotation axis is also adjacent a rear edge of the seat pan surface, and wherein the seat pan surface is upwardly facing and is angled so that a front edge of the seat pan surface is higher than the rear edge of the seat pan surface; and wherein, when the moveable seat element is in the stowed position, the backrest surface is downwardly facing and is correspondingly angled so as to lie against the seat pan surface.
A method comprising: receiving a depth map at a location in a path network; retrieving or obtaining feature geometries of a fingerprint from a fingerprint database, the fingerprint being in proximity to the location in the path network; orienting, using a processor, the depth map with the feature geometries of the fingerprint; comparing control points of an extracted, oriented feature geometry from the depth map with control points within the fingerprint; and calculating an individual match rate for the oriented feature geometry based on an average deviation in distance between each control point of the oriented feature geometry from the depth map and respective control points in the fingerprint. receiving a depth map at a location in a path network; retrieving or obtaining feature geometries of a fingerprint from a fingerprint database, the fingerprint being in proximity to the location in the path network; orienting, using a processor, the depth map with the feature geometries of the fingerprint; comparing control points of an extracted, oriented feature geometry from the depth map with control points within the fingerprint; and calculating an individual match rate for the oriented feature geometry based on an average deviation in distance between each control point of the oriented feature geometry from the depth map and respective control points in the fingerprint.
A welding system, comprising: a welding-type power supply configured to provide power to a welding torch, the welding torch configured to receive welding wire from a wire feeder and provide the power to the welding wire to establish an electrical arc between the welding wire and a workpiece, the welding-type power supply comprising control circuitry configured to: detect an end of a welding process, in response to detecting the end of the welding process, output a signal to control a current magnitude of the power to a magnitude above zero, and output a signal to the wire feeder to feed the welding wire forward, detect a contact between the welding wire and the workpiece, characterised in that the control circuitry is further configured to: in response to detecting the contact, output a signal to the wire feeder to feed the welding wire forward for a first time period or first distance, and in response to the first time period or first distance expiring, retract the welding wire. a welding-type power supply configured to provide power to a welding torch, the welding torch configured to receive welding wire from a wire feeder and provide the power to the welding wire to establish an electrical arc between the welding wire and a workpiece, the welding-type power supply comprising control circuitry configured to: detect an end of a welding process, in response to detecting the end of the welding process, output a signal to control a current magnitude of the power to a magnitude above zero, and output a signal to the wire feeder to feed the welding wire forward, detect a contact between the welding wire and the workpiece, characterised in that the control circuitry is further configured to: in response to detecting the contact, output a signal to the wire feeder to feed the welding wire forward for a first time period or first distance, and in response to the first time period or first distance expiring, retract the welding wire. detect an end of a welding process, in response to detecting the end of the welding process, output a signal to control a current magnitude of the power to a magnitude above zero, and output a signal to the wire feeder to feed the welding wire forward, detect a contact between the welding wire and the workpiece, characterised in that the control circuitry is further configured to: in response to detecting the contact, output a signal to the wire feeder to feed the welding wire forward for a first time period or first distance, and in response to the first time period or first distance expiring, retract the welding wire. in response to detecting the contact, output a signal to the wire feeder to feed the welding wire forward for a first time period or first distance, and in response to the first time period or first distance expiring, retract the welding wire.
A device (1,2) for characterizing a size distribution of electrically-charged airborne particles in an air flow, comprising: - a particle charging unit arranged to create the size distribution of electrically-charged airborne particles by electrically-charging airborne particles entering the device (1,2), - a parallel arrangement of a first measurement section and a second measurement section, located downstream from the particle charging unit, and - a data evaluation unit, wherein the first measurement section comprises: - a first particle sensing unit arranged to precipitate substantially all entering electrically-charged airborne particles, and to generate a first output signal corresponding to the precipitation of electrically-charged airborne particles inside the first particle sensing unit, the second measurement section comprises: - a second particle sensing unit arranged to precipitate at least part of all entering electrically-charged airborne particles, and to generate a second output signal corresponding to the precipitation of electrically-charged airborne particles inside the second particle sensing unit, and - a first particle precipitation unit arranged to precipitate substantially all entering electrically-charged airborne particles having a size smaller than a first particle size limit, and to partially reduce the concentration of electrically-charged airborne particles having a size larger than the first particle size limit, the data evaluation unit being arranged to calculate, based on the difference between the first output signal and the second output signal, a particle number concentration and an average diameter of airborne particles having a size larger than the first particle size limit. - a particle charging unit arranged to create the size distribution of electrically-charged airborne particles by electrically-charging airborne particles entering the device (1,2), - a parallel arrangement of a first measurement section and a second measurement section, located downstream from the particle charging unit, and - a data evaluation unit, - a first particle sensing unit arranged to precipitate substantially all entering electrically-charged airborne particles, and to generate a first output signal corresponding to the precipitation of electrically-charged airborne particles inside the first particle sensing unit, - a second particle sensing unit arranged to precipitate at least part of all entering electrically-charged airborne particles, and to generate a second output signal corresponding to the precipitation of electrically-charged airborne particles inside the second particle sensing unit, and - a first particle precipitation unit arranged to precipitate substantially all entering electrically-charged airborne particles having a size smaller than a first particle size limit, and to partially reduce the concentration of electrically-charged airborne particles having a size larger than the first particle size limit,
A medical device system, comprising: a medical device comprising an implantable neurostimulator (10; 110), the medical device being configured to execute a program to alleviate a symptom of a patient; and an external device (60; 70; 160; 170) comprising means for receiving at least one qualitative measurement from the patient, means for receiving a plurality of quantitative measurements taken from the patient and at least one non-transitory computer readable medium containing instructions for a first algorithm, wherein the first algorithm when executed on the external device (60; 70; 160; 170) is configured to: receive at least one qualitative measurement from the patient regarding the symptom, wherein the at least one qualitative measurement comprises subjective input from the patient regarding their perception of how therapy provided by the medical device is affecting the symptom, receive a plurality of quantitative measurements taken from the patient, and determine a wellness factor for the patient using the at least one qualitative measurement and the plurality of quantitative measurements, wherein the wellness factor is indicative of a severity of the symptom, or wherein the wellness factor is indicative of a status of the patient. a medical device comprising an implantable neurostimulator (10; 110), the medical device being configured to execute a program to alleviate a symptom of a patient; and an external device (60; 70; 160; 170) comprising means for receiving at least one qualitative measurement from the patient, means for receiving a plurality of quantitative measurements taken from the patient and at least one non-transitory computer readable medium containing instructions for a first algorithm, wherein the first algorithm when executed on the external device (60; 70; 160; 170) is configured to: receive at least one qualitative measurement from the patient regarding the symptom, wherein the at least one qualitative measurement comprises subjective input from the patient regarding their perception of how therapy provided by the medical device is affecting the symptom, receive a plurality of quantitative measurements taken from the patient, and determine a wellness factor for the patient using the at least one qualitative measurement and the plurality of quantitative measurements, wherein the wellness factor is indicative of a severity of the symptom, or wherein the wellness factor is indicative of a status of the patient. receive at least one qualitative measurement from the patient regarding the symptom, wherein the at least one qualitative measurement comprises subjective input from the patient regarding their perception of how therapy provided by the medical device is affecting the symptom, receive a plurality of quantitative measurements taken from the patient, and determine a wellness factor for the patient using the at least one qualitative measurement and the plurality of quantitative measurements, wherein the wellness factor is indicative of a severity of the symptom, or wherein the wellness factor is indicative of a status of the patient.
Control system of an internal combustion engine (Eng), the control system comprising: - stop means (STOP) to stop automatically an internal combustion engine according to a predetermined operating condition of the internal combustion engine; - verification and/or restoration means to verify and/or to restore a first component of said internal combustion engine; - learning means to learn a control variable of a second component of said internal combustion engine; - inhibition means of said stop means to prevent an engine stop; wherein only said verification and/or restoration means, when activated, are adapted to cause an activation of said inhibition means, and wherein said learning means are enabled to activate only when said verification and/or restoration means are active. - stop means (STOP) to stop automatically an internal combustion engine according to a predetermined operating condition of the internal combustion engine; - verification and/or restoration means to verify and/or to restore a first component of said internal combustion engine; - learning means to learn a control variable of a second component of said internal combustion engine; - inhibition means of said stop means to prevent an engine stop;
A monoclonal antibody that binds human tau comprising a light chain variable region (LCVR) and a heavy chain variable region (HCVR), wherein the LCVR comprises complementarity determining regions (CDRs) LCDR1, LCDR2, and LCDR3 and the HCVR comprises CDRs HCDR1, HCDR2, and HCDR3, wherein the amino acid sequence of LCDR1 is given by SEQ ID NO: 3, the amino acid sequence of LCDR2 is given by SEQ ID NO: 4, the amino acid sequence of LCDR3 is given by SEQ ID NO: 5, the amino acid sequence of HCDR1 is given by SEQ ID NO: 6, the amino acid sequence of HCDR2 is given by SEQ ID NO: 7, and the amino acid sequence of HCDR3 is given by SEQ ID NO: 8.