mhurhangee/ep-ind-claims huggingface dataset:
A nacelle assembly comprising: a fan nacelle; a core nacelle spaced radially inwardly of the fan nacelle to define a bypass flowpath; and a scoop to direct air from the bypass flowpath into an engine core, wherein the scoop is comprised of a first piece extending outwardly of an outer surface of the core nacelle to define an air inlet and a second piece extending inwardly relative to the core nacelle to define an air outlet, characterized in that the core nacelle includes an inner structure, the second piece is fixed to the inner structure with at least one first attachment feature at a first attachment interface, the first and second pieces are attached to each other with at least one second attachment feature at a second attachment interface, and the first and second attachment interfaces are located internally of the core nacelle. a fan nacelle; a core nacelle spaced radially inwardly of the fan nacelle to define a bypass flowpath; and a scoop to direct air from the bypass flowpath into an engine core, wherein the scoop is comprised of a first piece extending outwardly of an outer surface of the core nacelle to define an air inlet and a second piece extending inwardly relative to the core nacelle to define an air outlet, characterized in that the core nacelle includes an inner structure, the second piece is fixed to the inner structure with at least one first attachment feature at a first attachment interface, the first and second pieces are attached to each other with at least one second attachment feature at a second attachment interface, and the first and second attachment interfaces are located internally of the core nacelle.
A method of evaluation, by an electromagnetic transponder in the field of a terminal generating a magnetic field, of the power that it can extract from this field, comprising the steps of: evaluating the current coupling (k) between the transponder and the terminal; and deducing therefrom data (Ic max) relative to the power available in this coupling position, measuring and storing first data relative to the level of a D.C. voltage provided by a rectifying means downstream an oscillating circuit (L2, C2) comprised in the transducer, for a first value of the resistive load formed by circuits of the transponder on the oscillating circuit; measuring and storing second data relative to the level of said D.C. voltage for a second value of the resistive load on the oscillating circuit; and deducing a position of the current coupling factor (k) with respect to an optimum coupling position (k opt]R20) with one of the two values of the resistive load. evaluating the current coupling (k) between the transponder and the terminal; and deducing therefrom data (Ic max) relative to the power available in this coupling position, measuring and storing first data relative to the level of a D.C. voltage provided by a rectifying means downstream an oscillating circuit (L2, C2) comprised in the transducer, for a first value of the resistive load formed by circuits of the transponder on the oscillating circuit; measuring and storing second data relative to the level of said D.C. voltage for a second value of the resistive load on the oscillating circuit; and deducing a position of the current coupling factor (k) with respect to an optimum coupling position (k opt]R20) with one of the two values of the resistive load.
A tissue anchor for use with a valve-repair implant configured to be coupled to cardiac tissue of a patient, the tissue anchor comprising: a distal tissue coupling element configured to couple the tissue anchor to the cardiac tissue of the patient; characterised in that it further comprises a proximal implant-penetrating element (47a; 47b) configured to penetrate at least a portion of the valve-repair implant and facilitate coupling of the valve-repair implant to the tissue anchor, the proximal implant-penetrating element comprising: an implant-restraining element (53a; 53b) coupled to a portion of the implant-penetrating element (47a; 47b), the implant-restraining element (53a; 53b) being configured to restrain the valve-repair implant from separating from the implant-penetrating element (47a; 47b). a distal tissue coupling element configured to couple the tissue anchor to the cardiac tissue of the patient; characterised in that it further comprises a proximal implant-penetrating element (47a; 47b) configured to penetrate at least a portion of the valve-repair implant and facilitate coupling of the valve-repair implant to the tissue anchor, the proximal implant-penetrating element comprising: an implant-restraining element (53a; 53b) coupled to a portion of the implant-penetrating element (47a; 47b), the implant-restraining element (53a; 53b) being configured to restrain the valve-repair implant from separating from the implant-penetrating element (47a; 47b). an implant-restraining element (53a; 53b) coupled to a portion of the implant-penetrating element (47a; 47b), the implant-restraining element (53a; 53b) being configured to restrain the valve-repair implant from separating from the implant-penetrating element (47a; 47b).
A catalyst comprising: a zeolite component selected from ZSM-48 or ZSM-23, 0.1 to 5 weight % of a hydrogenation component selected from Pt, Ni, and a mixture thereof, and a hydrothermally stable binder component selected from nickel molybdenum tungsten oxides, nickel molybdenum tungsten sulfide, WO 3, La 2 O 3, CeO 2, or Nb 2 O 5, wherein the weight ratio of the zeolite component to the hydrothermally stable binder component is 85:15 to 25:75.
Device for the continuous and non-invasive determination of physiological parameters of a test person during physical exertion, comprising a LED-based illumination unit, designed to be able to rest on the skin of the test person at a desired measuring point, including a plurality of different, juxtaposed LED types, whose emission maxima are at different wavelengths λ1, λ2... λL from visible to NIR-wavelength range, wherein the illumination unit comprises at least one LED type with an emission maximum below 590 nm, a photo sensor, which is designed to rest on the skin of the test person in order to capture light which was emitted by the illumination unit and passed through the body of the person to an exit location in the area of the photo sensor, a data processing unit, which is connected to the photo sensor for reading it out, and which is connected to the illumination unit and is adapted to activate the different LED types individually in a predetermined activation sequence at successive activation start times t k (k=1, 2... M) for a respective predetermined activation period and to repeat the activation sequence with a clock frequency as a series n = 1, 2... N of activation sequences, wherein the clock frequency is sufficiently high to resolve the pulse of the test person's circulation, characterized in that a camera sensor of CCD or CMOS type having a two-dimensional array with rows and columns of sensor elements is used as the photo sensor, the camera sensor is arranged relative to the illumination unit such that it can rest on the skin on the same side of the body part as the illumination unit and adjacent to it to detect light passing by transflection through the body of the test person to the camera sensor, the data processing unit is set up to read out the camera sensor in each activation sequence at the activation start times t k (k=1, 2... M) and over the respective activation period, and to record the detected intensities of the sensor elements, combined over subregions of sensor elements and assigned to the respective activation sequence from the sequence n = 1, 2... N of activation sequences and the respective activation start time t k (k=1, 2... M) as time series, wherein sub-areas of the camera sensor are summed up by reading out rows of the camera sensor, which lie parallely to the connection axis between the illumination unit and the camera sensor and along which the distance from the illumination unit increases, and to combine parallel rows into a single averaged row, and the data processing means is arranged to analyze the averaged row as a function of the distance from the illumination unit for the purpose of muscle oximetry.
A method for removing a bar or coil from a slot of an electric machine with a stator and a rotor, by weakening the bonding between the slot and the bar or coil, the bar or coil having a conductor and insulation around the conductor, the method comprising the following steps, covering the stator or rotor with an envelope, heating the stator or rotor including the bar or coil housed in the slots to a second temperature lower than a first temperature, then further heating at least a portion of the bar or coil to reach the first temperature or a temperature above the first temperature, removing the bar or coil.
An energy storage device equipped with a container having a container body and a lid body which closes an opening of the container body, wherein an elongated welded part which is a welded portion between the container body and the lid body is formed on the container, the welded part has a first welded part and a second welded part arranged in a row in a lengthwise direction of the welded part, a width of the second welded part in a widthwise direction of the welded part is set larger than a width of the first welded part in the widthwise direction, being characterised by: a gas release vent is disposed on the lid body, the second welded part being disposed only on a lateral side or both lateral sides of the gas release vent and including an entire length of the gas release vent in the lengthwise direction as viewed from the lateral side, and a length of the second welded part in the lengthwise direction being set larger than a length of the gas release vent in the lengthwise direction. a gas release vent is disposed on the lid body, the second welded part being disposed only on a lateral side or both lateral sides of the gas release vent and including an entire length of the gas release vent in the lengthwise direction as viewed from the lateral side, and a length of the second welded part in the lengthwise direction being set larger than a length of the gas release vent in the lengthwise direction.
Arc resistant electrical distribution equipment, comprising: a passive arc management device (106, 204, 304, 400, 804, 904, 1004) installed on the electrical distribution equipment; a ventilation port (405a-c, 518, 720, 1010a-c) formed in the arc management device, the ventilation port positioned on a top or a bottom of the arc management device to expel arc byproducts, such as vaporized metals/polymers and gasses resulting from arcs that occur in the electrical distribution equipment; and a filter housing (502, 702) located on the arc management device, the filter housing having a cooling filter housed therein, the cooling filter positioned over the ventilation port to receive the arc byproducts expelled from the ventilation port; the arc resistant electrical distribution equipment characterized by: the cooling filter having a sufficiently high heat adsorption capacity to cool the arc byproducts to a temperature where the arc byproducts can no longer reignite and comprises one of: a honeycomb type filter or a screen type filter that has multiple layers of progressively finer screens; and wherein the filter housing is a diverter valve configured to remain open to convective airflow during normal operation and to shut off convective airflow when there is a sudden pressure increase in the arc management device. a passive arc management device (106, 204, 304, 400, 804, 904, 1004) installed on the electrical distribution equipment; a ventilation port (405a-c, 518, 720, 1010a-c) formed in the arc management device, the ventilation port positioned on a top or a bottom of the arc management device to expel arc byproducts, such as vaporized metals/polymers and gasses resulting from arcs that occur in the electrical distribution equipment; and a filter housing (502, 702) located on the arc management device, the filter housing having a cooling filter housed therein, the cooling filter positioned over the ventilation port to receive the arc byproducts expelled from the ventilation port; the arc resistant electrical distribution equipment characterized by: the cooling filter having a sufficiently high heat adsorption capacity to cool the arc byproducts to a temperature where the arc byproducts can no longer reignite and comprises one of: a honeycomb type filter or a screen type filter that has multiple layers of progressively finer screens; and wherein the filter housing is a diverter valve configured to remain open to convective airflow during normal operation and to shut off convective airflow when there is a sudden pressure increase in the arc management device. the cooling filter having a sufficiently high heat adsorption capacity to cool the arc byproducts to a temperature where the arc byproducts can no longer reignite and comprises one of: a honeycomb type filter or a screen type filter that has multiple layers of progressively finer screens; and wherein the filter housing is a diverter valve configured to remain open to convective airflow during normal operation and to shut off convective airflow when there is a sudden pressure increase in the arc management device.
A fluid dispenser device comprising: a reservoir containing fluid; a dispenser head that is provided with a dispenser orifice, a piston (45; 70) for dispensing at least a portion of said fluid through said dispenser orifice, said reservoir being closed in leaktight manner by a closure element before actuation, said device including passage means for connecting said reservoir to said dispenser orifice during actuation, the device being characterized in that said passage means comprise a hollow sleeve that is stationary relative to said dispenser head, for sliding around said closure element during actuation, so as to open said passage means.
A vane ring for a gas turbine engine component, comprising: an inner vane platform around an axis; an outer vane platform around the axis; a multiple of vanes that extend between the inner vane platform and the outer vane platform, each of the multiple of vanes contains an airfoil cooling circuit that receives cooling airflow through a respective one of a multiple of feed passages; a multiple of extensions from the outer vane platform, each of the multiple of extensions is cubic in shape and comprises a metering passage in communication with the respective one of the multiple of feed passages; and characterised by further comprising a secondary passage (134, 136, 138, 140) in each face (142, 144, 146, 148) transverse to the metering passage of each of the multiple of extensions. an inner vane platform around an axis; an outer vane platform around the axis; a multiple of vanes that extend between the inner vane platform and the outer vane platform, each of the multiple of vanes contains an airfoil cooling circuit that receives cooling airflow through a respective one of a multiple of feed passages; a multiple of extensions from the outer vane platform, each of the multiple of extensions is cubic in shape and comprises a metering passage in communication with the respective one of the multiple of feed passages; and characterised by further comprising a secondary passage (134, 136, 138, 140) in each face (142, 144, 146, 148) transverse to the metering passage of each of the multiple of extensions.
A method of manufacturing a container, the method comprising the steps of: (a) injecting a sufficiently heated thermoplastic material into a first cavity to form a preliminary product comprising a collar having a first part of a first connecting feature, and an opening, and a further packaging component having a second part of the first connecting feature; then (b) cooling the preliminary product of step (a); then an area of the preliminary product to be blown is reheated to a temperature suitable for blow-molding wherein the collar is not reheated; (c) blow molding the preliminary product in a second cavity to form a wall and base, which together form a void volume; wherein steps a) to c) are performed in a single forming unit, then (d) removing the finished product produced in step c) from the single forming unit. (a) injecting a sufficiently heated thermoplastic material into a first cavity to form a preliminary product comprising a collar having a first part of a first connecting feature, and an opening, and a further packaging component having a second part of the first connecting feature; then (b) cooling the preliminary product of step (a); then an area of the preliminary product to be blown is reheated to a temperature suitable for blow-molding wherein the collar is not reheated; (c) blow molding the preliminary product in a second cavity to form a wall and base, which together form a void volume; wherein steps a) to c) are performed in a single forming unit, then (d) removing the finished product produced in step c) from the single forming unit.
A model face (100, 616) for use in an evaluation of medication delivery, the model comprising: a base, wherein the base defines a pair of eyes and a brow; an elastomer cast positioned on at least a portion of a top of the base, the elastomer simulating soft tissues in a face and defining at least a nose, a chin, and a mouth sized to simulate a nose, a chin, and a mouth of a child; an air pocket positioned between the base and the elastomer cast and below at least the nose, the chin, and the mouth of the elastomer cast to further simulate soft tissue around the nose, chin, and mouth area of the face; and a mouth opening defining a passageway through the base, the air pocket, and the mouth of the elastomer cast, the mouth opening operative to be coupled with an induction port. a base, wherein the base defines a pair of eyes and a brow; an elastomer cast positioned on at least a portion of a top of the base, the elastomer simulating soft tissues in a face and defining at least a nose, a chin, and a mouth sized to simulate a nose, a chin, and a mouth of a child; an air pocket positioned between the base and the elastomer cast and below at least the nose, the chin, and the mouth of the elastomer cast to further simulate soft tissue around the nose, chin, and mouth area of the face; and a mouth opening defining a passageway through the base, the air pocket, and the mouth of the elastomer cast, the mouth opening operative to be coupled with an induction port.
Portable power tool having a mechanical percussion mechanism, said power tool having a drive shaft for driving a percussion body assigned to the percussion mechanism in rotation, wherein, on an outer circumference of the drive shaft, at least one V-shaped guide slot (162, 164) is provided, the bottom lines (170, 172) of which that converge in a connecting portion are formed at least partially in a concave-polygonal manner in the output direction.
Clamping apparatus configured for clamping at least one bristle carrier, characterized in that the clamping apparatus has at least one plug-in receptacle for a fastening stud of a bristle carrier and at least one clamping element which is assigned to the plug-in receptacle and can be advanced transversely with respect to a longitudinal axis of the plug-in receptacle from a starting position into a clamping position, and wherein the clamping apparatus is designed as a carrier cassette which is movable from processing station to processing station of a brush production machine.
A hybrid condenser, having a direct contact condenser segment (9, 39) and a surface condenser segment (10, 40) arranged in a common condensation space, comprising - a surface condenser segment (10, 40, 49) arranged downstream the direct contact condenser segment (9, 39) in the direction of steam flow or below the direct contact condenser segment (9, 39), and - a water guiding element (17, 45) ensuring that the cooling water and condensate mixture generated in the direct contact condenser segment (9, 39) flows downward avoiding the surface condenser segment (10, 40, 49). - a surface condenser segment (10, 40, 49) arranged downstream the direct contact condenser segment (9, 39) in the direction of steam flow or below the direct contact condenser segment (9, 39), and - a water guiding element (17, 45) ensuring that the cooling water and condensate mixture generated in the direct contact condenser segment (9, 39) flows downward avoiding the surface condenser segment (10, 40, 49).
Drive unit for a punching machine or a press for moving a ram with at least one electric motor that has a stator and a rotor arranged concentrically to one another, where the stator has a torque-proof connection to a press frame and a drive shaft for moving the ram can be driven by the rotor, characterised in that a drag link is positioned between the rotor and the drive shaft.
Method for producing a patient-specific bracket body for a modular bracket having a pad and a bracket body, which comprises the steps: a) providing a raw bracket body having a spacer section, b) establishing a first parameter for cutting through the spacer section, a distance of a resulting cut surface of the spacer section from the slot, in order to establish a suitable height of the bracket body, c) establishing a second parameter for cutting through the spacer section, a cutting angle to a mesio-distal axis, in order to establish a suitable torque value of the bracket body, d) establishing a third parameter for cutting through the spacer section, a cutting angle to an occlusal-gingival axis, in order to establish a suitable rotation value of the bracket body, e) cutting through the spacer section according to the three established parameters, whereby a bracket body is produced. a) providing a raw bracket body having a spacer section, b) establishing a first parameter for cutting through the spacer section, a distance of a resulting cut surface of the spacer section from the slot, in order to establish a suitable height of the bracket body, c) establishing a second parameter for cutting through the spacer section, a cutting angle to a mesio-distal axis, in order to establish a suitable torque value of the bracket body, d) establishing a third parameter for cutting through the spacer section, a cutting angle to an occlusal-gingival axis, in order to establish a suitable rotation value of the bracket body, e) cutting through the spacer section according to the three established parameters, whereby a bracket body is produced.