mhurhangee/ep-ind-claims huggingface dataset:
An air cycle machine, comprising: an input conduit for receiving compressed air; a primary heat exchanger connected to the input conduit; a compressor in fluid communication with the input conduit through the primary heat exchanger to receive the compressed air and in fluid communication with an output conduit; a first turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; a second turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; and a valve coupling the compressor with the output conduit, wherein the valve has an open position and a closed position, the first turbine and the second turbine fluidly connected in parallel between the compressor and the output conduit in the open position, the first turbine fluidly connected in series with the second turbine between the compressor and the output conduit in the closed position; wherein the valve is a first valve and further comprising a second valve, the first valve connecting the first turbine to the output conduit, the second valve connecting the compressor to the second turbine, the system further comprising: a check valve coupling the first turbine to the second turbine an input conduit for receiving compressed air; a primary heat exchanger connected to the input conduit; a compressor in fluid communication with the input conduit through the primary heat exchanger to receive the compressed air and in fluid communication with an output conduit; a first turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; a second turbine operably connected to the compressor and fluidly coupling the compressor with the output conduit; and a valve coupling the compressor with the output conduit, wherein the valve has an open position and a closed position, the first turbine and the second turbine fluidly connected in parallel between the compressor and the output conduit in the open position, the first turbine fluidly connected in series with the second turbine between the compressor and the output conduit in the closed position; wherein the valve is a first valve and further comprising a second valve, the first valve connecting the first turbine to the output conduit, the second valve connecting the compressor to the second turbine, the system further comprising: a check valve coupling the first turbine to the second turbine
A method of determining condition of filter capacitance of a filter connected to the phases of an inverter and adapted to be connected to an alternating voltage source, the inverter comprising parallel connected inverter legs having upper (T1, T2, T3) and lower semiconductor switches (T4, T5, T6) with diodes (D1, D2, D3, D4, D5, D6) connected in antiparallel with the switches, the upper and lower semiconductor switches connected in series between positive and negative buses (DC+, DC-), the upper semiconductor switches being connected to the positive bus and the lower semiconductor switches being connected to the negative bus, wherein the points between the upper and lower semiconductor switches form the phases (a, b, c) of the inverter, and the filter comprising inductive components (L c,a, L c,b, L c,c) and capacitors (C ab, C bc, C ca), the inductive components being connected at their first ends to the phases of the inverter and the capacitors connecting the other ends of the inductive components, wherein the method comprises charging the capacitors of the filter, controlling the semiconductor switches of the inverter for short circuiting the capacitors through the inductive components while the filter is disconnected from the alternating voltage source, measuring a current or a voltage in the circuit comprising the filter, determining from the oscillation of the measured current or voltage a value of the filter capacitance. the inverter comprising parallel connected inverter legs having upper (T1, T2, T3) and lower semiconductor switches (T4, T5, T6) with diodes (D1, D2, D3, D4, D5, D6) connected in antiparallel with the switches, the upper and lower semiconductor switches connected in series between positive and negative buses (DC+, DC-), the upper semiconductor switches being connected to the positive bus and the lower semiconductor switches being connected to the negative bus, wherein the points between the upper and lower semiconductor switches form the phases (a, b, c) of the inverter, and the filter comprising inductive components (L c,a, L c,b, L c,c) and capacitors (C ab, C bc, C ca), the inductive components being connected at their first ends to the phases of the inverter and the capacitors connecting the other ends of the inductive components, wherein the method comprises charging the capacitors of the filter, controlling the semiconductor switches of the inverter for short circuiting the capacitors through the inductive components while the filter is disconnected from the alternating voltage source, measuring a current or a voltage in the circuit comprising the filter, determining from the oscillation of the measured current or voltage a value of the filter capacitance.
A porous membrane, comprising a blend of a first powder of metal particles of a first average size and a second powder of metal particles of a second average size, the first powder and the second powder being sintered together, wherein the first average size is five to fifty times greater than the second average size, and wherein the porous membrane comprises from 40% to 60% by weight of the first powder, characterised in that the first average size is 50 microns, and the second average size is 2 microns.
A solder ball comprising: 0.2 to 2.2% by mass of Zn; and a balance of Sn, wherein the solder ball has a spherical diameter of 0.1 to 120 μm, and wherein the solder ball has a yellowness (b*) in an L*a*b* color system of 2.70 or more and 9.52 or less and a thickness of an oxide film on a surface of the solder ball is 1.5 nm or more and 10.7 nm or less, wherein the thickness of the oxide film is measured using a FE-AES measuring device, and the yellowness of each of the solder balls was measured using CM-2600d spectrophotometer manufactured by Konica Minolta, Inc. 0.2 to 2.2% by mass of Zn; and a balance of Sn, wherein the solder ball has a spherical diameter of 0.1 to 120 μm, and wherein the solder ball has a yellowness (b*) in an L*a*b* color system of 2.70 or more and 9.52 or less and a thickness of an oxide film on a surface of the solder ball is 1.5 nm or more and 10.7 nm or less, wherein the thickness of the oxide film is measured using a FE-AES measuring device, and the yellowness of each of the solder balls was measured using CM-2600d spectrophotometer manufactured by Konica Minolta, Inc.
A system comprising: a non-destructive testing device comprising: a camera configured to capture image data, video data, or a combination thereof; a first screen to display the captured data; and a wireless system configured to communicate the image data, the video data, an overlay data or a combination thereof, to a mobile device having a second display screen, wherein the mobile device is configured to visually display the image data, the video data, the overlay data, or the combination thereof, on the display screen; characterized by the system further comprising: the mobile device comprising the second display screen; and the non-destructive testing device further comprising: a sensor configured to sense a measurement; and the wireless system configured to communicate data from the sensor along with the image data, the video data, overlay data or a combination thereof to the mobile device; wherein the mobile device is configured to visually display the data on the second display screen. a non-destructive testing device comprising: a camera configured to capture image data, video data, or a combination thereof; a first screen to display the captured data; and a wireless system configured to communicate the image data, the video data, an overlay data or a combination thereof, to a mobile device having a second display screen, wherein the mobile device is configured to visually display the image data, the video data, the overlay data, or the combination thereof, on the display screen; a camera configured to capture image data, video data, or a combination thereof; a first screen to display the captured data; and a wireless system configured to communicate the image data, the video data, an overlay data or a combination thereof, to a mobile device having a second display screen, wherein the mobile device is configured to visually display the image data, the video data, the overlay data, or the combination thereof, on the display screen; characterized by the system further comprising: the mobile device comprising the second display screen; and the non-destructive testing device further comprising: a sensor configured to sense a measurement; and the wireless system configured to communicate data from the sensor along with the image data, the video data, overlay data or a combination thereof to the mobile device; wherein the mobile device is configured to visually display the data on the second display screen. the mobile device comprising the second display screen; and the non-destructive testing device further comprising: a sensor configured to sense a measurement; and the wireless system configured to communicate data from the sensor along with the image data, the video data, overlay data or a combination thereof to the mobile device; wherein the mobile device is configured to visually display the data on the second display screen. a sensor configured to sense a measurement; and the wireless system configured to communicate data from the sensor along with the image data, the video data, overlay data or a combination thereof to the mobile device; wherein the mobile device is configured to visually display the data on the second display screen.
A rotorcraft rotor fitted with a device for damping drag oscillations of the blades of the rotor, the blades being individually mounted articulated to a rotary hub of the rotor by means of respective sleeves each articulated to the hub, at least about a drag axis oriented substantially parallel to the axis of rotation of the hub, the damping device comprising a set of dampers which are each individually housed in one said sleeve, each damper being elastically deformable between two fastening points (8, 9) by means of which fastening points (8, 9) the damper is placed under stress between the sleeve which houses it and an engagement member for engaging on the hub by means of a linkage, characterised in that for each of the sleeves the damper which is housed in a given sleeve is in articulated engagement with the linkage by means of a lever arm which is articulated to the sleeve.
Tensairity structure (200, 300), comprising a pneumatic element (220, 320) which extends along at least a director curve, one or more ropes (210, 310) being connected to the ends of at least one high-slenderness beam termed "rod" (230, 330) in connection zones between the ropes and the rods, said at least one rod (230, 330) being anchored to said pneumatic element (220, 320) along said at least one director curve, wherein: - four or more rods (230, 330) are included, which are placed along as many director curves of said pneumatic element (220, 330); - four or more pairs of ropes (210, 310) are included, which are made of shape-memory alloy wires and/or in a combination of threads made of a non-SMA material and a SMA material; - tensioning means for regulating the tension of said four or more pairs of ropes (210, 310) are included; said tensioning means comprising or being constituted by mechanical tensioners for adjusting the initial tensions of said four or more pairs of ropes (210, 310), placed in said connection zones between the ropes and rods, wherein said initial tensions include tensions in the linear regime of the SMA wires and tensions in the non-linear regime of the SMA wires. - four or more rods (230, 330) are included, which are placed along as many director curves of said pneumatic element (220, 330); - four or more pairs of ropes (210, 310) are included, which are made of shape-memory alloy wires and/or in a combination of threads made of a non-SMA material and a SMA material; - tensioning means for regulating the tension of said four or more pairs of ropes (210, 310) are included; said tensioning means comprising or being constituted by mechanical tensioners for adjusting the initial tensions of said four or more pairs of ropes (210, 310), placed in said connection zones between the ropes and rods, wherein said initial tensions include tensions in the linear regime of the SMA wires and tensions in the non-linear regime of the SMA wires.
An anticoagulant surface which surface has covalently bound thereto a plurality of fragments of heparin, wherein said fragments consist of 5-18 saccharide units and wherein said fragments of heparin are homogeneous in structure and all comprise polysaccharide sequence A: wherein R = Ac or SO 3 - which surface catalyses the inhibition of Flla and FXa by AT and wherein the fragments of heparin are end point attached. wherein R = Ac or SO 3 - which surface catalyses the inhibition of Flla and FXa by AT and wherein the fragments of heparin are end point attached.
Electromechanical compact protective switching device, - comprising an insulating-material housing with a width of only one pitch unit, having a first side, a fastening side situated opposite the front side and also first and second narrow sides and broad sides (5-1, 5-2, 6-1, 6-2) connecting the front and the fastening side (3, 4), - comprising a first magnet coil for operating a first switching contact and also a second magnet coil for operating a second switching contact, - wherein the first magnet coil is arranged in the region of the first narrow side and the second magnet coil is arranged in the region of the second narrow side, - wherein the two switching contacts (12, 22) are arranged between the two magnet coils (13-1, 23-1), characterized in that the two magnet coils (13-1, 23-1) are wound in opposition. - comprising an insulating-material housing with a width of only one pitch unit, having a first side, a fastening side situated opposite the front side and also first and second narrow sides and broad sides (5-1, 5-2, 6-1, 6-2) connecting the front and the fastening side (3, 4), - comprising a first magnet coil for operating a first switching contact and also a second magnet coil for operating a second switching contact, - wherein the first magnet coil is arranged in the region of the first narrow side and the second magnet coil is arranged in the region of the second narrow side, - wherein the two switching contacts (12, 22) are arranged between the two magnet coils (13-1, 23-1),
A method at a first network node, comprising: receiving, from a user equipment, UE, an attach request message, wherein the attach request message includes short-message data formatted according to a short-message service, SMS, protocol data unit, PDU; receiving, from a second network node, a short-message data response message, wherein the short-message data response message includes an address for a short message service center, SMSC (110, 308); transmitting an attach response message to the UE, wherein the attach response message indicates whether a message for the UE is pending; and determining the short-message service center based on the address included in the short-message data response; and in response to the determining, transmitting the short-message data to the short-message service center (110, 308). receiving, from a user equipment, UE, an attach request message, wherein the attach request message includes short-message data formatted according to a short-message service, SMS, protocol data unit, PDU; receiving, from a second network node, a short-message data response message, wherein the short-message data response message includes an address for a short message service center, SMSC (110, 308); transmitting an attach response message to the UE, wherein the attach response message indicates whether a message for the UE is pending; and determining the short-message service center based on the address included in the short-message data response; and in response to the determining, transmitting the short-message data to the short-message service center (110, 308).
A crimping terminal comprising: a conductor crimping portion including a bottom plate and a pair of conductor crimping tabs, the conductor crimping tabs being formed extending from both sides of the bottom plate in a widthwise direction perpendicular to a lengthwise direction of the crimping terminal and being configured to crimp a conductor (Wa) of an electrical cable so as to wrap the conductor (Wa), the conductor (Wa) being formed by a bundle of wires (Wc) and serving as a crimping subject disposed on the bottom plate along the lengthwise direction, the inner surface of the conductor crimping portion being provided with serrations including a plurality of uniformly recesses, wherein when it is assumed that a grid is formed so as to obliquely intersect with the lengthwise direction of the crimping terminal, the recesses are disposed at grid points of the grid, and the recesses are arrayed in the lengthwise direction of the crimping terminal while being staggered in the widthwise direction of the crimping terminal, and, in the plurality of recesses, the adjacent recesses deviated from each other in the widthwise direction of the crimping terminal partly overlap each other when seen from the lengthwise direction, characterized in that the recesses are cylindrical and exhibit a diameter smaller than the diameter of the wire (Wc) of the conductor (Wa). a conductor crimping portion including a bottom plate and a pair of conductor crimping tabs, the conductor crimping tabs being formed extending from both sides of the bottom plate in a widthwise direction perpendicular to a lengthwise direction of the crimping terminal and being configured to crimp a conductor (Wa) of an electrical cable so as to wrap the conductor (Wa), the conductor (Wa) being formed by a bundle of wires (Wc) and serving as a crimping subject disposed on the bottom plate along the lengthwise direction, the inner surface of the conductor crimping portion being provided with serrations including a plurality of uniformly recesses, wherein when it is assumed that a grid is formed so as to obliquely intersect with the lengthwise direction of the crimping terminal, the recesses are disposed at grid points of the grid, and the recesses are arrayed in the lengthwise direction of the crimping terminal while being staggered in the widthwise direction of the crimping terminal, and, in the plurality of recesses, the adjacent recesses deviated from each other in the widthwise direction of the crimping terminal partly overlap each other when seen from the lengthwise direction, characterized in that the recesses are cylindrical and exhibit a diameter smaller than the diameter of the wire (Wc) of the conductor (Wa).
An implant detaching mechanism to detach an implant from an implant holder, comprising: a catheter having an inner shaft, a catheter shaft, a capsule, and a handle; the implant holder that is attached to the inner shaft, the implant holder having at least one pin (202; 302; 402; 502; 602; 702; 802) on its peripheral surface to engage an implant to the implant holder, the catheter shaft being movable in the longitudinal direction, the capsule being attached to the distal end of the catheter shaft, and the capsule covering and uncovering the implant holder and at least the engaged implant partially upon movement of the catheter shaft; and a thin strip (206; 306; 406; 506; 606; 706; 806), elastic in nature, is attached to the implant holder and placed between the peripheral surface of the implant holder and the engaged implant; wherein, on moving the capsule to cover the implant holder, a compressive force is applied on the thin strip (206; 306; 406; 506; 606; 706; 806) and the engaged implant; wherein, on moving the capsule to uncover the implant holder, release of potential energy stored in the thin strip (206; 306; 406; 506; 606; 706; 806) causes detachment of the engaged implant from the pin (202; 302; 402; 502; 602; 702; 802); and wherein the thin strip (206; 306; 406; 506; 606; 706; 806) has an eyelet (304; 404; 504; 704; 804) or an elongated slot on its peripheral surface to accommodate overlapping portion of the pin (202; 302; 402; 502; 602; 702; 802) on compression due to the movement of the capsule. a catheter having an inner shaft, a catheter shaft, a capsule, and a handle; the implant holder that is attached to the inner shaft, the implant holder having at least one pin (202; 302; 402; 502; 602; 702; 802) on its peripheral surface to engage an implant to the implant holder, the catheter shaft being movable in the longitudinal direction, the capsule being attached to the distal end of the catheter shaft, and the capsule covering and uncovering the implant holder and at least the engaged implant partially upon movement of the catheter shaft; and a thin strip (206; 306; 406; 506; 606; 706; 806), elastic in nature, is attached to the implant holder and placed between the peripheral surface of the implant holder and the engaged implant; wherein, on moving the capsule to cover the implant holder, a compressive force is applied on the thin strip (206; 306; 406; 506; 606; 706; 806) and the engaged implant; wherein, on moving the capsule to uncover the implant holder, release of potential energy stored in the thin strip (206; 306; 406; 506; 606; 706; 806) causes detachment of the engaged implant from the pin (202; 302; 402; 502; 602; 702; 802); and wherein the thin strip (206; 306; 406; 506; 606; 706; 806) has an eyelet (304; 404; 504; 704; 804) or an elongated slot on its peripheral surface to accommodate overlapping portion of the pin (202; 302; 402; 502; 602; 702; 802) on compression due to the movement of the capsule.
Cutting and/or pressing device for an agricultural harvesting machine, in particular for a loading vehicle or a baling press, having a cutting and/or pressing rotor and having a rotor holder which is provided for supporting the cutting and/or pressing rotor, the cutting and/or pressing rotor comprising a number of tines for conveying the harvested crop and, during operation of the cutting and/or pressing device, rotating about a rotor axis extending in a transverse direction in a rotor direction of rotation, and having a number of blades which are arranged at equal distances from one another along a channel wall delimiting the rotor holder and project with respect to this channel wall so that, during operation of the cutting and/or pressing device, the tines each pass through a gap between two adjacent blades, the channel wall comprising a channel passage which is arranged downstream of the blades in a crop flow direction, a separating wall being arranged at opposite ends (151, 152) of the channel passage in the transverse direction and delimiting the channel passage, characterized in that in the transverse direction, the outer blades (131, 132) each form at least one part of an edge contour of one of the separating walls.