mhurhangee/ep-ind-claims huggingface dataset:
A valve device for selectively controlling fluid flow through multiple converging paths, said valve device comprising: a housing defining first and second inlet paths, an outlet path, and a junction in fluid communication with the first and second inlet paths and the outlet path, the housing further defining first and second plunger cavities; a first plunger disposed in the first plunger cavity, the first plunger adapted to move between a first position in which the first plunger impedes fluid flow through the first inlet passage and a second position; a second plunger disposed in the second plunger cavity, the second plunger adapted to move between a first position in which the second plunger impedes fluid flow through the second inlet passage and a second position; and a control member slidably attached to the housing and defining first and second plunger recesses, the first plunger recess sized and configured to receive a portion of the first plunger when the first plunger is in its second position and the second plunger recess sized and configured to receive a portion of the second plunger when the second plunger is in its second position; wherein the control member is movable between a first, proximal position in which the first plunger is in its first position and the second plunger is in its second position and a second, distal position in which the first plunger is in its second position and the second plunger is in its first position. a housing defining first and second inlet paths, an outlet path, and a junction in fluid communication with the first and second inlet paths and the outlet path, the housing further defining first and second plunger cavities; a first plunger disposed in the first plunger cavity, the first plunger adapted to move between a first position in which the first plunger impedes fluid flow through the first inlet passage and a second position; a second plunger disposed in the second plunger cavity, the second plunger adapted to move between a first position in which the second plunger impedes fluid flow through the second inlet passage and a second position; and a control member slidably attached to the housing and defining first and second plunger recesses, the first plunger recess sized and configured to receive a portion of the first plunger when the first plunger is in its second position and the second plunger recess sized and configured to receive a portion of the second plunger when the second plunger is in its second position; wherein the control member is movable between a first, proximal position in which the first plunger is in its first position and the second plunger is in its second position and a second, distal position in which the first plunger is in its second position and the second plunger is in its first position.
A method of determining an infection type in a subject comprising measuring the expression of at least one RNA determinant in a sample of the subject, wherein said measuring is effected at an exon or plurality of exons whose expression level distinguishes between a bacterial and viral infection with a degree of accuracy above a predetermined level, thereby determining the infection type of the subject.
Vehicle rim, with symmetry of revolution, intended for the mounting of a tyre, comprising: an axially central part comprising a disc; two lateral parts (31, 32), at least one of the lateral parts being separate from the axially central part, each of the lateral parts being provided with a rim seat intended to receive a bead of a tyre, the axially central part and the two lateral parts being made from a rigid matrix that can be reinforced by a reinforcement; an intermediate part (41, 42) that forms the only mechanical link between the axially central part and each lateral part that is separate from the axially central part, the rim being characterized in that the intermediate part is made of a flexible matrix, the Young's modulus of uniaxial extension of the flexible matrix being greater than or equal to 50 MPa and less than or equal to 400 MPa; and in that the Young's modulus of uniaxial extension of the rigid matrix is greater than or equal to 5 GPa. an axially central part comprising a disc; two lateral parts (31, 32), at least one of the lateral parts being separate from the axially central part, each of the lateral parts being provided with a rim seat intended to receive a bead of a tyre, the axially central part and the two lateral parts being made from a rigid matrix that can be reinforced by a reinforcement; an intermediate part (41, 42) that forms the only mechanical link between the axially central part and each lateral part that is separate from the axially central part, the rim being characterized in that the intermediate part is made of a flexible matrix, the Young's modulus of uniaxial extension of the flexible matrix being greater than or equal to 50 MPa and less than or equal to 400 MPa; and in that the Young's modulus of uniaxial extension of the rigid matrix is greater than or equal to 5 GPa.
A method of preparing a Zr-based amorphous alloy comprising the steps of: mixing raw materials comprising Zr, M, N and Q according to a molar ratio for Zr a M b N c: Q: Zr of (100-x): (x+y): y to form a mixture; melting the mixture to form a molten mixture; and filtering, casting and cooling the molten mixture to form the Zr-based amorphous alloy represented by the general formula of (Zr a M b N c) 100-x Q x, wherein: M is at least one transition metal except Zr; N is Be or Al; Q is selected from the group consisting of CaO, MgO, Y 2 O 3, Nd 2 O 3, and combinations thereof; a, b, and c are atomic percents of corresponding elements; and 45≤a≤75, 20≤b≤40, 1≤c≤25, a+b+c=100, 1≤x≤15, and 0.1≤y≤5. mixing raw materials comprising Zr, M, N and Q according to a molar ratio for Zr a M b N c: Q: Zr of (100-x): (x+y): y to form a mixture; melting the mixture to form a molten mixture; and filtering, casting and cooling the molten mixture to form the Zr-based amorphous alloy represented by the general formula of (Zr a M b N c) 100-x Q x, wherein: M is at least one transition metal except Zr; N is Be or Al; Q is selected from the group consisting of CaO, MgO, Y 2 O 3, Nd 2 O 3, and combinations thereof; a, b, and c are atomic percents of corresponding elements; and 45≤a≤75, 20≤b≤40, 1≤c≤25, a+b+c=100, 1≤x≤15, and 0.1≤y≤5. M is at least one transition metal except Zr; N is Be or Al; Q is selected from the group consisting of CaO, MgO, Y 2 O 3, Nd 2 O 3, and combinations thereof; a, b, and c are atomic percents of corresponding elements; and 45≤a≤75, 20≤b≤40, 1≤c≤25, a+b+c=100, 1≤x≤15, and 0.1≤y≤5.
A method for connecting components, in the case of which an assembly of at least two components each having a metallic contact surface and a metallic sintering agent in the form of a discrete metallic solid body comprising metal oxide surfaces and being arranged between the components, is provided, and the assembly is pressure sintered, wherein metal oxide surfaces of the metallic sintering agent each form a common contact surface with the metallic contact surfaces of the components, and wherein the pressure sintering is carried out in an atmosphere containing at least one oxidizable compound, and/or the metal oxide surfaces are provided with at least one oxidizable organic compound before formation of the respective common contact surface, wherein the metallic solid body is a flat or layer-shaped metal part with a thickness or layer thickness in the range of from 10 to 300 μm, wherein the metal of the metallic sintering agent is silver, wherein the metal oxide is an oxide of the metal of the metallic sintering agent, wherein the at least one oxidizable organic compound is selected among free fatty acids, fatty acid salts, and fatty acid esters, and wherein the at least one oxidizable compound contained in the atmosphere is selected from the group consisting of carbon monoxide, hydrogen, and formic acid.
A back illuminated photodetector comprising: a first conductive type semiconductor substrate; a second conductive type impurity semiconductor region provided in a first surface layer of the semiconductor substrate, wherein the first surface layer forms the first surface of the semiconductor substrate; a recessed portion for incidence of to-be-detected light formed in a second surface of the semiconductor substrate, in an area opposite the impurity semiconductor region and extending in to the semiconductor substrate to a bottom surface; a window plate made of an optically transparent material, the window plate being bonded to an outer edge portion of the recessed portion in such a manner as to cover the recessed portion to transmit the to-be-detected light; and a stepped portion formed in a side surface of the semiconductor substrate perpendicular to the first surface layer or in a side surface of the window plate perpendicular to the first surface layer, wherein the stepped portion is formed in the vicinity of the interface between the semiconductor substrate and the window plate such that the bottom surface of the recessed portion is between the first surface layer of the semiconductor substrate and the stepped portion. a first conductive type semiconductor substrate; a second conductive type impurity semiconductor region provided in a first surface layer of the semiconductor substrate, wherein the first surface layer forms the first surface of the semiconductor substrate; a recessed portion for incidence of to-be-detected light formed in a second surface of the semiconductor substrate, in an area opposite the impurity semiconductor region and extending in to the semiconductor substrate to a bottom surface; a window plate made of an optically transparent material, the window plate being bonded to an outer edge portion of the recessed portion in such a manner as to cover the recessed portion to transmit the to-be-detected light; and a stepped portion formed in a side surface of the semiconductor substrate perpendicular to the first surface layer or in a side surface of the window plate perpendicular to the first surface layer, wherein the stepped portion is formed in the vicinity of the interface between the semiconductor substrate and the window plate such that the bottom surface of the recessed portion is between the first surface layer of the semiconductor substrate and the stepped portion.
A battery module, comprising: a plurality of rows of battery cells, each battery cell comprising a prismatic battery case with a bottom surface, a first pair of wide side surfaces (15,16) and a second pair of narrow side surfaces (17,18); a plurality of first busbars and at least one second busbar, the busbars (73a,73b) being configured for electrically connecting battery cells, wherein adjacent battery cells within a row face each other via their narrow side surfaces (17,18) and adjacent battery cells of adjacent rows face each other via their wide side surfaces (15,16), wherein adjacent battery cells within a row are electrically connected in series via one of the plurality of first busbars and distinct rows are electrically connected in series via at least one second busbar, and wherein the battery cells of adjacent rows are shifted against each other in a direction parallel or antiparallel to a length direction of the battery module. a plurality of rows of battery cells, each battery cell comprising a prismatic battery case with a bottom surface, a first pair of wide side surfaces (15,16) and a second pair of narrow side surfaces (17,18); a plurality of first busbars and at least one second busbar, the busbars (73a,73b) being configured for electrically connecting battery cells, wherein adjacent battery cells within a row face each other via their narrow side surfaces (17,18) and adjacent battery cells of adjacent rows face each other via their wide side surfaces (15,16), wherein adjacent battery cells within a row are electrically connected in series via one of the plurality of first busbars and distinct rows are electrically connected in series via at least one second busbar, and wherein the battery cells of adjacent rows are shifted against each other in a direction parallel or antiparallel to a length direction of the battery module.
A system for determining a status of a valve being mounted in a liquid supply line, the valve being actuatable by an actuator from a first position to a second position to control the delivery of liquid, the system comprising: an actuator accelerometer mounted to the actuator and being adapted to measure an actuator position associated with the actuation of the valve; characterized in that the system further comprises: a reference accelerometer positioned in a fixed position relative to the liquid supply line and being adapted to measure a reference position fixed relative to the liquid supply line; and a computing device operatively connected to the actuator and reference accelerometers (32, 34) for receiving both the actuator and reference positions, the computing device being adapted to determine the status of the valve based on the actuator position, the reference position and calibration data; wherein the actuator position and the reference position are measured simultaneously. an actuator accelerometer mounted to the actuator and being adapted to measure an actuator position associated with the actuation of the valve; characterized in that the system further comprises: a reference accelerometer positioned in a fixed position relative to the liquid supply line and being adapted to measure a reference position fixed relative to the liquid supply line; and a computing device operatively connected to the actuator and reference accelerometers (32, 34) for receiving both the actuator and reference positions, the computing device being adapted to determine the status of the valve based on the actuator position, the reference position and calibration data; wherein the actuator position and the reference position are measured simultaneously.
Pick-to-point system for material picking and transport, which comprises a control system, a printer, a sequenced material list, a scanner, a data memory, a projector and a sequence cart, characterized in that the system comprises a monitor, positions of a picked material which are marked on the monitor to be used by an employee during the picking correspond to the positions of the picked components in the sequence cart, a quantity indicated on the monitor corresponds to the quantity of material to be picked, and a colour identification on the monitor corresponds to the position in the sequence cart at which the material is to be picked.
A vibratory flow meter for determining a viscosity of a flow material, comprising a first flowtube receiving a first portion of a flow material as a first flow and a second flowtube receiving a second portion of the flow material as a second flow, with the vibratory flow meter being characterized by: a common driver that is configured to substantially simultaneously vibrate the first flowtube and the second flowtube; three pickoff sensors configured to generate a first vibrational response from the first flowtube and a second vibrational response from the second flowtube, wherein one of the three pickoff sensors is shared between the first flowtube and the second flowtube; a restrictive orifice located in the first flowtube, with the restrictive orifice being smaller than a local flowtube diameter and with the restrictive orifice ensuring that the first flow is different from the second flow; and meter electronics coupled to the three pickoff sensors and configured to receive the first vibrational response from the first flowtube, receive the second vibrational response from the second flowtube, and determine a viscosity of the flow material from the first vibrational response and the second vibrational response. a common driver that is configured to substantially simultaneously vibrate the first flowtube and the second flowtube; three pickoff sensors configured to generate a first vibrational response from the first flowtube and a second vibrational response from the second flowtube, wherein one of the three pickoff sensors is shared between the first flowtube and the second flowtube; a restrictive orifice located in the first flowtube, with the restrictive orifice being smaller than a local flowtube diameter and with the restrictive orifice ensuring that the first flow is different from the second flow; and meter electronics coupled to the three pickoff sensors and configured to receive the first vibrational response from the first flowtube, receive the second vibrational response from the second flowtube, and determine a viscosity of the flow material from the first vibrational response and the second vibrational response.
Carriage body for a rail vehicle, comprising a vehicle door and a display apparatus, which can be read from outside the carriage body, for passenger information relating to the carriage body, wherein the display apparatus is integrated into the vehicle door, characterized in that the passenger door has a frame profile which encircles a cavity for the display apparatus, and a housing main body of the display apparatus is fastened to the encircling frame profile, with respect to the carriage body, on an inner side.
An aircraft wing tip rotary drive assembly comprising: a wing tip hinge box; a wing body hinge box pivotably coupled to said wing tip hinge box; a rotary actuator positioned within said wing body hinge box; and a linkage mechanism coupled between said rotary actuator and said wing tip hinge box, said linkage mechanism comprising: a first linkage fixedly coupled to said rotary actuator; and a second linkage coupled between said first linkage and said wing tip hinge box, wherein rotation of said rotary actuator causes said wing tip hinge box to rotate relative to said wing body hinge box, and wherein said rotary actuator is configured to rotate about a first axis, and wherein said wing tip hinge box is configured to rotate relative to said wing body hinge box about a second axis that is offset from the first axis; wherein said wing tip hinge box is rotatable between a first position and a second position; and wherein said rotary drive assembly further comprises a pair of fittings coupled to said wing tip hinge box, each fitting having a plurality of holes defined therethrough and configured to receive latch pins that lock said wing tip hinge box in the first position. a wing tip hinge box; a wing body hinge box pivotably coupled to said wing tip hinge box; a rotary actuator positioned within said wing body hinge box; and a linkage mechanism coupled between said rotary actuator and said wing tip hinge box, said linkage mechanism comprising: a first linkage fixedly coupled to said rotary actuator; and a second linkage coupled between said first linkage and said wing tip hinge box, wherein rotation of said rotary actuator causes said wing tip hinge box to rotate relative to said wing body hinge box, and wherein said rotary actuator is configured to rotate about a first axis, and wherein said wing tip hinge box is configured to rotate relative to said wing body hinge box about a second axis that is offset from the first axis; a first linkage fixedly coupled to said rotary actuator; and a second linkage coupled between said first linkage and said wing tip hinge box, wherein rotation of said rotary actuator causes said wing tip hinge box to rotate relative to said wing body hinge box, and wherein said rotary actuator is configured to rotate about a first axis, and wherein said wing tip hinge box is configured to rotate relative to said wing body hinge box about a second axis that is offset from the first axis; wherein said wing tip hinge box is rotatable between a first position and a second position; and wherein said rotary drive assembly further comprises a pair of fittings coupled to said wing tip hinge box, each fitting having a plurality of holes defined therethrough and configured to receive latch pins that lock said wing tip hinge box in the first position.
Receiver, comprising: a receiving unit configured to receive a data packet comprising a pilot sequence; and a synchronization unit configured to correlate the pilot sequence and a reference sequence, in order to obtain a correlation result; wherein the synchronization unit is configured to use a correlation window for detecting the data packet, wherein the data packet is detected by detecting the highest peak of all correlation peaks exceeding a predefined threshold within the correlation window; wherein the correlation window is divided into a plurality of time slots, each time slot having an index associated therewith; wherein if a correlation value above the predefined threshold is detected, the highest peak inside the correlation window is searched, wherein the data packet detection is blocked until the index of the highest correlation peak inside the detection window reaches a defined detection index. a receiving unit configured to receive a data packet comprising a pilot sequence; and a synchronization unit configured to correlate the pilot sequence and a reference sequence, in order to obtain a correlation result; wherein the synchronization unit is configured to use a correlation window for detecting the data packet, wherein the data packet is detected by detecting the highest peak of all correlation peaks exceeding a predefined threshold within the correlation window; wherein the correlation window is divided into a plurality of time slots, each time slot having an index associated therewith; wherein if a correlation value above the predefined threshold is detected, the highest peak inside the correlation window is searched, wherein the data packet detection is blocked until the index of the highest correlation peak inside the detection window reaches a defined detection index.
A sewing machine work analyzing device (100; 200) comprising: a pitch time measuring means for measuring a pitch time, a pitch time frequency distribution calculating means for calculating a pitch time frequency distribution based on the measured pitch time, and an output means, characterized by a work time classifying means for classifying a work time into a regular work time necessary for processing products and an irregular work time based on the calculated pitch time frequency distribution, and the output means is designed for outputting the classified regular work time and irregular work time in an identifiable manner. a pitch time measuring means for measuring a pitch time, a pitch time frequency distribution calculating means for calculating a pitch time frequency distribution based on the measured pitch time, and an output means, characterized by a work time classifying means for classifying a work time into a regular work time necessary for processing products and an irregular work time based on the calculated pitch time frequency distribution, and the output means is designed for outputting the classified regular work time and irregular work time in an identifiable manner.
Runoff safety device, in particular a hand machine tool runoff safety device, for preventing runoff of a chucking element and/or of a tool from a spindle in a braking mode, having at least one transfer unit (18a; 18b), wherein the transfer unit (18a; 18b) comprises a first transfer element (26a; 26b), a second transfer element (72a; 72b) which is movable relative to the first transfer element (26a; 26b), and a movement changing unit (84a; 84b), which movement changing unit is provided for transferring a first relative movement between the first transfer element (26a; 26b) and the second transfer element (72a; 72b) into a second relative movement in the braking mode, characterized by an unbalance compensating unit (20a; 20b) which is provided at least for reducing an unbalance of the transfer unit (18a; 18b) during operation, wherein the unbalance compensating unit (20a, 20b) has at least one unbalance compensating element (22a, 24a; 22b, 24b) which is movably mounted in the first transfer element (26a; 26b) of the transfer unit (18a; 18b).