mhurhangee/ep-ind-claims huggingface dataset:
A gear machining method, comprising: providing a gear machining apparatus comprising a machining tool having a rotational axis tilted with respect to a rotational axis of a workpiece, wherein: the gear machining apparatus feeds the machining tool in a direction of the rotational axis of the workpiece while causing the machining tool and the workpiece to rotate in synchronization with each other to machine a gear; and each of pitches (Pb) between tool blades of the machining tool is an integer multiple of a pitch between teeth (g) of the gear; the integer multiple being equal to or larger than double, characterized in that a greatest common divisor between the number of tool blades of a virtual machining tool having the same pitch as the pitch between the teeth (g) of the gear and the number of the teeth (g) of the gear is set to an integer that is larger than one; and the machining tool used for actual cutting has a shape obtained by thinning out the tool blades of the virtual machining tool such that each of the pitches (Pb) between the tool blades of the machining tool is an integer multiple of the pitch between the teeth (g) of the gear, the integer multiple being equal to or larger than double. the gear machining apparatus feeds the machining tool in a direction of the rotational axis of the workpiece while causing the machining tool and the workpiece to rotate in synchronization with each other to machine a gear; and each of pitches (Pb) between tool blades of the machining tool is an integer multiple of a pitch between teeth (g) of the gear; the integer multiple being equal to or larger than double, characterized in that a greatest common divisor between the number of tool blades of a virtual machining tool having the same pitch as the pitch between the teeth (g) of the gear and the number of the teeth (g) of the gear is set to an integer that is larger than one; and the machining tool used for actual cutting has a shape obtained by thinning out the tool blades of the virtual machining tool such that each of the pitches (Pb) between the tool blades of the machining tool is an integer multiple of the pitch between the teeth (g) of the gear, the integer multiple being equal to or larger than double.
An outdoor unit of an air conditioner, comprising: a heat exchanger in which outdoor air is heat-exchanged with a refrigerant; a fan through which the outdoor air forcedly flows; a motor for driving the fan; a motor fixing part for fixing the motor; a base pan to which the motor fixing part is coupled to a top surface thereof, characterised in that the outdoor unit further comprises: a guide part and a receiving hole (355, 565) for guiding the motor fixing part such that the motor fixing part is seated in position, a coupling part for coupling the motor fixing part provided on a motor fixing seat; and a receiving part for receiving the coupling part of the base pan provided on the lower end portion of the motor fixing part, wherein the guide part and receiving hole (363, 565) comprises: a protrusion disposed on one of the base pan and a lower end portion of the motor fixing part; and a hole defined in the other of the base pan and the lower end portion of the motor fixing part. a heat exchanger in which outdoor air is heat-exchanged with a refrigerant; a fan through which the outdoor air forcedly flows; a motor for driving the fan; a motor fixing part for fixing the motor; a base pan to which the motor fixing part is coupled to a top surface thereof, a guide part and a receiving hole (355, 565) for guiding the motor fixing part such that the motor fixing part is seated in position, a coupling part for coupling the motor fixing part provided on a motor fixing seat; and a receiving part for receiving the coupling part of the base pan provided on the lower end portion of the motor fixing part, a protrusion disposed on one of the base pan and a lower end portion of the motor fixing part; and a hole defined in the other of the base pan and the lower end portion of the motor fixing part.
A fusion protein comprising an anti enterotoxigenic Escherichia coli (ETEC) VHH fused to an IgA Fc domain, wherein said fusion protein inhibits adhesion of ETEC to gut villous enterocytes.
Bottom fairing (5a, 5b) configured to equip a motor vehicle underbody, the bottom fairing (5a, 5b) being of generally planar extension in a longitudinal direction and a transverse direction, the bottom fairing (5a, 5b) comprising side walls of vertical extension arranged respectively at least in part along the lateral edges of the fairing (5a, 5b), said side walls extending longitudinally at the transverse ends of the fairing (5a, 5b), each of said side walls being provided with at least one reinforcement which extends at least in part vertically and at least in part along the side wall, characterized in that the reinforcement comprises a cellular structure extending from the side wall towards the interior volume delimited by the fairing (5a, 5b).
An operation-sound generator having a buzzer outputting an operation-sound synchronized with a blinking of a direction indicator lamp (11, 12) or a hazard lamp comprising: a pulse supply device supplying a plurality of first pulse sequences to the buzzer at intervals during a single lighting period of turning on the direction indicator lamp or the hazard lamp or a single non-lighting period of turning off the direction indicator lamp or the hazard lamp, each of the first pulse sequences having a pulse number differing from each other, a same pulse width, and a same duty, wherein the number of pulses of each of the first pulse sequences is set so that the output of each of the first pulse sequences is finished before stationary vibration of the buzzer is performed, and wherein after the output of the first pulse sequence is finished, the pulse supply device starts the output of next the first pulse sequence before the vibration of the buzzer is stopped. a pulse supply device supplying a plurality of first pulse sequences to the buzzer at intervals during a single lighting period of turning on the direction indicator lamp or the hazard lamp or a single non-lighting period of turning off the direction indicator lamp or the hazard lamp, each of the first pulse sequences having a pulse number differing from each other, a same pulse width, and a same duty, wherein the number of pulses of each of the first pulse sequences is set so that the output of each of the first pulse sequences is finished before stationary vibration of the buzzer is performed, and wherein after the output of the first pulse sequence is finished, the pulse supply device starts the output of next the first pulse sequence before the vibration of the buzzer is stopped.
A ring for fastening a pipe to a tubular body, the ring being characterized in that it comprises two rigid sectors that are hinged to each other via at least one elastically deformable annular portion, both sectors and the portion being made as a single part, each sector having an inside face from which there projects radially at least one anchor pad that is designed to be received in a housing formed in corresponding manner in a wall of the pipe, each anchor pad including two grooves extending circumferentially on either side of said anchor pad.
A multi-layer cushion support, comprising: a first support having a first contact surface for contacting a portion of a body and a second surface opposite to the first surface, the first support defining a central chamber and a peripheral chamber surrounding the central chamber, wherein the first support is filled with a first gas or liquid; and, a second support attached to the first support along the first contact surface, the second support defining a secondary chamber, wherein the second support is filled with a second gas or liquid which is relatively more viscous than the first gas or liquid; wherein the second support is sized to have a volume which is less than a volume in the first support; wherein the first support is comprised of a third layer and a second layer attached to one another along a periphery, wherein the first support further comprises a first plurality of barriers formed between the central chamber and the peripheral chamber by the attachment to one another of portions of the third and second layers (54, 52), and wherein the central chamber and the peripheral chamber are in fluid communication with one another via one or more passageways defined between the first plurality of barriers; and wherein the second support is comprised of a first layer attached to the second layer and wherein the second support further comprises a second plurality of barriers formed between the second and first layers (52, 50) to at least partially divide the secondary chamber into a plurality of sub-chambers which are fluidly connected to one another via fluid passageways. a first support having a first contact surface for contacting a portion of a body and a second surface opposite to the first surface, the first support defining a central chamber and a peripheral chamber surrounding the central chamber, wherein the first support is filled with a first gas or liquid; and, a second support attached to the first support along the first contact surface, the second support defining a secondary chamber, wherein the second support is filled with a second gas or liquid which is relatively more viscous than the first gas or liquid; wherein the second support is sized to have a volume which is less than a volume in the first support; wherein the first support is comprised of a third layer and a second layer attached to one another along a periphery, wherein the first support further comprises a first plurality of barriers formed between the central chamber and the peripheral chamber by the attachment to one another of portions of the third and second layers (54, 52), and wherein the central chamber and the peripheral chamber are in fluid communication with one another via one or more passageways defined between the first plurality of barriers; and wherein the second support is comprised of a first layer attached to the second layer and wherein the second support further comprises a second plurality of barriers formed between the second and first layers (52, 50) to at least partially divide the secondary chamber into a plurality of sub-chambers which are fluidly connected to one another via fluid passageways.
Position measurement device comprising at least a first scale and at least a second scale (2, 2.1), which are arranged in series in order to increase the measurement range, and comprising a scanning device comprising a light source for emitting a light beam, wherein the first scale has a reflective phase grid comprising first periodic marks, which diffract an incident light beam with a first diffraction efficiency into a predetermined diffraction order, characterized in that the second scale (2, 2.1) has a reflective phase grid comprising second periodic marks (20, 20.1), the shape of which differs from the first periodic marks, and that the reflectivity of the phase grid of the second scale (2, 2.1) is reduced as compared to the phase grid of the first scale in such a way that it diffracts the incident light beam into the predetermined diffraction order with the first diffraction efficiency.
An interlayer film for a laminated glass (5, 6, 7) having a large number of recesses on at least one surface, the interlayer film for a laminated glass having a thickness T (μm) measured in conformity with JIS K-6732 and a maximum height roughness Ry (μm) measured in conformity with JIS B-0601 at a thickest portion, the thickness T and the maximum height roughness Ry satisfying the following expressions and: Ry ≤ 0.0195 × T + 33.2 T ≥ 850 characterized in that the recesses each have a groove shape with a continuous bottom, and the recesses adjacent to each other are regularly formed in parallel to each other.
A catheter (600, 700, 800) adapted to map a chamber of a heart comprising: a catheter body configured to form a plurality of non-overlapping loops; an electrode assembly embedded in the catheter body, wherein the electrode assembly comprises a plurality of electrodes (A1-D5) arranged along the catheter body, wherein the electrode assembly is configured to detect a wave front and generate an activation sequence to determine a direction of an activation source; and characterised in that the plurality of non-overlapping loops comprises three or more loops; and a distance between consecutive electrodes on a loop of the plurality of non-overlapping loops is greater than a distance between consecutive electrodes on a next inner loop of the plurality of non-overlapping loops such that the plurality of electrodes forms a plurality of rows (A-D), wherein each of the plurality of rows (A-D) is formed by electrodes located on each of the plurality of non-overlapping loops, and wherein each of the plurality of rows (A-D) is configured with a respective plurality of electrodes that are substantially directly aligned. a catheter body configured to form a plurality of non-overlapping loops; an electrode assembly embedded in the catheter body, wherein the electrode assembly comprises a plurality of electrodes (A1-D5) arranged along the catheter body, wherein the electrode assembly is configured to detect a wave front and generate an activation sequence to determine a direction of an activation source; and characterised in that the plurality of non-overlapping loops comprises three or more loops; and a distance between consecutive electrodes on a loop of the plurality of non-overlapping loops is greater than a distance between consecutive electrodes on a next inner loop of the plurality of non-overlapping loops such that the plurality of electrodes forms a plurality of rows (A-D), wherein each of the plurality of rows (A-D) is formed by electrodes located on each of the plurality of non-overlapping loops, and wherein each of the plurality of rows (A-D) is configured with a respective plurality of electrodes that are substantially directly aligned.
A slider comprising: a slider body comprising an upper vane, a lower vane, and a guide post connecting the upper vane and the lower vane; and a pull tab connected to the slider body, wherein the upper vane is provided with a pair of lateral walls (322A, 322B) projecting from an upper surface of the upper vane in a thickness direction of the slider body in which the upper vane and the lower vane are opposed, a connection bearing for a connecting pin supported by the pair of lateral walls (322A, 322B) to be inserted is provided to the pull tab, the upper vane is provided with a recess dented toward the lower vane in the thickness direction of the slider body with respect to the upper surface, or a hole penetrating from the upper surface through the upper vane, and the connection bearing is located in the recess or the hole between the pair of lateral walls (322A, 322B), wherein a shaft hole for the connecting pin to be inserted is provided to each of the pair of lateral walls (322A, 322B), and characterized in that at least a part of the shaft hole is located below the upper surface of the upper vane. a slider body comprising an upper vane, a lower vane, and a guide post connecting the upper vane and the lower vane; and a pull tab connected to the slider body, wherein the upper vane is provided with a pair of lateral walls (322A, 322B) projecting from an upper surface of the upper vane in a thickness direction of the slider body in which the upper vane and the lower vane are opposed, a connection bearing for a connecting pin supported by the pair of lateral walls (322A, 322B) to be inserted is provided to the pull tab, the upper vane is provided with a recess dented toward the lower vane in the thickness direction of the slider body with respect to the upper surface, or a hole penetrating from the upper surface through the upper vane, and the connection bearing is located in the recess or the hole between the pair of lateral walls (322A, 322B), wherein a shaft hole for the connecting pin to be inserted is provided to each of the pair of lateral walls (322A, 322B), and characterized in that at least a part of the shaft hole is located below the upper surface of the upper vane.
A gripper system having a gripper device (16; 30; 56; 90; 120) designed so as to be movable along a movement path and serving for gripping and holding a workpiece and for moving the workpiece along the movement path, and having magnetic field generating means (52, 80, 86, 88) being static at one position of the movement path and/or provided so as to be movable independently of the gripper device, wherein the gripper device has at least one first contact section (18; 38; 66) which can be driven relative to a second contact section (20; 40; 68) to produce an operative pairing with the workpiece that effects the gripping or holding action, which first contact section is assigned actuator means (22; 44; 54; 128) which are designed to magnetically interact with the magnetic field generating means so that they exert a drive force in reaction to an application of a magnetic field by the magnetic field generating means, characterized in that the actuator means are made of a magnetic shape-memory alloy material.
A package of a microelectromechanical system (MEMS) microphone, comprising: a cover having an inner surface and a conductive trace disposed on the inner surface, wherein the cover has a top wall and a sidewall located around the top wall and substantially surrounds the top wall; at least one MEMS microphone mounted on the inner surface of the cover and electrically connected with the conductive trace, wherein the MEMS microphone has an acoustic pressure receiving surface; a printed circuit board; wherein the cover is assembled to the printed circuit board; and the cover and the printed circuit board construct an acoustic housing having at least one acoustic hole passing through the cover; and, at least one IC chip mounted on the inner surface of the cover, electrically connected with the conductive trace and located in the acoustic housing; characterized in that the printed circuit board forms a bottom of the acoustic housing; and the conductive trace extends from the top wall along the sidewall and is electrically connected to the printed circuit board. a cover having an inner surface and a conductive trace disposed on the inner surface, wherein the cover has a top wall and a sidewall located around the top wall and substantially surrounds the top wall; at least one MEMS microphone mounted on the inner surface of the cover and electrically connected with the conductive trace, wherein the MEMS microphone has an acoustic pressure receiving surface; a printed circuit board; wherein the cover is assembled to the printed circuit board; and the cover and the printed circuit board construct an acoustic housing having at least one acoustic hole passing through the cover; and, at least one IC chip mounted on the inner surface of the cover, electrically connected with the conductive trace and located in the acoustic housing; characterized in that
A non-transitory, machine-accessible storage medium having computer instructions and wherein the instructions are configured, when executed by a computerized controller of a fuel metering valve coupled to a first position sensor and a second position sensor having respectively a first resistor and a second resistor, to cause the controller to: measure a first resistance of the first resistor associated with the first position sensor; based upon the measured first resistance, select a first delta curve, the first delta curve describing differences between a nominal fuel valve position and a first measured fuel valve position associated with the first position sensor; measure a second resistance of the second resistor associated with the second position sensor; based upon the measured second resistance, select a second delta curve, the second delta curve describing differences between the nominal fuel valve position and a second measured fuel valve position associated with the second position sensor; receive a first fuel valve position from the first position sensor, and apply the first FVP to the first delta curve to obtain a first compensated FVP; receive a second FVP from the second position sensor, and apply the second FVP to the second delta curve to obtain a second compensated FVP; correlate the first compensated FVP and the second compensated FVP to obtain a final compensated FVP; apply the final compensated FVP to a desired fuel valve position to obtain a final fuel valve position and apply the final fuel valve position to a fuel valve to control an operation of the fuel valve. measure a first resistance of the first resistor associated with the first position sensor; based upon the measured first resistance, select a first delta curve, the first delta curve describing differences between a nominal fuel valve position and a first measured fuel valve position associated with the first position sensor; measure a second resistance of the second resistor associated with the second position sensor; based upon the measured second resistance, select a second delta curve, the second delta curve describing differences between the nominal fuel valve position and a second measured fuel valve position associated with the second position sensor; receive a first fuel valve position from the first position sensor, and apply the first FVP to the first delta curve to obtain a first compensated FVP; receive a second FVP from the second position sensor, and apply the second FVP to the second delta curve to obtain a second compensated FVP; correlate the first compensated FVP and the second compensated FVP to obtain a final compensated FVP; apply the final compensated FVP to a desired fuel valve position to obtain a final fuel valve position and apply the final fuel valve position to a fuel valve to control an operation of the fuel valve.
Method for extracting a target nucleic acid from a sample fluid, comprising the steps of: - providing a heating device having a heating element in contact with the sample liquid, wherein the heating element is conjugated with at least one functional nucleic acid and wherein the at least one functional nucleic acid is designed to hybridize with the target nucleic acid and to bind the target nucleic acid to the heating element; - generating a relative movement between the heating element and the sample liquid; - extracting the target nucleic acid from the sample liquid by separating the heating element from the sample liquid. - providing a heating device having a heating element in contact with the sample liquid, wherein the heating element is conjugated with at least one functional nucleic acid and wherein the at least one functional nucleic acid is designed to hybridize with the target nucleic acid and to bind the target nucleic acid to the heating element; - generating a relative movement between the heating element and the sample liquid; - extracting the target nucleic acid from the sample liquid by separating the heating element from the sample liquid.