mhurhangee/ep-ind-claims huggingface dataset:
A multi-piece fastener comprising: a fastening collar comprising: a first collar end; and a second collar end, wherein a collar cavity extends from the first collar end to the second collar end; and a pin configured to be at least partially received by the collar cavity, the pin comprising a first pin end comprising a head portion; a second pin end comprising a pull region, wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank. a fastening collar comprising: a first collar end; and a second collar end, wherein a collar cavity extends from the first collar end to the second collar end; and a first collar end; and a second collar end, wherein a collar cavity extends from the first collar end to the second collar end; and a pin configured to be at least partially received by the collar cavity, the pin comprising a first pin end comprising a head portion; a second pin end comprising a pull region, wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank. a first pin end comprising a head portion; a second pin end comprising a pull region, wherein the pull region is generally cylindrical and smooth and is configured to form at least one of an annular shoulder, a groove, a thread, and other feature thereon responsive to forcible contact from a fastening collar installation apparatus; and a shank extending intermediate the first pin end and the second pin end, wherein the fastening collar is configured to be deformed onto the shank.
Component made of plastic material for a heating, ventilation or air-conditioning device, in particular in the field of motor vehicles, having a wall, this wall is shaped at least partially into staircase steps, and it is characterized in that the thickness of the wall at the steps (4, 5) is between 1 and 1.19 millimetres, the height of each riser (7, 8) being variable from one step to another.
An oxygen concentration device which generates oxygen-enriched gas, comprising: adsorbent cylinders (105; A, B) packed with an adsorbent which preferentially adsorbs nitrogen rather than oxygen; a compressor which supplies compressed air to the adsorbent cylinders (105; A, B); a flow path switching valve for switching between a flow path between the compressor and the adsorbent cylinders (105; A, B) and a flow path between the adsorbent cylinders (105; A, B) and an exhaust pipe for discharging desorbed gas to outside of the system in order to repeat at a fixed timing an adsorption step in which compressed air is supplied to the adsorbent cylinders (105; A, B) and nitrogen in the compressed air is adsorbed to generate unadsorbed oxygen, a desorption step in which the adsorbent cylinders (105; A, B) are purged under reduced pressure to desorb the nitrogen and regenerate the adsorbent, and a pressure equalization step in which an adsorbent cylinder (105; A, B) after completion of the adsorption step and an adsorption cylinder (105; A, B) after completion of the desorption step are connected to each other to equalize pressure of the two cylinders (105; A, B); and a pressure equalization valve provided on a pressure equalization path which connects between the adsorbent cylinders (105; A, B), wherein at both ends of the pressure equalization valve, an orifice structure having a cylindrical member having an orifice plate facing the pressure equalization valve side and a pipe-connecting part is provided, wherein the orifice structures are composed of a combination of the orifice structure at the inlet side of the pressure equalization valve side, wherein the orifice plate at the cylindrical member side has a conically-shaped tapered part with the orifice at concavity, and the orifice structure at the outlet side of the pressure equalization side, wherein the orifice plate at the cylindrical member side has a plane-shaped part.
A sandbox for rail vehicles, of a type comprising a sand container, on the bottom of which there is a hollow body in which are arranged one or several openings through which sand flows out towards an ejector assembly arranged beneath by passing through an outlet hole controlled by an axially sliding vertical shutter located inside said hollow body and means handling and controlling said shutter, said shutter featuring a cylindrical shape, characterized in that said handling and controlling means cause the translation of the shutter between a lower position in which said output hole is closed and an upper, maximum-opening position and in that the lower end of said shutter functionally cooperates with a ring-shaped, sealing coaxial seat, corresponding to said outlet hole of said container.
Magnetic core able to cooperate with at least one electrical conductor in order to form coils, this core extending axially and comprising: - a first axial portion, the cooperation of which with the electrical conductor forms a first coil, and - a second axial portion, axially in the continuation of the first axial portion and the cooperation of which with the electrical conductor forms a second coil, the second axial portion being produced in one piece with the first axial portion, the first coil and the second coil being in particular in series, characterized by at least one cutout being formed in the core in order to allow connection to the electrical conductor, so as to delimit the first coil from the second coil. - a first axial portion, the cooperation of which with the electrical conductor forms a first coil, and - a second axial portion, axially in the continuation of the first axial portion and the cooperation of which with the electrical conductor forms a second coil,
Crescent-shaped diaphragm blade having a carrier device that clamps one crescent end in a planar manner, wherein the carrier device consists of an upper element and a lower element on which two bearing axles (4, 5) that are aligned with one another and are perpendicular to the blade plane are integrally formed.
A muscle electrostimulation device configured to apply electrostimulation to a muscle, wherein the electrostimulation includes repeatedly output multiple burst waves, the burst waves each including a pulse group output period for outputting multiple rectangular wave pulse signals, with an output stop time being inserted between the rectangular wave pulse signals, and a pulse group output suspension period for suspending output of the rectangular wave pulse signals, the pulse group output suspension period being longer than the output stop time, and the repeated burst waves each include at least one rectangular wave pulse signal having positive polarity and at least one rectangular wave pulse signal having negative polarity, the muscle electrostimulation device comprising: a main body; an electrode unit for outputting the electrostimulation; a power source for supplying power to the electrode unit, the power source being embedded in the main body; a controller for controlling power supply by the power source; and an operation unit configured to be capable of changing a control mode of the controller, wherein the electrode unit includes multiple electrodes (311-313, 321-323) and leads for electrically connecting the electrodes to the power source via the controller, and the electrodes and the leads are formed on a sheet-shaped substrate extending from the main body. a main body; an electrode unit for outputting the electrostimulation; a power source for supplying power to the electrode unit, the power source being embedded in the main body; a controller for controlling power supply by the power source; and an operation unit configured to be capable of changing a control mode of the controller, wherein the electrode unit includes multiple electrodes (311-313, 321-323) and leads for electrically connecting the electrodes to the power source via the controller, and the electrodes and the leads are formed on a sheet-shaped substrate extending from the main body.
An anti-IL-1α antibody for use in stabilizing a tumor-associated progressive cancer in a human patient, wherein the cancer has progressed after treatment with chemotherapy, radiotherapy, or biologic agents and, wherein the anti-IL-la antibody is repeatedly administered to the subject at least until the progression of the cancer has been stabilized.
A communication method of a transmitting device receiving a first precoder matrix index and a second precoder matrix index, the method comprising: determining first information to restrict the selection of a first precoding matrix index and second information to restrict a selection of a second precoding matrix index from at least one codebook; and transmitting, to a receiving device, codebook restricting information, wherein the codebook restricting information includes at least one of the first information that restricts a precoding matrix from being used as a first precoding matrix and the second information that restricts a precoding matrix from being used as a second precoding matrix in the at least one codebook for each layer. determining first information to restrict the selection of a first precoding matrix index and second information to restrict a selection of a second precoding matrix index from at least one codebook; and transmitting, to a receiving device, codebook restricting information, wherein the codebook restricting information includes at least one of the first information that restricts a precoding matrix from being used as a first precoding matrix and the second information that restricts a precoding matrix from being used as a second precoding matrix in the at least one codebook for each layer.
A communication system comprising an information processor (1, 10), a communication control unit for controlling the communication of the information processor, and a server (6, 60), wherein the information processor (1, 10) is characterized by: a bubble packet transmitter for transmitting via the communication control unit a bubble packet for leaving transmission record in the communication control unit; and a detection packet transmitter for transmitting to the server (6, 60) a port detection packet used for detecting the position of a bubble packet transmitting port that is a port of the communication control unit, which is used in transmission of the bubble packet. a bubble packet transmitter for transmitting via the communication control unit a bubble packet for leaving transmission record in the communication control unit; and a detection packet transmitter for transmitting to the server (6, 60) a port detection packet used for detecting the position of a bubble packet transmitting port that is a port of the communication control unit, which is used in transmission of the bubble packet.
Method for predicting maintenance operations on a current aircraft engine, characterised in that it comprises the following steps: - initialisation of input data comprising a model of said engine and a set of parameters (P1,...,Pi) and workscope decision rules on said engine; - compare a set of failure models (M1,...,Mn) adapted to said current engine to select a relevant failure model (Mi) with a failure age (T 0) defining the age of said engine at the time of the failure; - associate the decision rules about the workscope on said current engine with said relevant failure model (Mi) as a function of said set of parameters (P1,...Pi) related to said current engine; and - determine the required maintenance workscope (Wf) to be done on said current engine as a function of said decision rules. - initialisation of input data comprising a model of said engine and a set of parameters (P1,...,Pi) and workscope decision rules on said engine; - compare a set of failure models (M1,...,Mn) adapted to said current engine to select a relevant failure model (Mi) with a failure age (T 0) defining the age of said engine at the time of the failure; - associate the decision rules about the workscope on said current engine with said relevant failure model (Mi) as a function of said set of parameters (P1,...Pi) related to said current engine; and - determine the required maintenance workscope (Wf) to be done on said current engine as a function of said decision rules.
LED housing having a housing cavity, a carrier element, at least one LED chip, at least one retaining element and at least one housing terminal element, wherein: - the carrier element and the at least one LED chip are arranged inside the housing cavity in the LED housing, - the LED chip is arranged on a first, upper side of the carrier element and the LED housing is shaped in such a way that: - the at least one housing terminal element is arranged on an outer side of the LED housing and comprises an electrical connection to the at least one LED chip for operating this LED chip and - the LED housing may be connected mechanically detachably to a second LED housing of like construction, characterized in that - the LED housing may be mechanically connected mechanically detachably with a carrier by means of the at least one retaining element, wherein - the retaining element is a hole introduced into the LED housing, through which a mechanical connecting element is guided. - the carrier element and the at least one LED chip are arranged inside the housing cavity in the LED housing, - the LED chip is arranged on a first, upper side of the carrier element and the LED housing is shaped in such a way that: - the at least one housing terminal element is arranged on an outer side of the LED housing and comprises an electrical connection to the at least one LED chip for operating this LED chip and - the LED housing may be connected mechanically detachably to a second LED housing of like construction, characterized in that - the LED housing may be mechanically connected mechanically detachably with a carrier by means of the at least one retaining element, wherein - the retaining element is a hole introduced into the LED housing, through which a mechanical connecting element is guided.
Anionic dispersion polymerization process, wherein the polymerization is improved by using an organic isothiocyanate as a polymerization reaction controlling agent comprising an alkyl isothiocyanate.
Ironing board comprising a frame supporting a table and at least two legs (3, 4) connected to said frame, one of the legs (3, 4) comprising an upper end pivotally mounted to a rear end of the frame, the other leg comprising an upper end slidably mounted on said frame, the two legs (3, 4) being connected to each other by a pivot connection half way along their length and being movable between a storage position in which the legs (3, 4) are arranged substantially parallel to the table and a working position in which the legs (3, 4) are arranged in an X configuration, one of the legs, called the first leg, being divided into two parts (31, 32) connected to each other by a hinge, the other leg, called the second leg, being in one piece, characterised in that said hinge allows, when the legs are in storage position, pivoting of a lower segment of the first leg from an unfolded position, in which said lower segment is arranged in the extension of an upper segment of the first leg, to a folded position in which the lower segment is folded over the upper segment, and in that the lower end of the second leg reaches the rear end of the frame when the first and second legs (3, 4) are in storage position.
A computer-implemented method for transmitting and receiving data via a radio signal, the method comprising: transmitting, from a first interrogator element, a first interrogation request to a first tag element (110-1, 110-2) via a first communication link (122-1, 122-2) implementing a first communication protocol, the first communication protocol being an RFID communication protocol; receiving, at the first interrogator element, a first interrogation reply from the first tag element via the first communication link; receiving, at the first interrogator element, a second interrogation request from a second interrogator element via a second communication link implementing a second communication protocol, the second communication protocol being a communication protocol other than the RFID communication protocol; and transmitting, from the first interrogator element, a second interrogation reply to the second interrogator element in response to the second interrogation request, the second interrogation reply being transmitted using the second communication protocol via said second communication link. transmitting, from a first interrogator element, a first interrogation request to a first tag element (110-1, 110-2) via a first communication link (122-1, 122-2) implementing a first communication protocol, the first communication protocol being an RFID communication protocol; receiving, at the first interrogator element, a first interrogation reply from the first tag element via the first communication link; receiving, at the first interrogator element, a second interrogation request from a second interrogator element via a second communication link implementing a second communication protocol, the second communication protocol being a communication protocol other than the RFID communication protocol; and transmitting, from the first interrogator element, a second interrogation reply to the second interrogator element in response to the second interrogation request, the second interrogation reply being transmitted using the second communication protocol via said second communication link.
An optical cross apparatus, comprising: a single-row fiber array and a single-row input multidimensional output optical waveguide element, wherein the single-row fiber array is coupled to the single-row input multidimensional output optical waveguide element, and an arbitrarily curved spatial three-dimensional waveguide is provided inside the single-row input multidimensional output optical waveguide element, wherein a coupling surface of the single-row fiber array is the same as that of the single-row input multidimensional output optical waveguide element; wherein a microlens is formed on a surface of each light outlet of the single-row input multidimensional output optical waveguide element by femtosecond laser processing such that there is no gap between the light outlet of the single-row input multidimensional output optical waveguide element and the microlens, and the microlens is configured to perform beam shaping. a single-row fiber array and a single-row input multidimensional output optical waveguide element, wherein the single-row fiber array is coupled to the single-row input multidimensional output optical waveguide element, and an arbitrarily curved spatial three-dimensional waveguide is provided inside the single-row input multidimensional output optical waveguide element, wherein a coupling surface of the single-row fiber array is the same as that of the single-row input multidimensional output optical waveguide element; wherein a microlens is formed on a surface of each light outlet of the single-row input multidimensional output optical waveguide element by femtosecond laser processing such that there is no gap between the light outlet of the single-row input multidimensional output optical waveguide element and the microlens, and the microlens is configured to perform beam shaping.
A method, comprising: receiving by a mobile station from a network element, a shaping filter switch signal comprising characteristics of a transmitter filter to support an uplink signal for receiving said uplink signal by said network element from said mobile station, wherein said shaping filter switch signal is indicative of whether or not said network element comprises legacy receiver hardware; and providing said transmitter filter with said characteristics by said mobile station. receiving by a mobile station from a network element, a shaping filter switch signal comprising characteristics of a transmitter filter to support an uplink signal for receiving said uplink signal by said network element from said mobile station, wherein said shaping filter switch signal is indicative of whether or not said network element comprises legacy receiver hardware; and providing said transmitter filter with said characteristics by said mobile station.
An assembly for producing a threaded connection, comprising a first and a second tubular component with an axis of revolution and each respectively provided at one of their ends (20, 30) with at least a first (21, 31) and a second (22, 32) continuous threaded zone, respectively produced on the outer or inner circumferential surface of the component depending on whether the threaded end is male or female in type, in the form of a first and a second helix each provided with a first and a second taper generatrix, the first threaded zones (21, 31) produced in accordance with the first helix being capable of cooperating together in makeup and the second threaded zones (22, 32) produced in accordance with the second helix being capable of cooperating together in makeup, each of the threaded zones (21, 22, 31, 32) defining a thread profile, viewed in a longitudinal section passing through the axis of revolution, provided with load flanks (21a, 22a, 31a, 32a), stabbing flanks (21b, 22b, 31b, 32b), thread crests (21c, 22c, 31c, 32c), and thread roots (21d, 22d, 31d, 32d), characterized in that • the height of the threads of the first threaded zones (21, 31) and the height of the threads of the second threaded zones (22, 32) are each in the range 1 mm to 2.5 mm, and • the angle of the load flanks (LFA1, LFA2) of the first and second threaded zones with the normal to the axis of revolution is in the range 1 to 20 degrees, and • the angle of the stabbing flanks (SFA1, SFA2) of the first and second threaded zones with the normal to the axis of revolution is in the range 3 to 25 degrees. • the height of the threads of the first threaded zones (21, 31) and the height of the threads of the second threaded zones (22, 32) are each in the range 1 mm to 2.5 mm, and • the angle of the load flanks (LFA1, LFA2) of the first and second threaded zones with the normal to the axis of revolution is in the range 1 to 20 degrees, and • the angle of the stabbing flanks (SFA1, SFA2) of the first and second threaded zones with the normal to the axis of revolution is in the range 3 to 25 degrees.