mhurhangee/ep-ind-claims huggingface dataset:
Relaxation space, particularly smoking room, of the type comprising air renewing means provided with supply means and suction means, said renewing means consisting of holes distributed over the whole of the floor and the ceiling thereof, characterized in that the holes at least in the floor consist of at least two portions, namely a downstream portion opening into said relaxation space and an upstream portion of larger section than the downstream portion opening onto the other side of the floor.
A door hinge assembly, comprising: a door frame defining a frame opening and a jamb at one side of the frame opening, the jamb including two frame corners (12a, 12b) protruding into the frame opening and a jamb brace connecting the two frame corners across the frame opening, the jamb brace defining two spaced-apart hinge holes (16a, 16b) therethrough; a door movable to selectively provide access through the frame opening, the door comprising two broad side surfaces (28a,28b) connected by door edges (32a,32b,32c) including a jamb edge, the door defining: two corner recesses (6a,6b) configured to receive the two protruding frame corners of the jamb; and two hinge passages (8a,8b), each hinge passage extending from the jamb edge to a respective passage opening (4a,4b) at one of the broad side surfaces of the door; and an elastic cord connecting the door to the door frame, the cord extending sequentially through a first of the two hinge passages, through a first of two passage openings at the jamb edge, through a first of the two hinge holes, across the jamb brace, through a second of the two hinge holes, through a second of the two passage openings at the jamb edge, and through the second of the two hinge passages. a door frame defining a frame opening and a jamb at one side of the frame opening, the jamb including two frame corners (12a, 12b) protruding into the frame opening and a jamb brace connecting the two frame corners across the frame opening, the jamb brace defining two spaced-apart hinge holes (16a, 16b) therethrough; a door movable to selectively provide access through the frame opening, the door comprising two broad side surfaces (28a,28b) connected by door edges (32a,32b,32c) including a jamb edge, the door defining: two corner recesses (6a,6b) configured to receive the two protruding frame corners of the jamb; and two hinge passages (8a,8b), each hinge passage extending from the jamb edge to a respective passage opening (4a,4b) at one of the broad side surfaces of the door; and two corner recesses (6a,6b) configured to receive the two protruding frame corners of the jamb; and two hinge passages (8a,8b), each hinge passage extending from the jamb edge to a respective passage opening (4a,4b) at one of the broad side surfaces of the door; and an elastic cord connecting the door to the door frame, the cord extending sequentially through a first of the two hinge passages, through a first of two passage openings at the jamb edge, through a first of the two hinge holes, across the jamb brace, through a second of the two hinge holes, through a second of the two passage openings at the jamb edge, and through the second of the two hinge passages.
Method for predicting an end temperature of a temperature change for temperature surveillance purposes, the method comprising the steps of: - inputting at least one measured temperature value into a first temperature prediction model, wherein the at least one measurement value is acquired by a temperature sensor, - calculating a first predicted temperature based on the first temperature prediction model, characterized by the steps of - inputting the at least one measured temperature value into a second temperature prediction model, - calculating a second predicted temperature based on the second temperature prediction model, and - calculating a final predicted temperature from the first predicted temperature and the second predicted temperature. - inputting at least one measured temperature value into a first temperature prediction model, wherein the at least one measurement value is acquired by a temperature sensor, - calculating a first predicted temperature based on the first temperature prediction model, characterized by the steps of - inputting the at least one measured temperature value into a second temperature prediction model, - calculating a second predicted temperature based on the second temperature prediction model, and - calculating a final predicted temperature from the first predicted temperature and the second predicted temperature.
An electronic device, comprising: a signal line; a first insulation layer, disposed on the signal line; and a second insulation layer, disposed on the first insulation layer; wherein the first insulation layer comprises a first hole, the first hole overlaps a part of the signal line, the second insulation layer comprises a second hole, and the first hole and the second hole at least partially overlap; characterised in that a width of the second hole is less than a width of the first hole. a signal line; a first insulation layer, disposed on the signal line; and a second insulation layer, disposed on the first insulation layer; wherein the first insulation layer comprises a first hole, the first hole overlaps a part of the signal line, the second insulation layer comprises a second hole, and the first hole and the second hole at least partially overlap; characterised in that a width of the second hole is less than a width of the first hole.
A system for detecting an abnormality of rotating machines, the system comprising two or more devices for detecting an abnormality of two or more rotating machines to which the devices are allocated respectively, and a computer, wherein the respective two or more devices for detecting an abnormality each comprise a sensor for detecting vibration of a rotating machine to which the sensor is allocated and generating a signal indicative of the detected vibration, and a transmitting unit for transmitting, to the computer, the signals generated by the sensor, and wherein the computer comprises a sampler adapted for sampling and detecting, with a predetermined sampling frequency, the signals that are transmitted by the transmitting unit of the respective two or more devices for detecting an abnormality and that are indicative of the vibration and outputting, at a time at intervals of a predetermined period, a plurality of the sampled data detected within the predetermined period, a storage (21, 22) for storing the plurality of the sampled data that are outputted by the sampler and that correspond to the respective two or more rotating machines, a frequency analyzer for analyzing frequencies of the plurality of the sampled data that are outputted by the sampler and that correspond to the respective two or more rotating machines, an abnormality determination unit for determining whether the respective two or more rotating machines have an abnormality based on the results of the frequency analysis by the frequency analyzer, the results corresponding to the respective two or more rotating machines, characterized by an image generating unit for generating image data showing the two dimensional results, in the frequency dimension and the amplitude dimension, of the frequency analysis at the most current time point and previous time points in chronological order, and a display unit adapted for displaying, in chronological order and in real time, an image according to the image data generated by the image generating unit showing the results of the frequency analysis, the results corresponding to the respective two or more rotating machines, and displaying the results of the determination, wherein the frequency analyzer is adapted to initiate the frequency analysis when the frequency analyzer has received the plurality of the sampled data from the detecting unit, and wherein the analysis period from the initiation of the frequency analysis to the end of the frequency analysis is shorter than the predetermined period.
A method for controlling a mineral material processing plant, comprising controlling the functioning of actuators of the mineral material processing plant with rotating speed of a motor or motors, wherein the actuators comprise a crusher, a feeder and a conveyor; automatically recognizing a need to switch off a standby mode, in which standby mode actuators directly in touch with mineral material processing of the mineral material processing plant remain running at a reduced stand-by speed and the feeding of the material into the mineral material processing plant is prevented by stopping the feeder or feed conveyor or by choosing a stand-by speed in such a way that the feeder or feed conveyor is unable to feed material into the crushing plant; in response to the recognized need to switch off the standby mode raising the running speed of the motor or motors of the mineral material processing plant from a stand-by speed (Rsb) to a process speed (Rf); and enabling the feeding of mineral material into the processing plant after the process speed (Rf) is reached; characterized in that the need to switch off the stand-by mode is recognized by recognizing mineral material arriving to be processed by recognizing the proximity to the feeder of the mineral material processing plant of a machine or of a part of the machine used to bring the mineral material by reading an identifier positioned in the machine or in the part of the machine. controlling the functioning of actuators of the mineral material processing plant with rotating speed of a motor or motors, wherein the actuators comprise a crusher, a feeder and a conveyor; automatically recognizing a need to switch off a standby mode, in which standby mode actuators directly in touch with mineral material processing of the mineral material processing plant remain running at a reduced stand-by speed and the feeding of the material into the mineral material processing plant is prevented by stopping the feeder or feed conveyor or by choosing a stand-by speed in such a way that the feeder or feed conveyor is unable to feed material into the crushing plant; in response to the recognized need to switch off the standby mode raising the running speed of the motor or motors of the mineral material processing plant from a stand-by speed (Rsb) to a process speed (Rf); and enabling the feeding of mineral material into the processing plant after the process speed (Rf) is reached; characterized in that the need to switch off the stand-by mode is recognized by recognizing mineral material arriving to be processed by recognizing the proximity to the feeder of the mineral material processing plant of a machine or of a part of the machine used to bring the mineral material by reading an identifier positioned in the machine or in the part of the machine.
A cut, slash and/or abrasion resistant garment selected from the group consisting of shirts, sweaters, vests, undergarments, pants, jumpsuits, dickeys, and head coverings and made from one or more shaped knit fabric panels, said one or more shaped knit fabric panels comprising at least one cut, slash and/or abrasion resistant yarn, characterized in that: said at least one cut, slash and/or abrasion resistant yarn comprising a member selected from a high performance yarn or a yarn blend comprising one or more high performance yarns, wherein the high performance yarn is selected from extended chain polyethylene, aramids, and liquid crystalline polyesters, such that said or each shaped knit fabric panel has a cut resistance of at least 500 (as measured by ASTM-F1790-04) and a fabric weight of no more than 915.45 g/m 2 (27.9 ounces/square yard (OPSY)). said at least one cut, slash and/or abrasion resistant yarn comprising a member selected from a high performance yarn or a yarn blend comprising one or more high performance yarns, wherein the high performance yarn is selected from extended chain polyethylene, aramids, and liquid crystalline polyesters, such that said or each shaped knit fabric panel has a cut resistance of at least 500 (as measured by ASTM-F1790-04) and a fabric weight of no more than 915.45 g/m 2 (27.9 ounces/square yard (OPSY)).
Use of a feed-through, which has a flange element and a tube element, and a hollow body for casting in a casting material, wherein the flange element is arranged axially at the end of the tube element and extends away from the tube element perpendicular to a centre axis of the tube element, wherein the flange element is placed against a bottom part of the hollow body, wherein the hollow body and the tube element are assembled as separately manufactured parts, in which use a wall or floor element is produced by filling the casting material into a formwork (53.1), which formwork (53.1) defines a side surface (51.1) of the wall or floor element, wherein the feed-through is cast in at an angle, i.e. the centre axis of the tube element lies at an angle to a surface normal on the side surface (51.1), and wherein the hollow body is placed against the formwork (53.1) for casting in the feed-through and defines a cavity in the casting material axially following the tube element, which cavity extends to the side surface (51.1) of the wall or floor element and is larger than an inner diameter of the tube element in distance directions perpendicular to the centre axis of the tube element, characterised in that the flange element is formed in one piece with the tube element. wherein the flange element is arranged axially at the end of the tube element and extends away from the tube element perpendicular to a centre axis of the tube element, wherein the flange element is placed against a bottom part of the hollow body, wherein the hollow body and the tube element are assembled as separately manufactured parts, in which use a wall or floor element is produced by filling the casting material into a formwork (53.1), which formwork (53.1) defines a side surface (51.1) of the wall or floor element, wherein the feed-through is cast in at an angle, i.e. the centre axis of the tube element lies at an angle to a surface normal on the side surface (51.1), and wherein the hollow body is placed against the formwork (53.1) for casting in the feed-through and defines a cavity in the casting material axially following the tube element, which cavity extends to the side surface (51.1) of the wall or floor element and is larger than an inner diameter of the tube element in distance directions perpendicular to the centre axis of the tube element, characterised in that the flange element is formed in one piece with the tube element.
A method performed by a device for a user interface, UI, display, for a wireless communication network having a non-stand alone architecture, characterized by comprising: determining a first neighboring-cell signal quality obtained by measuring a neighboring cell of a first access network, and determining a second neighboring-cell signal quality obtained by measuring a neighboring cell of a second access network; and displaying, based on the first neighboring-cell signal quality and the second neighboring-cell signal quality, on the UI first prompt information for the first access network or second prompt information for the second access network, the first prompt comprising a first network identifier of the first access network and first quality-grade information of the first neighboring-cell signal quality, and the second prompt comprising a second network identifier of the second access network and second quality-grade information of the second neighboring-cell signal quality. determining a first neighboring-cell signal quality obtained by measuring a neighboring cell of a first access network, and determining a second neighboring-cell signal quality obtained by measuring a neighboring cell of a second access network; and displaying, based on the first neighboring-cell signal quality and the second neighboring-cell signal quality, on the UI first prompt information for the first access network or second prompt information for the second access network, the first prompt comprising a first network identifier of the first access network and first quality-grade information of the first neighboring-cell signal quality, and the second prompt comprising a second network identifier of the second access network and second quality-grade information of the second neighboring-cell signal quality.
A mass-spectrometric leak detector comprising a multi-stage turbomolecular pump, a mass spectrometer connected to the suction side of the turbomolecular pump, a backing pump connected to the pressure side of the turbomolecular pump, and a booster pump stage whose suction side has a connector for a test object to be tested and whose pressure side is connected via a gas conduction path connected to an intermediate gas inlet of the turbomolecular pump to the pressure side of a pump stage of the turbomolecular pump connected to the mass spectrometer and to the suction side of a pump stage of the turbomolecular pump connected to the backing pump, characterized in that the stages (30, 32) of the turbomolecular pump and the booster pump stage are arranged on a common shaft and have a common drive, and a separation interrupts the gas conducting path between the pressure side of the booster pump stage adapted to be connected to the test object and the suction side of the pump stage of the turbomolecular pump stage connected to the mass spectrometer, the separation preventing a gas flow from the pressure side of the boost pump stage to the suction side of the pump stage connected to the mass spectrometer. a multi-stage turbomolecular pump, a mass spectrometer connected to the suction side of the turbomolecular pump, a backing pump connected to the pressure side of the turbomolecular pump, and a booster pump stage whose suction side has a connector for a test object to be tested and whose pressure side is connected via a gas conduction path connected to an intermediate gas inlet of the turbomolecular pump to the pressure side of a pump stage of the turbomolecular pump connected to the mass spectrometer and to the suction side of a pump stage of the turbomolecular pump connected to the backing pump, characterized in that the stages (30, 32) of the turbomolecular pump and the booster pump stage are arranged on a common shaft and have a common drive, and a separation interrupts the gas conducting path between the pressure side of the booster pump stage adapted to be connected to the test object and the suction side of the pump stage of the turbomolecular pump stage connected to the mass spectrometer, the separation preventing a gas flow from the pressure side of the boost pump stage to the suction side of the pump stage connected to the mass spectrometer.
Forming drum for producing tyres for vehicle wheels comprising: a central shaft concentric to a geometric rotation axis of the forming drum; a plurality of sectors (5, 7) circumferentially arranged around the central shaft to define at least one deposition surface (3, 4, 6); a central body connected to the central shaft and to the plurality of sectors (5, 7) to set the sectors (5, 7) in rotation around the central shaft; coupling members operating between each sector (5, 7) of the plurality of sectors (5, 7) and the central body configured to hold and release each sector (5, 7) from the central body; characterized in that each coupling member comprises a first element movably connected to one among the central body and the sector (5, 7) and a second element movably connected to the other among the central body and the sector (5, 7) and comprising a first portion and a second portion; wherein the first element is configured to move between a holding condition in which it engages the first portion of the second element and radially holds the sector (5, 7) to the central body and a release condition in which it is disengaged from the first portion of the second element and radially releases the sector (5, 7) from the central body; and the second element is configured to move between a holding condition in which the second portion locks the first element in the respective holding condition and a release condition in which the second portion is axially distanced from the first element and allows the first element to reach the respective release condition. a central shaft concentric to a geometric rotation axis of the forming drum; a plurality of sectors (5, 7) circumferentially arranged around the central shaft to define at least one deposition surface (3, 4, 6); a central body connected to the central shaft and to the plurality of sectors (5, 7) to set the sectors (5, 7) in rotation around the central shaft; coupling members operating between each sector (5, 7) of the plurality of sectors (5, 7) and the central body configured to hold and release each sector (5, 7) from the central body; characterized in that each coupling member comprises a first element movably connected to one among the central body and the sector (5, 7) and a second element movably connected to the other among the central body and the sector (5, 7) and comprising a first portion and a second portion; wherein the first element is configured to move between a holding condition in which it engages the first portion of the second element and radially holds the sector (5, 7) to the central body and a release condition in which it is disengaged from the first portion of the second element and radially releases the sector (5, 7) from the central body; and the second element is configured to move between a holding condition in which the second portion locks the first element in the respective holding condition and a release condition in which the second portion is axially distanced from the first element and allows the first element to reach the respective release condition.