mhurhangee/ep-ind-claims huggingface dataset:
A method for monitoring an error code of a Common Public Radio Interface, CPRI, link, comprising: a CPRI link data transmitting end forming data to be transmitted into frames, outputting the data, and calculating to obtain a Frame Check Sequence, FCS, of each frame; wherein, the CPRI link data transmitting end adds the FCS of a former frame into an FCS field of a current frame when forming the frame; and a CPRI link data receiving end splitting the frame of received frame data to obtain the FCS of the former frame which is carried in the current frame, calculating the received frame data to obtain the FCS of the current frame, caching the FCS of the current frame, comparing the FCS of the former frame which is carried in the current frame with the cached FCS of the former frame, and judging that there is an error code in the CPRI link if the comparison result is that the FCS of the former frame which is carried in the current frame is inconsistent with the cached FCS of the former frame. a CPRI link data transmitting end forming data to be transmitted into frames, outputting the data, and calculating to obtain a Frame Check Sequence, FCS, of each frame; wherein, the CPRI link data transmitting end adds the FCS of a former frame into an FCS field of a current frame when forming the frame; and a CPRI link data receiving end splitting the frame of received frame data to obtain the FCS of the former frame which is carried in the current frame, calculating the received frame data to obtain the FCS of the current frame, caching the FCS of the current frame, comparing the FCS of the former frame which is carried in the current frame with the cached FCS of the former frame, and judging that there is an error code in the CPRI link if the comparison result is that the FCS of the former frame which is carried in the current frame is inconsistent with the cached FCS of the former frame.
A spark plug comprising: an insulator having an axial hole extending therethrough in an axial direction; a center electrode provided at a front end portion of the axial hole; a substantially tubular metallic shell which holds the insulator; a ground electrode whose one end is attached to a front end portion of the metallic shell and whose other end faces a front end portion of the center electrode; and a noble metal tip provided on a surface of the ground electrode which faces the front end portion of the center electrode, and forming a spark discharge gap in cooperation with the center electrode; the spark plug being characterized in that: a fusion zone (98,98b,98c)is formed at at least a portion of the boundary between the ground electrode and the noble metal tip through fusion of a portion of the ground electrode and a portion of the noble metal tip; when A represents the thickness of the thickest portion of the fusion zone as measured along the axial direction, and B represents the length of the longest portion of the fusion zone (98,98b,98c) as measured along a longitudinal direction of the ground electrode, a relation 1.5 ≤ B/A is satisfied, wherein the thickness of the fusion zone (98,98b,98c) as measured along a direction perpendicular to the discharge surface of the noble metal tip of the ground electrode increases along a direction oriented toward the distal end of the ground electrode. an insulator having an axial hole extending therethrough in an axial direction; a center electrode provided at a front end portion of the axial hole; a substantially tubular metallic shell which holds the insulator; a ground electrode whose one end is attached to a front end portion of the metallic shell and whose other end faces a front end portion of the center electrode; and a noble metal tip provided on a surface of the ground electrode which faces the front end portion of the center electrode, and forming a spark discharge gap in cooperation with the center electrode; the spark plug being characterized in that: a fusion zone (98,98b,98c)is formed at at least a portion of the boundary between the ground electrode and the noble metal tip through fusion of a portion of the ground electrode and a portion of the noble metal tip; when A represents the thickness of the thickest portion of the fusion zone as measured along the axial direction, and B represents the length of the longest portion of the fusion zone (98,98b,98c) as measured along a longitudinal direction of the ground electrode, a relation 1.5 ≤ B/A is satisfied, wherein the thickness of the fusion zone (98,98b,98c) as measured along a direction perpendicular to the discharge surface of the noble metal tip of the ground electrode increases along a direction oriented toward the distal end of the ground electrode.
A device for a wireless power transfer system, the device comprising a housing and a conductor wire forming a coil arranged in the housing, the coil being a transmitter or receiver coil, the coil having a first topology, the conductor wire being rearrangeable such that the coil is given a second topology instead of the first topology, the first topology and the second topology being different from each other, characterized in that the device comprises an actuator for moving the conductor wire from the first topology to the second topology, and from the second topology to the first topology.
Ultrasonic method of testing a liquid metal comprising the following steps: a) Provide a sonotrode formed from a material substantially inert to the liquid metal, such as a ceramic, and preferably a silicon nitride or a silicon oxynitride such as SIALON, or a metal substantially inert to said liquid metal, b) Plunge the sonotrode at least partially into said metal bath, c) Apply to the sonotrode power ultrasounds, particularly ultrasounds with a power of more than 10 watts, to assure that said sonotrode is wetted by said metal, d) Continuously apply to the sonotrode measurement ultrasounds, also called test ultrasounds, and particularly ultrasounds with a frequency of between 1 and 25 MHz, e) Intermittently apply to the sonotrode power ultrasounds, and particularly ultrasounds with a power of more than 10 watts, to maintain said wetting and to guarantee signal stability in the long term. a) Provide a sonotrode formed from a material substantially inert to the liquid metal, such as a ceramic, and preferably a silicon nitride or a silicon oxynitride such as SIALON, or a metal substantially inert to said liquid metal, b) Plunge the sonotrode at least partially into said metal bath, c) Apply to the sonotrode power ultrasounds, particularly ultrasounds with a power of more than 10 watts, to assure that said sonotrode is wetted by said metal, d) Continuously apply to the sonotrode measurement ultrasounds, also called test ultrasounds, and particularly ultrasounds with a frequency of between 1 and 25 MHz, e) Intermittently apply to the sonotrode power ultrasounds, and particularly ultrasounds with a power of more than 10 watts, to maintain said wetting and to guarantee signal stability in the long term.
Pharmaceutical containing, in dissolved form: (a) from 1 to 15% (w/v) of pradofloxacin and (b) From 0.001 to 10% of a quaternary ammonium compound. (a) from 1 to 15% (w/v) of pradofloxacin and (b) From 0.001 to 10% of a quaternary ammonium compound.
A module for making a structure, such as for example a frame, a support structure, a secondary frame, a lamp, and the like, wherein said module provides a pre-cut body comprising a plurality of flaps, which are substantially equal to one another, each flap being connected to the adjacent flaps by means of primary fold lines, each flap providing coupling means (4, 5, 8, 9, 9') which are complementary with corresponding coupling means (4, 5, 8, 9, 9') of a further module and at least one secondary fold line, the combination of said fold lines (2; 3) making it possible for said module to pass from a substantially flat resting configuration to an upright configuration by the coupling with one or more further modules, wherein said coupling means provided on said flaps comprise a slot (4, 5) and opening system, which couple with corresponding coupling means (4, 5; 8) provided on one or more modules to be coupled, said module being characterised in that each flap provides a small slot and a large slot, in that said small slot has a smaller extension than the large slot and includes a gap between the small slot itself and a corresponding notch on the pre-cut body, and in that the notch is of the same size as a corresponding notch of the large slot.
A method to operate a user interface having an output display and an input, comprising: receiving signals from a plurality of user inputs, where at least one user input is a multi-function input operable in a first mode to provide a display control input, and in a second mode, wherein the first mode is at least one of a zoom or a scroll mode, and where in the second mode the user input provides alphanumeric character input; when operating the at least one user input in the first mode, inhibiting operation of the at least one user input in the second mode in response to a focused first element no longer appearing on the display by changing the focus to a second element that does appear on the display and that does not respond to alphanumeric character input. receiving signals from a plurality of user inputs, where at least one user input is a multi-function input operable in a first mode to provide a display control input, and in a second mode, wherein the first mode is at least one of a zoom or a scroll mode, and where in the second mode the user input provides alphanumeric character input; when operating the at least one user input in the first mode, inhibiting operation of the at least one user input in the second mode in response to a focused first element no longer appearing on the display by changing the focus to a second element that does appear on the display and that does not respond to alphanumeric character input.
A mattress, having a core, in which at least one resilient string is provided, characterized in that the resilient string or the resilient strings are integrally formed with the core surrounding the same.
A method of identifying and classifying social complex behaviors among a group of model organisms, each having a permanent affixed or implanted RFID transponder, comprising: enclosing said group of model organisms in a monitored space divided into RFID monitored segments; RFID tracking a position of each model organism by reading said at least one RFID transponder in each model organism over a period of time; capturing a sequence of images of each model organism over said period of time; and calculating at least one spatiotemporal model of each model organism based on time synchronization of said RFID tracked position of said model organism with said sequence of images, characterized in that, said wherein said RFID tracking is performed at a resolution of better than 5 cm over said enclosure. enclosing said group of model organisms in a monitored space divided into RFID monitored segments; RFID tracking a position of each model organism by reading said at least one RFID transponder in each model organism over a period of time; capturing a sequence of images of each model organism over said period of time; and calculating at least one spatiotemporal model of each model organism based on time synchronization of said RFID tracked position of said model organism with said sequence of images,
A process for the preparation of a homogeneous dispersion or slurry to be transformed into a homogeneous spinning solution for the production of acrylic fibers which comprises the following steps: i) preparation of an aqueous suspension of acrylonitrile homopolymer or copolymer by the polymerization of monomers in aqueous suspension, removal of the unreacted monomers, filtration and washing of the aqueous suspension, obtaining a first filter cake comprising polymer and water in a ratio ranging from 40/60 to 60/40 by weight, preferably in a weight ratio equal to or greater than 1:1, ii) dispersion of said first filter cake in a solvent/water mixture or in pure solvent in a weight ratio ranging from 2 to 10 times the weight of the cake, preferably at a temperature lower than or equal to 5°C and for a time ranging from 5 to 15 minutes, under stirring; iii) separation of the solid/liquid phases of said polymer dispersion by filtration or centrifugation, obtaining a second cake comprising polymer and a solvent/water mixture, in a ratio ranging from 40/60 to 70/30 by weight; iv) re-dispersion of the second cake obtained in step iii) in the same solvent or water/solvent mixture as step ii) in a weight ratio ranging from 2 to 10 times the weight of the polymer in the cake, at room temperature or at a temperature lower than room temperature for a time ranging from 5 to 20 minutes, obtaining a homogeneous dispersion or "slurry" wherein the solvent/polymer weight ratio ranges from 90/10 to 70/30. i) preparation of an aqueous suspension of acrylonitrile homopolymer or copolymer by the polymerization of monomers in aqueous suspension, removal of the unreacted monomers, filtration and washing of the aqueous suspension, obtaining a first filter cake comprising polymer and water in a ratio ranging from 40/60 to 60/40 by weight, preferably in a weight ratio equal to or greater than 1:1, ii) dispersion of said first filter cake in a solvent/water mixture or in pure solvent in a weight ratio ranging from 2 to 10 times the weight of the cake, preferably at a temperature lower than or equal to 5°C and for a time ranging from 5 to 15 minutes, under stirring; iii) separation of the solid/liquid phases of said polymer dispersion by filtration or centrifugation, obtaining a second cake comprising polymer and a solvent/water mixture, in a ratio ranging from 40/60 to 70/30 by weight; iv) re-dispersion of the second cake obtained in step iii) in the same solvent or water/solvent mixture as step ii) in a weight ratio ranging from 2 to 10 times the weight of the polymer in the cake, at room temperature or at a temperature lower than room temperature for a time ranging from 5 to 20 minutes, obtaining a homogeneous dispersion or "slurry" wherein the solvent/polymer weight ratio ranges from 90/10 to 70/30.
A bleed valve assembly comprising: a bleed valve; and an actuation system for the bleed valve, the actuation system comprising: a first bell crank having a first arm and a second arm, the first arm attached to the bleed valve; a connecting link having a first end and a second end, the first end being coupled to the second arm of the first bell crank; and a second bell crank having a first arm and a second arm, the first arm being coupled to the second end of the connecting link and the second arm being coupled to an actuating element, and wherein input is communicated through the actuating element to move the bleed valve between open and closed positions via the first and second bell cranks (104,64); characterised in that: the first and second arms (112,114) of the first bell crank are separated from each other by an obtuse angle; and the first and second arms (76,78) of the second bell crank are separated from each other by an acute angle. a bleed valve; and an actuation system for the bleed valve, the actuation system comprising: a first bell crank having a first arm and a second arm, the first arm attached to the bleed valve; a connecting link having a first end and a second end, the first end being coupled to the second arm of the first bell crank; and a second bell crank having a first arm and a second arm, the first arm being coupled to the second end of the connecting link and the second arm being coupled to an actuating element, and wherein input is communicated through the actuating element to move the bleed valve between open and closed positions via the first and second bell cranks (104,64); characterised in that: the first and second arms (112,114) of the first bell crank are separated from each other by an obtuse angle; and the first and second arms (76,78) of the second bell crank are separated from each other by an acute angle. a first bell crank having a first arm and a second arm, the first arm attached to the bleed valve; a connecting link having a first end and a second end, the first end being coupled to the second arm of the first bell crank; and a second bell crank having a first arm and a second arm, the first arm being coupled to the second end of the connecting link and the second arm being coupled to an actuating element, and wherein input is communicated through the actuating element to move the bleed valve between open and closed positions via the first and second bell cranks (104,64); characterised in that: the first and second arms (112,114) of the first bell crank are separated from each other by an obtuse angle; and the first and second arms (76,78) of the second bell crank are separated from each other by an acute angle. the first and second arms (112,114) of the first bell crank are separated from each other by an obtuse angle; and the first and second arms (76,78) of the second bell crank are separated from each other by an acute angle.
A laser cutting method for cutting a pair of plate materials (11a, 12a), each having a different thickness and melting point, by irradiating the plate materials with a laser, the laser cutting method comprising: a plate material placement process (#101) for placing the pair of plate materials (11a, 12a) side by side so that, out of the pair of plate materials (11a, 12a), an opposite surface of a laser irradiated surface of the plate material with a lower melting point protrudes more than an opposite surface of the laser irradiated surface of the plate material with a higher melting point; a focus adjustment process (#102) for aligning a focus position of the laser with the opposite surface of the laser irradiated surface of the plate material with a higher melting point out of the pair of plate materials (11a, 12a); and a plate material cutting process (#103) for cutting the pair of plate materials (11a, 12a) through irradiation with the laser according to a series of operations while sustaining a focus position of the laser to the pair of plate materials (11a, 12a). a plate material placement process (#101) for placing the pair of plate materials (11a, 12a) side by side so that, out of the pair of plate materials (11a, 12a), an opposite surface of a laser irradiated surface of the plate material with a lower melting point protrudes more than an opposite surface of the laser irradiated surface of the plate material with a higher melting point; a focus adjustment process (#102) for aligning a focus position of the laser with the opposite surface of the laser irradiated surface of the plate material with a higher melting point out of the pair of plate materials (11a, 12a); and a plate material cutting process (#103) for cutting the pair of plate materials (11a, 12a) through irradiation with the laser according to a series of operations while sustaining a focus position of the laser to the pair of plate materials (11a, 12a).
An enclosure for testing electronic devices, the enclosure comprising: a first interior door guide; a second interior door guide positioned opposite the first interior door guide; a first exterior door guide; a second exterior door guide positioned opposite the first exterior door guide; a retractable door, wherein the retractable door includes: an interior door element slidably engaging the first interior door guide and the second interior door guide, and an exterior door element slidably engaging the first exterior door guide and the second exterior door guide; and a first waveguide configured to dissipate some electromagnetic waves entering the enclosure, the first waveguide formed by a first element and a second element positioned below the first element, wherein the second element is substantially parallel to the first element; wherein the interior door element and the exterior door element are configured to retract in unison, and wherein when the retractable door is in a retracted position, a portion of the retractable door is positioned between the first element and the second element. a first interior door guide; a second interior door guide positioned opposite the first interior door guide; a first exterior door guide; a second exterior door guide positioned opposite the first exterior door guide; a retractable door, wherein the retractable door includes: an interior door element slidably engaging the first interior door guide and the second interior door guide, and an exterior door element slidably engaging the first exterior door guide and the second exterior door guide; and an interior door element slidably engaging the first interior door guide and the second interior door guide, and an exterior door element slidably engaging the first exterior door guide and the second exterior door guide; and a first waveguide configured to dissipate some electromagnetic waves entering the enclosure, the first waveguide formed by a first element and a second element positioned below the first element, wherein the second element is substantially parallel to the first element; wherein the interior door element and the exterior door element are configured to retract in unison, and wherein when the retractable door is in a retracted position, a portion of the retractable door is positioned between the first element and the second element.
A method of signal processing, said method comprising: calculating an envelope of a first signal that is based on a low-frequency portion of a speech signal; calculating an envelope of a second signal that is based on a high-frequency portion of the speech signal; calculating a first plurality of gain factor values according to a time-varying relation between the envelopes of the first and second signals; and based on the first plurality of gain factor values, calculating a plurality of smoothed gain factor values, wherein each of the plurality of smoothed gain factor values is based on a sum of a gain factor of the first plurality, as weighted by a first weight, that is associated with a first time interval and a smoothed gain factor value, as weighted by a second weight, that is associated with a time interval that begins earlier than the first time interval, and characterized in that at least one among the first and second weights is based on a distance between gain factor values of the first plurality that are associated with successive time intervals, or is based on a difference between the gain factor value of the first plurality and a gain factor value of the first plurality that is associated with a time interval that begins earlier than the first time interval. calculating an envelope of a first signal that is based on a low-frequency portion of a speech signal; calculating an envelope of a second signal that is based on a high-frequency portion of the speech signal; calculating a first plurality of gain factor values according to a time-varying relation between the envelopes of the first and second signals; and based on the first plurality of gain factor values, calculating a plurality of smoothed gain factor values, wherein each of the plurality of smoothed gain factor values is based on a sum of a gain factor of the first plurality, as weighted by a first weight, that is associated with a first time interval and a smoothed gain factor value, as weighted by a second weight, that is associated with a time interval that begins earlier than the first time interval, and characterized in that at least one among the first and second weights is based on a distance between gain factor values of the first plurality that are associated with successive time intervals, or is based on a difference between the gain factor value of the first plurality and a gain factor value of the first plurality that is associated with a time interval that begins earlier than the first time interval.