mhurhangee/ep-ind-claims huggingface dataset:
A method for the non-cutting manufacture of an inner ring (2, 2') in the final contour for a tapered roller bearing, wherein the inner ring has a raceway portion and a fixed edge portion, comprising the steps of: providing an inner ring blank, wherein the inner ring blank has an unfinished raceway portion and a fixed edge blank portion, wherein the fixed edge blank portion has a larger outside diameter than the unfinished raceway portion and wherein the inner ring blank has a through-opening, forming the inner ring blank into the inner ring (2, 2') by means of extrusion in a main forming step, wherein the unfinished fixed edge portion is transformed into the fixed edge portion and the unfinished raceway portion is transformed into the raceway portion, characterised in that the fixed edge portion has a fixed edge with a contact surface for tapered rollers of the tapered roller bearing, wherein the contact surface is toroidal in the main forming step, and in that the inner ring blank has an unfinished flanged edge portion and the inner ring has a flanged edge portion, wherein in the main forming step the unfinished flanged edge portion is converted into the flanged edge portion, which is bent to form a flanged edge. providing an inner ring blank, wherein the inner ring blank has an unfinished raceway portion and a fixed edge blank portion, wherein the fixed edge blank portion has a larger outside diameter than the unfinished raceway portion and wherein the inner ring blank has a through-opening, forming the inner ring blank into the inner ring (2, 2') by means of extrusion in a main forming step, wherein the unfinished fixed edge portion is transformed into the fixed edge portion and the unfinished raceway portion is transformed into the raceway portion, characterised in that the fixed edge portion has a fixed edge with a contact surface for tapered rollers of the tapered roller bearing, wherein the contact surface is toroidal in the main forming step, and in that the inner ring blank has an unfinished flanged edge portion and the inner ring has a flanged edge portion, wherein in the main forming step the unfinished flanged edge portion is converted into the flanged edge portion, which is bent to form a flanged edge.
A musical performance apparatus comprising: waveform data storing means adapted for storing a plurality of waveform data sets indicative of waveforms of tones, and reproducing means adapted for selecting one or more tones from among the tones, reading out the waveform data indicative of the selected tones from the waveform data storing means, and sequentially reproducing the selected tones thereby transmitting a control signal for controlling an external apparatus, characterized in that said waveform data sets are basic waveform data sets indicative of waveforms of tones which correspond to a plurality of respective digital signals each having a different bit pattern and are formed of frequency components included in a certain high frequency band; and in that said reproducing means are adapted for selecting said one or more tones from among the tones in order to combine the bit patterns of the digital signals corresponding to the selected tones in accordance with a bit pattern of the control signal for controlling the external apparatus. waveform data storing means adapted for storing a plurality of waveform data sets indicative of waveforms of tones, and reproducing means adapted for selecting one or more tones from among the tones, reading out the waveform data indicative of the selected tones from the waveform data storing means, and sequentially reproducing the selected tones thereby transmitting a control signal for controlling an external apparatus, characterized in that said waveform data sets are basic waveform data sets indicative of waveforms of tones which correspond to a plurality of respective digital signals each having a different bit pattern and are formed of frequency components included in a certain high frequency band; and in that said reproducing means are adapted for selecting said one or more tones from among the tones in order to combine the bit patterns of the digital signals corresponding to the selected tones in accordance with a bit pattern of the control signal for controlling the external apparatus.
A control method of an automatic driving vehicle switchable between manual driving in which the vehicle is made to travel depending on an operation of an occupant and automatic driving in which driving characteristics in automatic travel are set and the vehicle is made to automatically travel based on the driving characteristics, comprising when performing switching from the manual driving to the automatic driving, performing the automatic driving while maintaining manual driving characteristics which are driving characteristics in the manual driving characterized in that the control method of the automatic driving vehicle further comprises, when performing switching from the manual driving to the automatic driving, performing the automatic driving with the manual driving characteristics maintained for a preset manual characteristic maintaining time.
A method of operating a charged particle beam system, the method comprising: extracting a particle beam from a source; performing a first accelerating of the particles of the beam; performing a second accelerating of the particles of the beam after performing the first accelerating; performing a first decelerating of the particles of the beam after the performing of the second accelerating; forming a plurality of particle beamlets from the beam after the performing of the first decelerating; deflecting the beamlets in a direction oriented transverse to a direction of propagation of the particles of the beamlets; performing a second decelerating of the particles of the beamlets after the deflecting of the beamlets; and allowing the particles of the beamlets to be incident on an object surface after the performing of the second decelerating. extracting a particle beam from a source; performing a first accelerating of the particles of the beam; performing a second accelerating of the particles of the beam after performing the first accelerating; performing a first decelerating of the particles of the beam after the performing of the second accelerating; forming a plurality of particle beamlets from the beam after the performing of the first decelerating; deflecting the beamlets in a direction oriented transverse to a direction of propagation of the particles of the beamlets; performing a second decelerating of the particles of the beamlets after the deflecting of the beamlets; and allowing the particles of the beamlets to be incident on an object surface after the performing of the second decelerating.
A multi-axis atomic inertial sensor apparatus, comprising: a first laser device that is configured to output a light beam having a first frequency; a second laser device that is configured to output a light beam having a second frequency; an optical multiplexer in optical communication with the first and second laser devices, the optical multiplexer including a plurality of optical switches (222, 224); a first multi-axis atomic inertial sensor in optical communication with the optical multiplexer; a second multi-axis atomic inertial sensor in optical communication with the optical multiplexer; wherein the optical switches are configured to sequentially direct the light beams from the first and second laser devices along different axes of the first and second multi-axis atomic inertial sensors, so that simultaneous measurements are obtained along corresponding axes of the first and second multi-axis atomic inertial sensors. a first laser device that is configured to output a light beam having a first frequency; a second laser device that is configured to output a light beam having a second frequency; an optical multiplexer in optical communication with the first and second laser devices, the optical multiplexer including a plurality of optical switches (222, 224); a first multi-axis atomic inertial sensor in optical communication with the optical multiplexer; a second multi-axis atomic inertial sensor in optical communication with the optical multiplexer; wherein the optical switches are configured to sequentially direct the light beams from the first and second laser devices along different axes of the first and second multi-axis atomic inertial sensors, so that simultaneous measurements are obtained along corresponding axes of the first and second multi-axis atomic inertial sensors.
A fiber optical connector (10; 100) comprising: a barrel portion that includes an inner lumen configured to receive an optical fiber cable, the barrel portion having a first end and a second end, wherein the second end of the barrel portion includes a barb that projects outward from the second end of the barrel portion; a boot, wherein the barb of the barrel portion is configured for attachment to the boot; one or more latches extending from the first end of the barrel portion; and a ferrule housing sub-assembly that includes a ferrule holder that is configured to receive a ferrule, wherein the latches engage with the ferrule holder in order to secure the barrel portion with the ferrule housing sub-assembly; a coupling nut; and a shroud having a first end and a second end, wherein the first end of the shroud includes at least one opening defined by the shroud and extending from a medial portion of the shroud to the first end, wherein the medial portion of the shroud includes a shoulder that provides a stop for the coupling nut, and wherein the coupling nut has a passageway sized so that it fits over the second end of the shroud and rotates about the medial portion of shroud, wherein the coupling nut cannot move beyond the shoulder, but the coupling nut is able to rotate with respect to shroud. wherein the second end of the barrel portion includes a barb that projects outward from the second end of the barrel portion; a boot, wherein the barb of the barrel portion is configured for attachment to the boot; one or more latches extending from the first end of the barrel portion; and a ferrule housing sub-assembly that includes a ferrule holder that is configured to receive a ferrule, wherein the latches engage with the ferrule holder in order to secure the barrel portion with the ferrule housing sub-assembly; a coupling nut; and a shroud having a first end and a second end, wherein the first end of the shroud includes at least one opening defined by the shroud and extending from a medial portion of the shroud to the first end, a boot, wherein the barb of the barrel portion is configured for attachment to the boot; one or more latches extending from the first end of the barrel portion; and a ferrule housing sub-assembly that includes a ferrule holder that is configured to receive a ferrule, wherein the latches engage with the ferrule holder in order to secure the barrel portion with the ferrule housing sub-assembly; a coupling nut; and a shroud having a first end and a second end, wherein the first end of the shroud includes at least one opening defined by the shroud and extending from a medial portion of the shroud to the first end, wherein the medial portion of the shroud includes a shoulder that provides a stop for the coupling nut, and wherein the coupling nut has a passageway sized so that it fits over the second end of the shroud and rotates about the medial portion of shroud, wherein the coupling nut cannot move beyond the shoulder, but the coupling nut is able to rotate with respect to shroud.
A multicast communication method, wherein the method comprises: receiving, by a user plane function network element, a multicast packet, wherein the multicast packet comprises a multicast address; matching, by the user plane function network element, the multicast packet with a packet detection rule, PDR, on the user plane function network element; and when the multicast packet successfully matches a first PDR, and the first PDR indicates to carry on matching another PDR, carrying on, by the user plane function network element, matching the multicast packet with another PDR. receiving, by a user plane function network element, a multicast packet, wherein the multicast packet comprises a multicast address; matching, by the user plane function network element, the multicast packet with a packet detection rule, PDR, on the user plane function network element; and when the multicast packet successfully matches a first PDR, and the first PDR indicates to carry on matching another PDR, carrying on, by the user plane function network element, matching the multicast packet with another PDR.
A composition comprising biocompatible poly-β-1→4-N-acetylglucosamine fibers for use in a method of treatment of a chronic wound in a human subject, wherein at least 70% of N-acetylglucosamine monosaccharides of the poly-β-1→4-N-acetylglucosamine are acetylated, wherein greater than 50% of the fibers are less than about 15 μm in length, wherein the poly-β-1→4-N-acetylglucosamine fibers have been irradiated to reduce the length of the fibers, wherein the composition is formulated as a dressing, and wherein the method comprises: (a) topically applying the dressing to a chronic wound in a human subject in need thereof. (a) topically applying the dressing to a chronic wound in a human subject in need thereof.
A method for producing a semiconductor crystal of GaN, which comprises a crystal growing step for crystal growth of GaN in the presence of ammonia in a supercritical and/or subcritical state in a reactor, which satisfies the following condition: at least 50 % of the total area of the inner surface of the reactor and the surface of the member to be used inside the reactor in the crystal growing step is coated with a platinum group-Group 13 metal alloy coating film containing at least one alloy selected from Ga 3 Pt 5 and wherein the reactor is formed of Pt or a Pt-containing alloy.
Laminated glazing for a light air vehicle consisting of at least - a transparent structural plastic sheet which covers the entire surface of the glazing, - a transparent protective plastic sheet which covers the entire surface of the glazing, - a so-called interlayer adhesive which binds the structural plastic sheet and the protective plastic sheet, - a glass which is covered with a conductive layer having a heating function incorporated within the adhesive and which covers a fraction at most equal to 66% of the surface area of the glazing which contains the main viewing zone. - a transparent structural plastic sheet which covers the entire surface of the glazing, - a transparent protective plastic sheet which covers the entire surface of the glazing, - a so-called interlayer adhesive which binds the structural plastic sheet and the protective plastic sheet, - a glass which is covered with a conductive layer having a heating function incorporated within the adhesive and which covers a fraction at most equal to 66% of the surface area of the glazing which contains the main viewing zone.
A first communication device for use in a wireless communication system configured with the first communication device and a second communication device to communicate with the second communication device, the first communication device comprising circuitry configured to - perform beamforming training with the second communication device to train a plurality of antenna beam combinations of antenna beams used by the first and second communication devices for transmitting and/or receiving signals, - select one or more of the trained antenna beam combinations, and - communicate with the second communication device using the selected one or more antenna beam combinations, whereby the circuitry is configured to select the one or more of the trained antenna beam combinations according to a security criterion that is directed to reducing the probability that a third communication device can eavesdrop on the communication between the first communication device and the second communication device. - perform beamforming training with the second communication device to train a plurality of antenna beam combinations of antenna beams used by the first and second communication devices for transmitting and/or receiving signals, - select one or more of the trained antenna beam combinations, and - communicate with the second communication device using the selected one or more antenna beam combinations,
Unit swing type power unit for a vehicle, in particular a saddle-ride type vehicle, in which a transmission casing accommodating therein a continuously variable transmission mechanism with a V-belt wound around a drive side sheave and a driven side sheave, and an engine body having a cylinder body and a crankshaft defining a crank axis are joined integrally to be supported on a vehicle body frame to be able to swing, wherein the cylinder body is formed so that a virtual plane (B'), which includes a cylinder axis and is in parallel to the crank axis, passes through a position displaced toward a side of the crank axis, and the power unit comprises a drive member, which varies a wound diameter of the drive side sheave, and an electric motor for driving, which drives the drive member, wherein at least a part of the electric motor for driving and the drive member is arranged on a side of a virtual plane, which includes a crankcase side end of the cylinder body and is perpendicular to the cylinder axis, toward the cylinder body and above a lower surface of the cylinder body.
A method for determining an adaptive hysteresis for inter-channel time difference, ICTD, parameter, the method comprising: obtaining an ICTD estimate between a channel pair of a multi-channel audio signal; the method is further characterised in that: when a reliable ICTD estimate is obtained for a frame m, low-pass filtering an inter-channel correlation, ICC, measure to obtain a long term estimate of a stability, ICC LP (m), of an ICTD parameter; using said stability estimate, ICC LP (m), to determine a hysteresis period, during which a previously obtained reliable ICTD estimate is used, when reliable ICTD estimates are not obtained; and setting the ICTD to zero if reliable ICTD estimates are not obtained within the hysteresis period. obtaining an ICTD estimate between a channel pair of a multi-channel audio signal; the method is further characterised in that: when a reliable ICTD estimate is obtained for a frame m, low-pass filtering an inter-channel correlation, ICC, measure to obtain a long term estimate of a stability, ICC LP (m), of an ICTD parameter; using said stability estimate, ICC LP (m), to determine a hysteresis period, during which a previously obtained reliable ICTD estimate is used, when reliable ICTD estimates are not obtained; and setting the ICTD to zero if reliable ICTD estimates are not obtained within the hysteresis period.
A method for detecting an incorrect donor ribbon in a thermal printer, wherein the thermal printer comprises an emitter, a detector, and a controller, and wherein the donor ribbon comprises a plurality of repeating sequences of donor material patches, the method comprising: (a) locating a portion of the donor ribbon in the thermal printer where a donor material patch is in an optical path between the emitter and detector; (b) applying a light, by the emitter, to a portion of the donor ribbon; (c) detecting, by the detector, a plurality of signals, wherein each signal corresponds to an intensity of at least a portion of the non-absorbed light emitted by the emitter within a specific range of frequencies, wherein the detector comprises an opto-electronic circuit; (d) sending the plurality of signals from the detector to the controller; (e) combining the plurality of signals from the detector and determining, by the controller, the intensity of light from the portion of the donor ribbon being sensed, wherein the intensity of light is indicative of the color of the portion of the donor ribbon being sensed; (f) determining, by the controller, whether the color corresponds to a donor ribbon profile; and (g) displaying, on an operator control panel, a warning when the color does not correspond to a donor ribbon profile. (a) locating a portion of the donor ribbon in the thermal printer where a donor material patch is in an optical path between the emitter and detector; (b) applying a light, by the emitter, to a portion of the donor ribbon; (c) detecting, by the detector, a plurality of signals, wherein each signal corresponds to an intensity of at least a portion of the non-absorbed light emitted by the emitter within a specific range of frequencies, wherein the detector comprises an opto-electronic circuit; (d) sending the plurality of signals from the detector to the controller; (e) combining the plurality of signals from the detector and determining, by the controller, the intensity of light from the portion of the donor ribbon being sensed, wherein the intensity of light is indicative of the color of the portion of the donor ribbon being sensed; (f) determining, by the controller, whether the color corresponds to a donor ribbon profile; and (g) displaying, on an operator control panel, a warning when the color does not correspond to a donor ribbon profile.
A method for predicting responsiveness to an antagonist of an inhibitory immune checkpoint and/or an agonist of a stimulatory immune checkpoint comprising: determining the RNA expression level of at least one gene selected from Table 2B in a sample comprising cancer cells or nucleic acids derived therefrom from the subject wherein the determined RNA expression level is used to identify the subject as having a cancer in which the STING/TBK1/IRF3 pathway is activated due to a deficiency in DNA damage repair and thereby predict responsiveness to an antagonist of an inhibitory immune checkpoint and/or an agonist of a stimulatory immune checkpoint.
Control device for an HVAC installation, wherein the control device comprises a communication module for communication with one or more components of the HVAC installation, characterized by: a passive NFC transponder configured, before a power supply of the control device is switched on, to receive from a mobile service device, and to store, a respective unique identifier of the one or more components, and a control module configured, after a power supply of the control device has been switched on, to access the identifiers stored in the NFC transponder and to communicate, via the communication module, control signals to components determined by the identifiers. a passive NFC transponder configured, before a power supply of the control device is switched on, to receive from a mobile service device, and to store, a respective unique identifier of the one or more components, and a control module configured, after a power supply of the control device has been switched on, to access the identifiers stored in the NFC transponder and to communicate, via the communication module, control signals to components determined by the identifiers.