mhurhangee/ep-ind-claims huggingface dataset:
A power module, comprising: a power module substrate in which a circuit layer is arranged on one surface of an insulating layer; and a semiconductor element that is bonded onto the circuit layer, wherein a copper layer composed of copper or a copper alloy is provided on a surface of the circuit layer to be bonded to the semiconductor element, a solder layer formed by using a solder material between the circuit layer and the semiconductor element is provided, an alloy layer consisting of Sn as a main component, 0.5% by mass or more and 10% by mass or less of Ni, 30% by mass or more and 40% by mass or less of Cu and inevitable impurities at an interface of the solder layer with the circuit layer is formed, the coverage of the alloy layer at the interface is 85% or more, characterized in that the alloy layer includes an intermetallic compound composed of (Cu, Ni) 6 Sn 5, and an intermetallic compound layer composed of Cu 3 Sn is formed between the alloy layer and the circuit layer. a power module substrate in which a circuit layer is arranged on one surface of an insulating layer; and a semiconductor element that is bonded onto the circuit layer, wherein a copper layer composed of copper or a copper alloy is provided on a surface of the circuit layer to be bonded to the semiconductor element, a solder layer formed by using a solder material between the circuit layer and the semiconductor element is provided, an alloy layer consisting of Sn as a main component, 0.5% by mass or more and 10% by mass or less of Ni, 30% by mass or more and 40% by mass or less of Cu and inevitable impurities at an interface of the solder layer with the circuit layer is formed, the coverage of the alloy layer at the interface is 85% or more, characterized in that the alloy layer includes an intermetallic compound composed of (Cu, Ni) 6 Sn 5, and an intermetallic compound layer composed of Cu 3 Sn is formed between the alloy layer and the circuit layer.
A method comprising: obtaining, by a supervisory service for a software-defined wide area network, SD-WAN, telemetry data from one or more edge devices in the SD-WAN; training, by the supervisory service and using the telemetry data as training data, a machine learning-based model to predict tunnel failures in the SD-WAN; receiving, at the supervisory service, feedback from the one or more edge devices regarding failure predictions made by the trained machine learning-based model; and retraining, by the supervisory service, the machine learning-based model, based on the received feedback, wherein obtaining the telemetry data from the one or more edge devices in the SD-WAN comprises: associating tunnel failures with telemetry variables, to assign measures of predictive power to the telemetry variables; selecting one or more of the telemetry variables and a sampling frequency, based in part on their associated measures of predictive power; and instructing the one or more edge devices to report the selected one or more telemetry variables to the supervisory service at the selected sampling frequency. obtaining, by a supervisory service for a software-defined wide area network, SD-WAN, telemetry data from one or more edge devices in the SD-WAN; training, by the supervisory service and using the telemetry data as training data, a machine learning-based model to predict tunnel failures in the SD-WAN; receiving, at the supervisory service, feedback from the one or more edge devices regarding failure predictions made by the trained machine learning-based model; and retraining, by the supervisory service, the machine learning-based model, based on the received feedback, wherein obtaining the telemetry data from the one or more edge devices in the SD-WAN comprises: associating tunnel failures with telemetry variables, to assign measures of predictive power to the telemetry variables; selecting one or more of the telemetry variables and a sampling frequency, based in part on their associated measures of predictive power; and instructing the one or more edge devices to report the selected one or more telemetry variables to the supervisory service at the selected sampling frequency. associating tunnel failures with telemetry variables, to assign measures of predictive power to the telemetry variables; selecting one or more of the telemetry variables and a sampling frequency, based in part on their associated measures of predictive power; and instructing the one or more edge devices to report the selected one or more telemetry variables to the supervisory service at the selected sampling frequency.
A radio receiver for use in receiving radio signal frequencies, the radio receiver including: a switched mode power supply including; a microcontroller; and a pulse width modulation switching circuit; characterised in that the microcontroller is configured to control shifting of the operating frequency of the switched mode power supply by the pulse width modulation switching circuit to one of a plurality of predetermined operating frequencies depending upon which of the plurality of predetermined operating frequencies and/or their harmonics are furthest away from a radio frequency to which the radio receiver will be tuned, whereby the predetermined operating frequency of the switched mode power supply is set by adjusting an operating characteristics of the pulse width modulation switching circuit. a switched mode power supply including; a microcontroller; and a pulse width modulation switching circuit; characterised in that the microcontroller is configured to control shifting of the operating frequency of the switched mode power supply by the pulse width modulation switching circuit to one of a plurality of predetermined operating frequencies depending upon which of the plurality of predetermined operating frequencies and/or their harmonics are furthest away from a radio frequency to which the radio receiver will be tuned, whereby the predetermined operating frequency of the switched mode power supply is set by adjusting an operating characteristics of the pulse width modulation switching circuit.
A fluid flow controller comprising: a housing including central portion and finger-gripping portions on either side of said central portion, said finger-gripping portions and central portion being defined by a continuous, integrally molded housing wall; said housing defining an interior flow path and including a breakable member at least partially positioned within said flow path of the housing to prevent the passage of fluid through the flow path; and said breakable member comprising a stem integrally molded to a tubular member; said finger-gripping portions having a cross sectional area greater than the cross sectional area of said central portion to provide a sufficiently large gripping surface that is more rigid, sturdy and easier to firmly grip than the central portion; and the central portion having thin wall with a selected thickness to minimize a force required to cause the central portion to bend and to allow complete collapse of the breakable member.
A system for analyzing an analyte, the system having a chamber having an inlet, and a semi-permeable membrane arranged to seal the inlet, the system characterized in that the semi-permeable membrane comprises a cross-linked mixture of a first compound and a second compound, a) wherein the first compound includes: i) 55.0 - 75.0 wt. % of Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % of Silica, amorphous; iii) 5.0 - 10.0 wt. % of Dimethyl siloxane, hydroxy-terminated; and iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and b) wherein the second compound includes: i) 55.0 - 75.0 wt. % Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % Silica, amorphous; iii) 5.0 - 10.0 wt. % Dimethyl siloxane, hydroxy-terminated; iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and v) 1.0 - 5.0 wt. % Dimethyl, methylhydrogen siloxane. a) wherein the first compound includes: i) 55.0 - 75.0 wt. % of Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % of Silica, amorphous; iii) 5.0 - 10.0 wt. % of Dimethyl siloxane, hydroxy-terminated; and iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and i) 55.0 - 75.0 wt. % of Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % of Silica, amorphous; iii) 5.0 - 10.0 wt. % of Dimethyl siloxane, hydroxy-terminated; and iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and b) wherein the second compound includes: i) 55.0 - 75.0 wt. % Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % Silica, amorphous; iii) 5.0 - 10.0 wt. % Dimethyl siloxane, hydroxy-terminated; iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and v) 1.0 - 5.0 wt. % Dimethyl, methylhydrogen siloxane. i) 55.0 - 75.0 wt. % Dimethyl siloxane, dimethylvinyl-terminated; ii) 15.0 - 35.0 wt. % Silica, amorphous; iii) 5.0 - 10.0 wt. % Dimethyl siloxane, hydroxy-terminated; iv) 3.0 - 7.0 wt. % Dimethyl, methylvinyl siloxane, dimethylvinyl-terminated; and v) 1.0 - 5.0 wt. % Dimethyl, methylhydrogen siloxane.
A method for manufacturing a continuous carbon fiber reinforced thermoplastic plastic composite comprising: (i) preparing a continuous carbon fiber in which carbon filaments are sized by a sizing agent comprising a waterborne resin; (ii) removing the sizing agent by using a solvent having a difference in a Hildebrand solubility parameter from that of the waterborne resin as 2.0 or less based on SI units (MPa 1/2) in an amount of 200 parts by weight to 300 parts by weight based on 100 parts by weight of the continuous carbon fiber; and (iii) impregnating a bundle of the carbon fiber that is removed of the sizing agent in a thermoplastic plastic, and spreading the initial carbon fiber bundle uniformly to a wide width of 4 times to 8 times. (i) preparing a continuous carbon fiber in which carbon filaments are sized by a sizing agent comprising a waterborne resin; (ii) removing the sizing agent by using a solvent having a difference in a Hildebrand solubility parameter from that of the waterborne resin as 2.0 or less based on SI units (MPa 1/2) in an amount of 200 parts by weight to 300 parts by weight based on 100 parts by weight of the continuous carbon fiber; and (iii) impregnating a bundle of the carbon fiber that is removed of the sizing agent in a thermoplastic plastic, and spreading the initial carbon fiber bundle uniformly to a wide width of 4 times to 8 times.
A method for automatic detection of an event in which a device is leaving a stable position relative to and within an anatomy, the method comprising the steps of: receiving a sequence of fluoroscopic images, detecting a device in at least two of the fluoroscopic images, determining a motion field of the detected device in the sequence of fluoroscopic images, generating a sequence of integrated images by integrating the sequence of fluoroscopic images taking into consideration the motion field, characterized in, determining a saliency metric based on the integrated images, identifying a landmark in the integrated images based on the saliency metric.
A method performed by a receiver device for synchronizing with a transmitter device; the method comprising: - receiving from a controller node, a configuration message including information indicating the occurrence of a discovery resource pool within a discovery period; - receiving at least one device-to-device synchronization signal within a time window preceding the start of the discovery resource pool; and - receiving, within the discovery resource pool, a discovery message from the transmitter device comprising an identity of the transmitter device for enabling synchronization between the receiver device and the transmitter device. - receiving from a controller node, a configuration message including information indicating the occurrence of a discovery resource pool within a discovery period; - receiving at least one device-to-device synchronization signal within a time window preceding the start of the discovery resource pool; and - receiving, within the discovery resource pool, a discovery message from the transmitter device comprising an identity of the transmitter device for enabling synchronization between the receiver device and the transmitter device.
An assembly comprising an outlet guide vane, a liner of the outlet guide vane and an external structure for supporting the outlet guide vane, and a seal which seals a gap between the vane and the liner, the seal comprising: a joint section for joining with the liner; characterised in that the seal further comprises: a flexible fillet section elongated from the joint section and tapering toward a tip so as to warp along the outlet guide vane to form a round corner between the outlet guide vane and the liner when the tip is placed in contact with the outlet guide vane; and a flexible rib section (25, 25s, 25f) projecting from an inner surface of the seal and so dimensioned as to get in contact with an upper surface of the external structure for securing the outlet guide vane to keep gas tightness. a joint section for joining with the liner; characterised in that the seal further comprises: a flexible fillet section elongated from the joint section and tapering toward a tip so as to warp along the outlet guide vane to form a round corner between the outlet guide vane and the liner when the tip is placed in contact with the outlet guide vane; and a flexible rib section (25, 25s, 25f) projecting from an inner surface of the seal and so dimensioned as to get in contact with an upper surface of the external structure for securing the outlet guide vane to keep gas tightness. a flexible fillet section elongated from the joint section and tapering toward a tip so as to warp along the outlet guide vane to form a round corner between the outlet guide vane and the liner when the tip is placed in contact with the outlet guide vane; and a flexible rib section (25, 25s, 25f) projecting from an inner surface of the seal and so dimensioned as to get in contact with an upper surface of the external structure for securing the outlet guide vane to keep gas tightness.
A polymer having chelating functionality comprising units derived from (a) an ethylenically unsaturated aminocarboxylate monomer having the following structure: wherein each X is H, or a salt thereof, and further comprising units derived from: (b) one or more ethylenically unsaturated monomers. (a) an ethylenically unsaturated aminocarboxylate monomer having the following structure: wherein each X is H, or a salt thereof, and further comprising units derived from: (b) one or more ethylenically unsaturated monomers. (b) one or more ethylenically unsaturated monomers.
Method for producing an article of clothing which comprises a textile main body and functional elements arranged on the textile main body, comprising the following: - producing the textile main body; - providing a shaped part having at least one recess for a functional element for accommodating a functional-element starting material; - introducing the functional-element starting material into the at least one recess for a functional element; - bringing the shaped part which is provided with the functional-element starting material into contact with the textile main body; - producing at least one functional element which is connected by a substance-to-substance bond to the textile main body from the functional-element starting material; characterised in that at least two functional elements (146a, 146b) are produced which have a differing degree of Shore A-hardness and/or different heights (H 1, H 2). - producing the textile main body; - providing a shaped part having at least one recess for a functional element for accommodating a functional-element starting material; - introducing the functional-element starting material into the at least one recess for a functional element; - bringing the shaped part which is provided with the functional-element starting material into contact with the textile main body; - producing at least one functional element which is connected by a substance-to-substance bond to the textile main body from the functional-element starting material;
A method for communication device station deployment, comprising: acquiring, by a first communication network device, a station deployment file package corresponding to a second communication network device from a first operation management center, OMC, that corresponds to the first communication network device; establishing a first communication link between the first communication network device and the second communication network device; and transmitting the station deployment file package to the second communication network device, via the first communication link, from the first communication network device, the station deployment file package being configured for the second communication network device to execute station deployment; wherein the first communication network device is a fourth generation, 4G, communication device, the second communication network device is a fifth generation, 5G, communication device, and the first communication link is an Ethernet link within a base station; wherein establishing the first communication link between the first communication network device and the second communication network device comprises: configuring and establishing the first communication link according to configuration information of the first communication link in the station deployment file package. acquiring, by a first communication network device, a station deployment file package corresponding to a second communication network device from a first operation management center, OMC, that corresponds to the first communication network device; establishing a first communication link between the first communication network device and the second communication network device; and transmitting the station deployment file package to the second communication network device, via the first communication link, from the first communication network device, the station deployment file package being configured for the second communication network device to execute station deployment; wherein the first communication network device is a fourth generation, 4G, communication device, the second communication network device is a fifth generation, 5G, communication device, and the first communication link is an Ethernet link within a base station; wherein establishing the first communication link between the first communication network device and the second communication network device comprises: configuring and establishing the first communication link according to configuration information of the first communication link in the station deployment file package.
A tool holder for machine tools comprising a machine-side holder part and a tool-side holder part, a coupling device, which is arranged between the holder parts (1, 2) and which connects the two holder parts (1, 2) to one another with radial play in a rotationally fixed manner, a pretensioning device, which tensions the tool-side holder part against the machine-side holder part and which at least partially surrounds the tool-side holder part, wherein the pretensioning device comprises a plurality of rolling bodies and an elastic plastic ring, wherein an elastic plastic disk, which prevents a vibration transfer between the holder parts (1, 2) and which simultaneously provides for an angle compensation of the tool-side holder part, is arranged between the coupling device and the machine-side holder part, characterized in that the coupling device has a cylindrical coupling means (60, 70, 19), which has a plurality of rolling bodies, wherein the rolling bodies are arranged in the coupling means in such a way that the rolling bodies protrude from two front surfaces of the coupling means.
An absorbent product with a plane extension comprising a longitudinal direction, a transverse direction and a thickness direction, wherein the product comprises an absorption body, which absorption body comprises in its thickness direction a liquid-receiving, open-cell foam layer and a liquid-absorbent fibrous layer, wherein the open-cell liquid-receiving foam layer and the liquid-absorbent fibrous layer comprise two opposite, longitudinally running side edges (106, 107; 110, 111) extending in the longitudinal direction and two opposite transverse edges (108, 109; 112, 113) extending in the transverse direction, wherein the absorbent product is a sanitary napkin, a panty liner or an incontinence protector, characterized in that the liquid-receiving, open-cell foam layer has a total surface in the plane extension of the product that covers the entire surface of the liquid-absorbent, fibrous layer in the plane extension and that each of the longitudinally extending side edges (106, 107) of the liquid-receiving, open-cell foam layer extends at least along a part of its length outside of each of the longitudinally running side edges (110, 111) of the liquid-absorbent, fibrous layer, and that the liquid-receiving, open-cell foam layer consists of polyolefin-based foam, polystyrene-based foam, PVC foam, polyvinyl alcohol foam, acrylate foam, polyurethane foam, epoxy foam, latex foam, urea-formaldehyde foam, melamine-formaldehyde foam, silicone foam, viscose foam, carboxymethyl cellulose foam, starch foam, chitosan foam, alginate foam, polyactide foam, polyglycolide foam or polycaprolactone foam, and has an opacity greater than 35% measured according to the EDANA method WSP 60.1 and an absorption capacity lower than 0.15 of a gram of liquid/cm 3 dry test material measured according to the CRC material layer method, and that the liquid-absorbent, fibrous layer has a bending stiffness greater than 2.0 newtons measured according to the modified Circular Bend Procedure method.
A bending mode transducer comprising: a substrate having a first surface and a second surface, opposite the first surface; a piezoelectric layer on the first surface of the substrate, wherein the piezoelectric layer comprises PZT material and has a thickness of from about 20 μm to about 1000 μm; at least one patterned electrode on the piezoelectric layer; a mounting block on the at least one patterned electrode, the mounting block having a thickness of 0.5 mm to 10.0 mm; and at least two electrical contact points on the at least one patterned electrode. a substrate having a first surface and a second surface, opposite the first surface; a piezoelectric layer on the first surface of the substrate, wherein the piezoelectric layer comprises PZT material and has a thickness of from about 20 μm to about 1000 μm; at least one patterned electrode on the piezoelectric layer; a mounting block on the at least one patterned electrode, the mounting block having a thickness of 0.5 mm to 10.0 mm; and at least two electrical contact points on the at least one patterned electrode.
A process for selectively treating parts of the surface of a porous dental zirconia article, the process comprising the steps of a) providing a liquid composition and a porous 3-dimensional dental zirconia article having an outer and inner surface, b) applying the liquid composition to only a part of the outer surface and/or inner surface of the porous dental zirconia article, the liquid composition comprising - a whitening agent comprising a phosphorous containing component, - the phosphorous containing component comprising a phosphate, phosphone or phosphine moiety, with the proviso that at least one P-O unit of the phosphate, phosphone or phosphine moiety is dissociable or able to interact with zirconia. a) providing a liquid composition and a porous 3-dimensional dental zirconia article having an outer and inner surface, b) applying the liquid composition to only a part of the outer surface and/or inner surface of the porous dental zirconia article, - a whitening agent comprising a phosphorous containing component, - the phosphorous containing component comprising a phosphate, phosphone or phosphine moiety, with the proviso that at least one P-O unit of the phosphate, phosphone or phosphine moiety is dissociable or able to interact with zirconia.