mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device, comprising: a buried dielectric layer having an opening; a carrier channel region, disposed on a front-side of the buried dielectric layer; a first gate structure, disposed on a front-side of the buried dielectric layer; a second gate structure, disposed on a backside of the buried dielectric layer wherein a portion of the buried dielectric layer is disposed between the second gate structure and the carrier channel region, the first gate structure and the second gate structure constituting a double gate structure for the carrier channel region; a first source/drain region and a second source/drain region, disposed between the first gate structure and the second gate structure; a first contact structure (20_2), disposed on the front-side of the buried dielectric layer and electrically coupled to the first source/drain region; an interlayer dielectric disposed on the backside of the buried dielectric layer and covering the second gate structure; and a second contact structure (42_1), disposed on the backside of the buried dielectric layer and electrically coupled to the second source/drain region, characterized in that the second contact structure (42_1) comprises a first portion and a second portion (42_1), the first portion of the second contact structure (42_1) being filled into the opening of the buried dielectric layer, and the second portion (42_1) of the second contact structure (42_1) penetrating the interlayer dielectric. a buried dielectric layer having an opening; a carrier channel region, disposed on a front-side of the buried dielectric layer; a first gate structure, disposed on a front-side of the buried dielectric layer; a second gate structure, disposed on a backside of the buried dielectric layer wherein a portion of the buried dielectric layer is disposed between the second gate structure and the carrier channel region, the first gate structure and the second gate structure constituting a double gate structure for the carrier channel region; a first source/drain region and a second source/drain region, disposed between the first gate structure and the second gate structure; a first contact structure (20_2), disposed on the front-side of the buried dielectric layer and electrically coupled to the first source/drain region; an interlayer dielectric disposed on the backside of the buried dielectric layer and covering the second gate structure; and a second contact structure (42_1), disposed on the backside of the buried dielectric layer and electrically coupled to the second source/drain region, characterized in that the second contact structure (42_1) comprises a first portion and a second portion (42_1), the first portion of the second contact structure (42_1) being filled into the opening of the buried dielectric layer, and the second portion (42_1) of the second contact structure (42_1) penetrating the interlayer dielectric.
An iron-based cast alloy comprising, in weight percent: carbon from 1 to 2 percent; manganese up to 1 percent; silicon up to 1 percent; nickel up to 4 percent; chromium from 10 to 25 percent; molybdenum from 5 to 20 percent; tungsten up to 4 percent; cobalt from 17 to 23 percent; vanadium up to 1.5 percent; boron up to 0.2 percent; sulfur up to 0.03 percent; nitrogen up to 0.4 percent; phosphorus up to 0.06 percent; niobium up to 4 percent; balance iron from 35 to 55 percent; and incidental impurities; and, optionally, the alloy may contain from 0 to 1.5 percent of the other elements aluminum, arsenic, bismuth, copper, calcium, magnesium, nitrogen, phosphorus, lead, sulfur, tin, titanium, yttrium and rare earth elements -lanthanides, zinc, tantalum, selenium, hafnium, and zirconium; wherein the chromium / molybdenum ratio of the iron-based cast alloy is from 1 to 2.5. carbon from 1 to 2 percent; manganese up to 1 percent; silicon up to 1 percent; nickel up to 4 percent; chromium from 10 to 25 percent; molybdenum from 5 to 20 percent; tungsten up to 4 percent; cobalt from 17 to 23 percent; vanadium up to 1.5 percent; boron up to 0.2 percent; sulfur up to 0.03 percent; nitrogen up to 0.4 percent; phosphorus up to 0.06 percent; niobium up to 4 percent; balance iron from 35 to 55 percent; and incidental impurities; and, optionally, the alloy may contain from 0 to 1.5 percent of the other elements aluminum, arsenic, bismuth, copper, calcium, magnesium, nitrogen, phosphorus, lead, sulfur, tin, titanium, yttrium and rare earth elements -lanthanides, zinc, tantalum, selenium, hafnium, and zirconium; wherein the chromium / molybdenum ratio of the iron-based cast alloy is from 1 to 2.5.
Method for the synchronized adaptation of a virtual subset of a telecommunication network referred to as a "network slice", dedicated to an elementary service of a set of services, a more encompassing service being composed of several elementary services to which separate respective slices are dedicated, the telecommunication network comprising a plurality of network slices (TR1, TR2, TR3), said slices (TR1, TR2, TR3) being configured according to a plurality of configuration parameters (P TR1 (i), P TR2 (j), P TR3 (q)), the method comprising at least: - modifying at least one second configuration parameter of at least one second slice, said second slice being dedicated to a second elementary service of a set of services, on the basis of at least one modification of a first configuration parameter of a first slice dedicated to a first elementary service of the set of services. - modifying at least one second configuration parameter of at least one second slice, said second slice being dedicated to a second elementary service of a set of services, on the basis of at least one modification of a first configuration parameter of a first slice dedicated to a first elementary service of the set of services.
An optoelectronic material comprising a compound, wherein the compound comprises: (i) one or more cations, A; (ii) one or more first B cations, B n+, at least one of which is Ag +; (iii) one or more second B cations, B m+, at least one of which is a heptacation, B 7+; and (iv) one or more chalcogen anions, X; wherein the one or more first B cations, B n+ are different from the one or more second B cations, B m+; n represents the oxidation state of the first B cation and is a positive integer of from 1 to 7 inclusive; m represents the oxidation state of the second B cation and is a positive integer of from 1 to 7 inclusive; and n + m is equal to 8. (i) one or more cations, A; (ii) one or more first B cations, B n+, at least one of which is Ag +; (iii) one or more second B cations, B m+, at least one of which is a heptacation, B 7+; and (iv) one or more chalcogen anions, X;
Support for a transcutaneous irradiation module, comprising means for positioning (2, 4; 5) said support on the zone to be irradiated, and at least one ring made from an elastic and/or flexible material and able to provide the fastening via elastic grip of an irradiation module, with the support for an irradiation module comprising a plurality of rings connected together by junction elements by forming a support for a transcranial irradiation module able to be positioned on the head of a user, the support for an irradiation module being characterised in that the rings comprise peripheral rings (2a - 2a1, 2a2, 2a3, 2a4, 2a5) of which some at least are not connected together by junction elements.
A method for a machine type communication, MTC, device in a connected state in a MTC communications system, the method comprising: identifying a first transmission cycle for an uplink channel; identifying a first off cycle with respect to the first transmission cycle for the uplink channel, wherein the MTC device refrains from transmitting during the first off cycle; transmitting a scheduling request or a random access channel message according to the identified first transmission cycle, wherein the MTC device refrains from transmitting the scheduling request or the random access channel message during the first off cycle, wherein: the MTC device is part of a first set of MTC devices utilizing the first transmission cycle, wherein the first transmission cycle is staggered from a second transmission utilized by a second set of MTC devices; and utilizing a discontinuous reception, DRX, cycle mask comprising DRX ON durations and DRX OFF durations, wherein the MTC device refrains from receiving during the DRX OFF durations during a reception cycle, wherein the transmission of the scheduling request or the random access channel message is in accordance with the DRX cycle mask. identifying a first transmission cycle for an uplink channel; identifying a first off cycle with respect to the first transmission cycle for the uplink channel, wherein the MTC device refrains from transmitting during the first off cycle; transmitting a scheduling request or a random access channel message according to the identified first transmission cycle, wherein the MTC device refrains from transmitting the scheduling request or the random access channel message during the first off cycle, wherein: the MTC device is part of a first set of MTC devices utilizing the first transmission cycle, wherein the first transmission cycle is staggered from a second transmission utilized by a second set of MTC devices; and utilizing a discontinuous reception, DRX, cycle mask comprising DRX ON durations and DRX OFF durations, wherein the MTC device refrains from receiving during the DRX OFF durations during a reception cycle, wherein the transmission of the scheduling request or the random access channel message is in accordance with the DRX cycle mask. the MTC device is part of a first set of MTC devices utilizing the first transmission cycle, wherein the first transmission cycle is staggered from a second transmission utilized by a second set of MTC devices; and utilizing a discontinuous reception, DRX, cycle mask comprising DRX ON durations and DRX OFF durations, wherein the MTC device refrains from receiving during the DRX OFF durations during a reception cycle, wherein the transmission of the scheduling request or the random access channel message is in accordance with the DRX cycle mask.
Coupling element for coupling a cover to a piece of furniture, such as a chair or table, for the purpose of covering the piece of furniture, comprising - a housing, comprising ▪ first coupling means adapted to couple the coupling element to the piece of furniture and comprising a first receiving space for clampingly receiving an extremity of the piece of furniture, and ▪ second coupling means adapted to couple the coupling element to the cover and comprising a second receiving space for receiving at least a part of the cover, characterised by - a cap acting as locking element which is displaceable relative to the housing and adapted to at least partially close the second receiving space in locking manner. - a housing, comprising ▪ first coupling means adapted to couple the coupling element to the piece of furniture and comprising a first receiving space for clampingly receiving an extremity of the piece of furniture, and ▪ second coupling means adapted to couple the coupling element to the cover and comprising a second receiving space for receiving at least a part of the cover, characterised by ▪ first coupling means adapted to couple the coupling element to the piece of furniture and comprising a first receiving space for clampingly receiving an extremity of the piece of furniture, and ▪ second coupling means adapted to couple the coupling element to the cover and comprising a second receiving space for receiving at least a part of the cover, characterised by - a cap acting as locking element which is displaceable relative to the housing and adapted to at least partially close the second receiving space in locking manner.
Turnstile (a, b) comprising a passage between a turnstile housing and a guide- and limiting barrier and comprising an at least single-winged blocking member in the passage and an access-side reading device (8a, 8b), the front plate of which is fitted into an opening in a wall (4a, 4b) of the turnstile housing and which, after an access card has been read out, brings the blocking member into a position that clears the passage, characterised in that the reading device (8a, 8b) can be lowered completely into the turnstile housing when the turnstile is not in use.
Method for extracting a nucleic acid from a sample liquid, comprising the following steps: - providing a heating element; - providing an extraction nucleic acid that is bound to the heating element and/or providing the extraction nucleic acid such that the extraction nucleic acid binds to the heating element, wherein the extraction nucleic acid is at least partly complementary to the nucleic acid to be extracted from the sample liquid; - bringing the heating element into contact with the sample liquid such that the nucleic acid to be extracted from the sample liquid at least partly binds to the extraction nucleic acid; - separating the heating element from the sample liquid such that the nucleic acid bound to the extraction nucleic acid remains at the heating element; - bringing the heating element into contact with a reaction solution; - heating the heating element to a temperature that is equal to or higher than a denaturing temperature of the nucleic acid bound to the extraction nucleic acid. - providing a heating element; - providing an extraction nucleic acid that is bound to the heating element and/or providing the extraction nucleic acid such that the extraction nucleic acid binds to the heating element, wherein the extraction nucleic acid is at least partly complementary to the nucleic acid to be extracted from the sample liquid; - bringing the heating element into contact with the sample liquid such that the nucleic acid to be extracted from the sample liquid at least partly binds to the extraction nucleic acid; - separating the heating element from the sample liquid such that the nucleic acid bound to the extraction nucleic acid remains at the heating element; - bringing the heating element into contact with a reaction solution; - heating the heating element to a temperature that is equal to or higher than a denaturing temperature of the nucleic acid bound to the extraction nucleic acid.
A driving assistance device, which is configured to acquire running environment information of a vehicle, set one or more driving assistance means (240, 340, 380) suitable for the running environment information, and assist a driving operation of the vehicle by combining the set one or more driving assistance means, the driving assistance device comprising: determining means (210, 310, 350), which is configured to determine reliability of the acquired running environment information; and selecting means (230, 330, 370), which is configured to select one of the settable driving assistance means capable of improving fuel economy in accordance with the determined reliability of the running environment information, the driving assistance device being characterized in that, the determining means is configured to determine the reliability of the acquired running environment information and classify the reliability into three stages, i.e., "high," "middle," and "low," when the determined reliability is "high," the selecting means is configured to execute, as the driving assistance, driving assistance by outputting an image or sound through the display device or the sound device mounted in the vehicle, when the determined reliability is "middle," the selecting means is configured to execute, as the driving assistance, a driving assistance through driving force control, and when the determined reliability is "low," the selecting means is configured to execute, as the driving assistance, a driving assistance through non-driving force control. determining means (210, 310, 350), which is configured to determine reliability of the acquired running environment information; and selecting means (230, 330, 370), which is configured to select one of the settable driving assistance means capable of improving fuel economy in accordance with the determined reliability of the running environment information, the driving assistance device being characterized in that, the determining means is configured to determine the reliability of the acquired running environment information and classify the reliability into three stages, i.e., "high," "middle," and "low," when the determined reliability is "high," the selecting means is configured to execute, as the driving assistance, driving assistance by outputting an image or sound through the display device or the sound device mounted in the vehicle, when the determined reliability is "middle," the selecting means is configured to execute, as the driving assistance, a driving assistance through driving force control, and when the determined reliability is "low," the selecting means is configured to execute, as the driving assistance, a driving assistance through non-driving force control.
A method of operating an aircraft engine having a bladed rotor coupled thereto during an icing condition, the method characterised by comprising: controlling the aircraft engine to alternatingly achieve an ice accretion rotational speed of the bladed rotor at which ice accretion on blades of the bladed rotor occurs, and a reduced rotational speed of the bladed rotor to promote ice shedding from the blades of the bladed rotor, the reduced rotational speed being lower than the ice accretion rotational speed.
A compound of formula, wherein R 1, R 2, and R 3 are each independently selected from the group consisting of alkylenyl, alkenylenyl, and alkynylenyl, wherein said alkylenyl, alkenylenyl, and alkynylenyl are each independently, at each occurrence, substituted or unsubstituted with one or more suitable substituents; k, l, and m are each independently an integer selected from the group consisting of 0 to 25, wherein k + I + m is > 0; and x + y + z is 3, wherein x is 1, y is 1, z is 1; provided that: when k is 1, I is 1, and m is 1, then R 1, R 2, and R 3 are not simultaneously unsubstituted C 2 -alkylenyl. R 1, R 2, and R 3 are each independently selected from the group consisting of alkylenyl, alkenylenyl, and alkynylenyl, wherein said alkylenyl, alkenylenyl, and alkynylenyl are each independently, at each occurrence, substituted or unsubstituted with one or more suitable substituents; k, l, and m are each independently an integer selected from the group consisting of 0 to 25, wherein k + I + m is > 0; and x + y + z is 3, wherein x is 1, y is 1, z is 1; provided that: when k is 1, I is 1, and m is 1, then R 1, R 2, and R 3 are not simultaneously unsubstituted C 2 -alkylenyl.
A vacuum cleaner comprising: a housing having a suction nozzle; a separation module having at least one separator chamber defining a central axis and an air outlet; a suction source fluidly connected to the suction nozzle and to the separation module for establishing and maintaining a dirt-containing working airstream from the suction nozzle to the at least one separator chamber; and an exhaust grill (82, 162) positioned downstream of the at least one separator chamber and upstream of the air outlet, and comprising: a plurality of louvers (106, 192); and a plurality of inlets (146, 198) defined between adjacent louvers; characterized in that at least one of the louvers comprises an upstream surface (154, 206) with an airfoil tip (156, 208) curved outwardly away from the inlets to deflect dirt away from at least one of the plurality of inlets. a housing having a suction nozzle; a separation module having at least one separator chamber defining a central axis and an air outlet; a suction source fluidly connected to the suction nozzle and to the separation module for establishing and maintaining a dirt-containing working airstream from the suction nozzle to the at least one separator chamber; and an exhaust grill (82, 162) positioned downstream of the at least one separator chamber and upstream of the air outlet, and comprising: a plurality of louvers (106, 192); and a plurality of inlets (146, 198) defined between adjacent louvers; characterized in that at least one of the louvers comprises an upstream surface (154, 206) with an airfoil tip (156, 208) curved outwardly away from the inlets to deflect dirt away from at least one of the plurality of inlets. a plurality of louvers (106, 192); and a plurality of inlets (146, 198) defined between adjacent louvers; characterized in that at least one of the louvers comprises an upstream surface (154, 206) with an airfoil tip (156, 208) curved outwardly away from the inlets to deflect dirt away from at least one of the plurality of inlets.
Carbon brush with disconnection apparatus, which, in a cavity in the brush body, has a disconnection body consisting of electrically insulating material and having a preloaded compression-spring body acting resiliently on the disconnection body, the compression-spring body and/or the disconnection body being formed of plastic, characterized in that the compression-spring body has at one end a cylindrical extension in one piece therewith, which is pressed into the cavity as a press-in part and is held therein tightly and firmly by a press fit.
An open water navigation apparatus for use by a swimmer, the navigation apparatus comprising: a pair of swim goggles having a right lens, a left lens, and a head strap; a navigation module that includes a GPS engine, an electrical power source, and a controller contained in a housing; and a navigational signal output mechanism connected for signal communications to the navigation module, characterized in that the navigation module is retained on the head strap of the pair of swim goggles, and the navigational signal output mechanism is a pair of vibration modules (262, 264) that are configured to attach to the head strap such that the vibration modules (262, 264) are located in use proximate to the swimmer's temples. a pair of swim goggles having a right lens, a left lens, and a head strap; a navigation module that includes a GPS engine, an electrical power source, and a controller contained in a housing; and a navigational signal output mechanism connected for signal communications to the navigation module, characterized in that the navigation module is retained on the head strap of the pair of swim goggles, and the navigational signal output mechanism is a pair of vibration modules (262, 264) that are configured to attach to the head strap such that the vibration modules (262, 264) are located in use proximate to the swimmer's temples.