mhurhangee/ep-ind-claims huggingface dataset:
A method for managing data in a passenger cabin equipped with a standardized architecture (10a to 10f) for distributing data streams (F1, F2) between data resources (211 to 213) of a systems part comprising an audiovisual transmission system, systems for outward communication from the cabin and/or cabin systems, and a part for utilization of these data consisting on cabin devices (E1 to E4) recipient via a conversion of data into optical signals, distributed to these devices via an interface, the transmission of data can be conducted in both upstream and downstream directions characterized in that, the data of each resource being electrical signals, conversion into analog, optical or hertzian signals, it consists in transmitting, in a so-called downgoing direction, the data supplied by at least one system of the systems part to a single concentration and configuration interface which steers the data of the resources (211 to 213) according to the recipient device (E1 to E4), converts the non-optical data into optical signals, and then allocates wavelengths to the optical signals and distributes them by multiplexing and parametrization of priorities as a function of the recipient devices (E1 to E4) and/or resources (211 to 213) as a function of the devices for a given resource, so as to transmit these multiplexed streams of optical signals on a pathway (2; 2a, 2'a; 2b) of at least one optical distribution network (20 to 22) to the recipient devices (E1 to E4) of the utilization part via an intermediate interface (30, 40) which manages the wavelengths of the optical signals and reconverts them into signals suited to the devices (E1 to E4) if relevant, and in that the transmission of data is also undertaken in the reverse so-called upgoing direction according to a processing reversed at each interface (30, 40) from devices (E1 to E4) of the cabin to the resources concerned (210; 211 to 213) via the intermediate interface (30, 40) as a function of the resource concerned (211 to 213), the optical distribution network (20 to 22) and then the concentration and configuration interface which transmits them to the resource concerned (211 to 213).
A method of operating a wireless device in a communication network, the method comprising: obtaining a list of time domain resource allocations, TDRAs, from a network node of the communication network; receiving downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, for reception by the wireless device, the received DCI indicating one or more transmission configuration indicator, TCI, states and one or more code domain multiplexed, CDM, groups associated with one or more demodulation reference signal, DMRS, ports; selecting a TDRA from the list of TDRAs based on the received DCI; and characterized by: determining a PDSCH transmission scheme including one or more transmission points, TRPs, based jointly on a number of PDSCH transmission repetitions configured for the selected TDRA, number of indicated TCI states and number of indicated CDM groups. obtaining a list of time domain resource allocations, TDRAs, from a network node of the communication network; receiving downlink control information, DCI, scheduling a physical downlink shared channel, PDSCH, for reception by the wireless device, the received DCI indicating one or more transmission configuration indicator, TCI, states and one or more code domain multiplexed, CDM, groups associated with one or more demodulation reference signal, DMRS, ports; selecting a TDRA from the list of TDRAs based on the received DCI; and characterized by: determining a PDSCH transmission scheme including one or more transmission points, TRPs, based jointly on a number of PDSCH transmission repetitions configured for the selected TDRA, number of indicated TCI states and number of indicated CDM groups.
A semiconductor package, comprising: a semiconductor die comprising extra-low-K dielectric layers and having a die pad thereon; and a conductive pillar bump structure overlying the die pad, wherein the conductive pillar bump structure comprises: an under bump metallurgy stack having a first diameter (Di) and comprising: a first metal layer in contact with the die pad of the semiconductor die; and a second metal pad overlying the first metal layer; and a conductive plug on the UBM stack and in contact with the second metal pad, wherein the conductive plug has a second diameter that is smaller than the first diameter (Di); characterized in that a ratio of a thickness of the conductive plug to a thickness (Ti) of the second metal pad is from 1 to 1.5. a semiconductor die comprising extra-low-K dielectric layers and having a die pad thereon; and a conductive pillar bump structure overlying the die pad, wherein the conductive pillar bump structure comprises: an under bump metallurgy stack having a first diameter (Di) and comprising: a first metal layer in contact with the die pad of the semiconductor die; and a second metal pad overlying the first metal layer; and a conductive plug on the UBM stack and in contact with the second metal pad, wherein the conductive plug has a second diameter that is smaller than the first diameter (Di); characterized in that a ratio of a thickness of the conductive plug to a thickness (Ti) of the second metal pad is from 1 to 1.5. an under bump metallurgy stack having a first diameter (Di) and comprising: a first metal layer in contact with the die pad of the semiconductor die; and a second metal pad overlying the first metal layer; and a first metal layer in contact with the die pad of the semiconductor die; and a second metal pad overlying the first metal layer; and a conductive plug on the UBM stack and in contact with the second metal pad, wherein the conductive plug has a second diameter that is smaller than the first diameter (Di); characterized in that a ratio of a thickness of the conductive plug to a thickness (Ti) of the second metal pad is from 1 to 1.5.
An optical device (10, 110) comprising: a fiber Bragg grating (20, 120) comprising a substantially periodic refractive index modulation along a length of the fiber Bragg grating, wherein the fiber Bragg grating (20, 120) has a power transmission spectrum as a function of wavelength comprising a plurality of transmission peaks, the transmission peaks each having a maximum power at a transmission peak wavelength, the fiber Bragg grating (20, 120) having a group index spectrum as a function of wavelength; and a narrowband optical source (30, 130) in optical communication with a first optical path (31, 131) and a second optical path (32, 132), the narrowband optical source (30, 130) configured to generate light, the device configured to split the light into a first portion (33a, 133a) and a second portion (33b, 133b), the first portion transmitted along the first optical path (31, 131) extending along and through the length of the fiber Bragg grating (20, 120) at a group velocity, wherein the light has a wavelength at or in the vicinity of a wavelength at which one or more of the following quantities is at a maximum value: (a) the product of the group index spectrum and a square root of the power transmission spectrum, (b) the slope of a product of the group index spectrum and one minus the power transmission spectrum, and (c) the slope of a product of the group index spectrum and the power transmission spectrum. a fiber Bragg grating (20, 120) comprising a substantially periodic refractive index modulation along a length of the fiber Bragg grating, wherein the fiber Bragg grating (20, 120) has a power transmission spectrum as a function of wavelength comprising a plurality of transmission peaks, the transmission peaks each having a maximum power at a transmission peak wavelength, the fiber Bragg grating (20, 120) having a group index spectrum as a function of wavelength; and a narrowband optical source (30, 130) in optical communication with a first optical path (31, 131) and a second optical path (32, 132), the narrowband optical source (30, 130) configured to generate light, the device configured to split the light into a first portion (33a, 133a) and a second portion (33b, 133b), the first portion transmitted along the first optical path (31, 131) extending along and through the length of the fiber Bragg grating (20, 120) at a group velocity, wherein the light has a wavelength at or in the vicinity of a wavelength at which one or more of the following quantities is at a maximum value: (a) the product of the group index spectrum and a square root of the power transmission spectrum, (b) the slope of a product of the group index spectrum and one minus the power transmission spectrum, and (c) the slope of a product of the group index spectrum and the power transmission spectrum.
A system comprising a rod assembly and a clamping device, wherein the rod assembly is attached to the clamping device and the rod assembly comprising a first shaft, a second shaft and a biasing device, wherein said biasing device is configured to return to a rest position when the biasing device is subjected to a first compression by said first shaft; characterized in that said rod assembly configured to provide: a first tension by said second shaft in which the first tension causes a second compression of an object by the clamping device, in which the first compression causes a second tension of the object by the clamping device, in which elongation of the rod assembly simultaneously occurs with the first tension and the second compression, in which elongation of the rod assembly simultaneously occurs with the second tension and the first compression; wherein the first shaft is partially disposed within a tubular housing component and the first shaft being attached to a first end of the biasing device; and wherein the second shaft is partially disposed within the tubular housing component and the second shaft being attached to a second end of the biasing device; wherein the biasing device is placed inside the tubular housing component and wherein the tubular housing component is internally threaded on one end, wherein the first shaft is externally threaded, and wherein the first shaft is screwable into the tubular housing component at the end of the tubular housing component that is internally threaded.
A pallet for transporting products thereon, the pallet comprising: a top with a product supporting surface and an opposing underside, four feet (14, 16) and at least four sides (18, 20, 22, 24), wherein the four feet each extend away from the underside of the top, have a first opening facing out through the product supporting surface, the feet thus allowing stacking of a plurality of such pallets with the feet of a first such pallet extending into the first openings of a second such pallet; wherein one or more grooves are provided on or within a T-shaped edge recess disposed on one or more of the at least four sides wherein the one or more grooves is provided at a lower edge of the top; and wherein the one or more grooves are for defining banding locations. a top with a product supporting surface and an opposing underside, four feet (14, 16) and at least four sides (18, 20, 22, 24), wherein the four feet each extend away from the underside of the top, have a first opening facing out through the product supporting surface, the feet thus allowing stacking of a plurality of such pallets with the feet of a first such pallet extending into the first openings of a second such pallet; wherein one or more grooves are provided on or within a T-shaped edge recess disposed on one or more of the at least four sides wherein the one or more grooves is provided at a lower edge of the top; and wherein the one or more grooves are for defining banding locations.
A thermoplastic resin composition comprising: 100 parts by weight of an ethylene-propylene block copolymer: 0.3 parts by weight to 5 parts by weight of a metal phosphinate compound; 0.5 parts by weight to 5 parts by weight of a phosphorus nitrogen-based flame retardant; and 0.01 parts by weight to 0.2 parts by weight of a bromine-based flame retardant. 100 parts by weight of an ethylene-propylene block copolymer: 0.3 parts by weight to 5 parts by weight of a metal phosphinate compound; 0.5 parts by weight to 5 parts by weight of a phosphorus nitrogen-based flame retardant; and 0.01 parts by weight to 0.2 parts by weight of a bromine-based flame retardant.
Stator and/or rotor stage of a turbomachine, in particular of a gas turbine of an aircraft engine, comprising at least one blade and at least one flow-limiting wall, the blade comprising a leading edge and a trailing edge and being connected to the wall at least at one radial end, the trailing edge having an indentation in the region of a transition with the wall, and comprising at least one projection which is spaced apart from the blade, is arranged on the wall and extends into a flow volume, the projection being arranged in the region of the indentation of the trailing edge of the blade, characterized in that the projection is plate-shaped.
A suction excavator having: - a vehicle chassis; - a suction fan that generates a suction flow; - a dumpable material collection container that has a collection chamber and is swivelable about a tilt axis that extends parallel to the vehicle longitudinal axis, between a working position and an emptying position, in which a collection chamber opening is in a lower position in order to evacuate by gravity the material contained in the collection chamber; - a filter unit that is rotatably mounted on a rotational axis that extends parallel to the tilt axis of the material collection container, and that is situated in a filter chamber in the material collection container, behind the collection chamber in the suction flow direction, and contains at least one filter element through which the suction flow passes; characterized in that the rotational axis is supported on the collection container and in that at least one locking element is provided, which in the locked state fixes the position of the filter unit in the filter chamber and blocks rotation about the rotational axis, while in the unlocked state, swiveling of the filter unit about the rotational axis is enabled in order to swivel the filter unit out of the filter chamber, at least in sections, and in that the center of gravity of the filter unit is situated in relation to the rotational axis in such a way that the filter unit, at least in sections, automatically swivels out of the filter chamber by gravity during the transition from the working position into the emptying position, and with the locking element unlocked. - a vehicle chassis; - a suction fan that generates a suction flow; - a dumpable material collection container that has a collection chamber and is swivelable about a tilt axis that extends parallel to the vehicle longitudinal axis, between a working position and an emptying position, in which a collection chamber opening is in a lower position in order to evacuate by gravity the material contained in the collection chamber; - a filter unit that is rotatably mounted on a rotational axis that extends parallel to the tilt axis of the material collection container, and that is situated in a filter chamber in the material collection container, behind the collection chamber in the suction flow direction, and contains at least one filter element through which the suction flow passes;
A UDP-glycosyltransferase fusion enzyme having the amino acid sequence as set forth in SEQ. ID. NO:5 in which a EUGT11 UDP- glycosyltransferase domain having the amino acid sequence as set forth in SEQ. ID. NO:1 is linked via a GSG linker to an Arabidopsis thaliana sucrose synthase 1 (AtSUS1) domain having the amino acid sequence as set forth in SEQ. ID. NO:3.
A washing machine including: a tub provided within an outer body, a drum, rotatably supported inside the tub, at least one heater aimed at generating steam to be provided to the tub, characterized in that the heater is integrated into the back of the tub, between a rear portion of the drum and an outer rear wall of the tub, wherein the back portion of the tub comprises a seat for housing the heater, a cover is provided to be coupled to the outer wall of the tub so as to close the seat of the heater from outside the tub and the heater is fixed to the cover, wherein the heater, when mounted, closes in a water tight manner an opening in the outer rear wall of the tub.
An image processing apparatus for performing color tone conversion on a predetermined original image data using a predetermined color tone conversion parameter which is adjusted such that color tones of an output result obtained by outputting the original image data after being performed with the color tone conversion parameter by a target image output unit reproduces color tones of a reference output result, comprising: a converting degree parameter obtaining unit configured to obtain a converting degree parameter expressing a degree to be changed by the color tone conversion for each of a predetermined range of the original image data based on at least one of the original image data, reference image data obtained from the reference output result and target image data obtained from a target output result which is obtained by outputting the original image data by the target image output apparatus, said predetermined range being defined as a pixel or a group of pixels based on pixel correspondence data between the reference image data and the target image data established by a pixel correspondence data generating unit; a weighted value determination unit configured to determine weighted values (Wc, Wd) for each of the predetermined range such that the lower the degree to be changed by the color tone conversion is, the smaller the value (Wc, Wd) becomes, based on the converting degree parameter obtained by the converting degree parameter obtaining unit; a converted image data generating unit configured to generate weight-applied converted original image data obtained by performing the color tone conversion by the color tone conversion parameter while applying the weighted values (Wc, Wd), on the original image data for each of the predetermined range. a converting degree parameter obtaining unit configured to obtain a converting degree parameter expressing a degree to be changed by the color tone conversion for each of a predetermined range of the original image data based on at least one of the original image data, reference image data obtained from the reference output result and target image data obtained from a target output result which is obtained by outputting the original image data by the target image output apparatus, said predetermined range being defined as a pixel or a group of pixels based on pixel correspondence data between the reference image data and the target image data established by a pixel correspondence data generating unit; a weighted value determination unit configured to determine weighted values (Wc, Wd) for each of the predetermined range such that the lower the degree to be changed by the color tone conversion is, the smaller the value (Wc, Wd) becomes, based on the converting degree parameter obtained by the converting degree parameter obtaining unit; a converted image data generating unit configured to generate weight-applied converted original image data obtained by performing the color tone conversion by the color tone conversion parameter while applying the weighted values (Wc, Wd), on the original image data for each of the predetermined range.
A set comprising: an ink comprising water, a urethane resin having a glass transition temperature of 0 degrees C or lower, a pigment, a compound represented by the following Chemical formula 1, and a surfactant; and a cleaning liquid comprising water, a compound represented by the following Chemical formula 1, a glycol ether compound, and a surfactant, where Me represents a methyl group, R 1 represents an alkyl group having 1 to 4 carbon atoms. an ink comprising water, a urethane resin having a glass transition temperature of 0 degrees C or lower, a pigment, a compound represented by the following Chemical formula 1, and a surfactant; and a cleaning liquid comprising water, a compound represented by the following Chemical formula 1, a glycol ether compound, and a surfactant, where Me represents a methyl group, R 1 represents an alkyl group having 1 to 4 carbon atoms.
A polyamide comprising the repeat unit of following formula I: wherein the polyamide is a copolymer comprising other repeat units different from the unit of formula I, said repeat units different from the unit of formula I resulting from comonomers, characterized in that said copolymer comprises 0.5 to 10 mol% of repeat unit of formula I, calculated on the total amount of monomers introduced for the preparation of the copolymer and further characterized in that said copolymer is chosen in the group consisting of: PA THF/6, PA THF/11, PA THF/12, PA THF/66, and PA THF/66/6.
A data center system (200, 300), comprising: a plurality of frame assemblies (110, 210, 310) separated from each other such that they are arranged in separated rows (105, 208, 308), wherein each one of the separated frame assemblies comprises: a plurality of bays (212, 312) defined along a lengthwise dimension of the frame assembly (110, 210, 310), the plurality of bays (212, 312) arranged in a plurality of stacked layers of bays (212, 312), the plurality of stacked layers comprising at least a first layer of bays (212, 312) and a second layer of bays (212, 312) positioned vertically above the first layer of bays (212, 312); a plurality of server racks (114, 214, 314, 315, 317) positioned in the bays (212, 312) of the first layer of bays (212, 312) of the frame assemblies, each of the server racks (114, 214, 314, 315, 317) configured to support a plurality of data center server devices that define an amount of computing power; and a plurality of network switches (230, 330) positioned in the bays (212, 312) of the second layer of bays (212, 312), each of the network switches (230, 330) communicably coupled to at least one of the data center server devices in the first layer of bays (212, 312) of the frame assemblies. a plurality of bays (212, 312) defined along a lengthwise dimension of the frame assembly (110, 210, 310), the plurality of bays (212, 312) arranged in a plurality of stacked layers of bays (212, 312), the plurality of stacked layers comprising at least a first layer of bays (212, 312) and a second layer of bays (212, 312) positioned vertically above the first layer of bays (212, 312); a plurality of server racks (114, 214, 314, 315, 317) positioned in the bays (212, 312) of the first layer of bays (212, 312) of the frame assemblies, each of the server racks (114, 214, 314, 315, 317) configured to support a plurality of data center server devices that define an amount of computing power; and a plurality of network switches (230, 330) positioned in the bays (212, 312) of the second layer of bays (212, 312), each of the network switches (230, 330) communicably coupled to at least one of the data center server devices in the first layer of bays (212, 312) of the frame assemblies.