mhurhangee/ep-ind-claims huggingface dataset:
A television pedestal comprising: a base, the base being provided with a first threaded through hole; a holding block, a bottom of which comprises a second threaded hole corresponding to the first threaded through hole, and a first bolt for going through the first threaded through hole and the second threaded hole to connect the base with the holding block, wherein the holding block is used for connecting with a backplane of a television body and positioned inside a back cover of the television body when the television pedestal is connected with the television body, characterized in that the holding block is in a cuboid shape, and an extension part extends from a top surface of the holding block towards a direction facing away from a bottom surface thereof, wherein when the television pedestal is connected with the television body, the top surface of the holding block and a front surface of the extension part are used for attaching to the backplane, and a back surface of the extension part is opposite to an inner surface of the back cover, the bottom surface of the holding block is flush with a bottom surface of the television body. a base, the base being provided with a first threaded through hole; a holding block, a bottom of which comprises a second threaded hole corresponding to the first threaded through hole, and a first bolt for going through the first threaded through hole and the second threaded hole to connect the base with the holding block, wherein the holding block is used for connecting with a backplane of a television body and positioned inside a back cover of the television body when the television pedestal is connected with the television body, characterized in that the holding block is in a cuboid shape, and an extension part extends from a top surface of the holding block towards a direction facing away from a bottom surface thereof, wherein when the television pedestal is connected with the television body, the top surface of the holding block and a front surface of the extension part are used for attaching to the backplane, and a back surface of the extension part is opposite to an inner surface of the back cover, the bottom surface of the holding block is flush with a bottom surface of the television body.
A product comprising a substrate and an ALD-deposited material comprising at least one layer of a first material coated with at least one layer of another material, the layers of materials A and B having at least one common interface, characterised by being deposited in a temperature between about 200 °C and about 320 °C, the thickness of each material A layer being in the range about 2 nm to about 20 nm, the thickness of each material B layer being in the range 0.1 - 1.5 nm and the total effective refractive index of the total layer structure A+B being greater than 2.20 at a wavelength of 600 nm, and by material A being selected from at least one of the group consisting of titanium oxide, tantalum oxide, niobium oxide, hafnium oxide, zirconium oxide, zinc sulphide and combinations of these, and material B being selected from at least one of the group consisting of aluminium oxide, silicon oxide, lanthanide oxides, tantalum oxide, hafnium oxide, zirconium oxide and niobium oxide and combinations of these.
A system for providing multivariate climate change forecasting comprising: one or more processors and memory, and machine-readable instructions stored in the memory that, upon execution by the one or more processors cause the system to carry out operations comprising: obtaining, from one or more climate model datasets, climate model data comprising simulated historical climate model data used in one or more climate models and simulated future climate model data from the one or more climate models; obtaining, from one or more climate observational datasets, observational data comprising historical observed climate data; providing a statistical distribution of extremes or climate indices for one or more variable climate features using the climate model data and the observational model data; determining one or more metrics from the variable climate features, each of the metrics comprising: a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and outputting the one or more metrics to an output device. obtaining, from one or more climate model datasets, climate model data comprising simulated historical climate model data used in one or more climate models and simulated future climate model data from the one or more climate models; obtaining, from one or more climate observational datasets, observational data comprising historical observed climate data; providing a statistical distribution of extremes or climate indices for one or more variable climate features using the climate model data and the observational model data; determining one or more metrics from the variable climate features, each of the metrics comprising: a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and a prediction of a future climate variable for a determined future time period, a confidence bound of the prediction of the future climate variable for the determined future time period, and a prediction bound for the future climate variable for the determined future time period; and outputting the one or more metrics to an output device.
A soil tillage implement for the agricultural processing of soil, in particular, for the surface cutting of soil, comprising a base body as well as cutting elements arranged on it, wherein the base body comprises a support surface and a sliding surface, wherein cutting elements are arranged on the support surface and wherein soil can slide off across the sliding surface, wherein the sliding surface connects to the support surface tilted at an angle (α) in such a way that a distance of the sliding surface to a lower part of the soil that is cut through increases away from the support surface.
A method of making a book or booklet cover including a metal sheet supporting a sheet-like information carrier comprising the steps of: - placing a first face of the sheet-like information carrier on a first side of the metal sheet, which metal sheet extends at least beyond one edge of the sheet-like information carrier; - bending in a rounding way a portion of the metal sheet along an edge thereof, for said portion to bear against and to elastically press on said sheet-like information carrier, thereby forming the book or booklet cover, wherein the edge is bent in an angle of 270 degrees or more in relation to an unbent edge of the metal sheet. - placing a first face of the sheet-like information carrier on a first side of the metal sheet, which metal sheet extends at least beyond one edge of the sheet-like information carrier; - bending in a rounding way a portion of the metal sheet along an edge thereof, for said portion to bear against and to elastically press on said sheet-like information carrier, thereby forming the book or booklet cover, wherein the edge is bent in an angle of 270 degrees or more in relation to an unbent edge of the metal sheet.
Timepiece, characterised in that it comprises: - a case in which a housing volume is made; - display hands (61, 62, 63) pivotably mounted in the housing volume; - a movement, configured to drive the display hands in rotation, one complete rotation of the display hands defining a sweeping surface; - a display screen positioned in the housing volume below the level of the display hands, a first part of the sweeping surface being superimposed on said display screen and a second part of the sweeping surface not being superimposed on said display screen, characterised in that the timepiece further comprises: - a control circuit configured to sequentially switch between first and second operating modes, with: ∘ a first operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen. - a case in which a housing volume is made; - display hands (61, 62, 63) pivotably mounted in the housing volume; - a movement, configured to drive the display hands in rotation, one complete rotation of the display hands defining a sweeping surface; - a display screen positioned in the housing volume below the level of the display hands, a first part of the sweeping surface being superimposed on said display screen and a second part of the sweeping surface not being superimposed on said display screen, characterised in that the timepiece further comprises: - a control circuit configured to sequentially switch between first and second operating modes, with: ∘ a first operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen. ∘ a first operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) in the first and second parts of the sweeping surface in order to display a piece of chronometric information; ∘ a second operating mode in which the control circuit controls the driving of the display hands (61, 62, 63) only in the second part of the sweeping surface in order to display a piece of chronometric information and in which the control circuit controls the display of a piece of information by the display screen.
A continuous process for obtaining a precious-metal-rich composition from a feedstock material, the process comprising the steps of: (i) heating a feedstock material in a plasma furnace to form an upper slag layer and a lower molten metal layer; (ii) removing the slag layer; (iii) removing the molten metal layer; (iv) allowing the removed molten metal layer to solidify; (v) fragmenting the solidified metal layer to form fragments; and (vi) recovering a precious-metal-rich composition from the fragments; wherein the feedstock material comprises a precious-metal-containing material and a collector metal, said collector metal being a metal or an alloy that is capable of forming a solid solution, an alloy or an intermetallic compound with one or more precious-metals, wherein the removed molten metal layer is cast onto a casting table to solidify it. (i) heating a feedstock material in a plasma furnace to form an upper slag layer and a lower molten metal layer; (ii) removing the slag layer; (iii) removing the molten metal layer; (iv) allowing the removed molten metal layer to solidify; (v) fragmenting the solidified metal layer to form fragments; and (vi) recovering a precious-metal-rich composition from the fragments; wherein the feedstock material comprises a precious-metal-containing material and a collector metal, said collector metal being a metal or an alloy that is capable of forming a solid solution, an alloy or an intermetallic compound with one or more precious-metals, wherein the removed molten metal layer is cast onto a casting table to solidify it.
High-intensity active composition for pyrotechnic infra-red decoys, comprising a first fuel, at least one second fuel, an oxidizer and a binder, the first fuel and the oxidizer being selected in terms of their redox potentials in such a way that the oxidizer is able to oxidize the first fuel after ignition in an exothermic reaction, with formation of a primary flame and emission of infra-red radiation, the primary flame being an anaerobic flame, the second fuel in the course of the reaction being ignited, heated and/or pyrolysed and released from the high-intensity active composition, the second fuel being selected such that its redox potential or the redox potential of at least one pyrolysis product of the second fuel is higher than the redox potential of the first fuel and such that the heated or ignited second fuel or the pyrolysis product is able to burn in air, the amount of the oxidizer present in the high-intensity active composition being no more than the amount just sufficient to oxidize fully the first fuel, where the amount of oxidizer present in the high-intensity active composition is made such that the number of electrons to be given off in redox reactions by the total fuel in the high-intensity active composition exceeds the number of electrons which can be accepted by the oxidizer by a factor of at least 4, where the oxidizer is a halogen-containing polymer or a carbon fluoride, where the first fuel comprises magnesium, calcium, lithium, aluminium or an alloy or mixture of at least two of these metals, where the second fuel comprises aluminium, magnesium, titanium, zirconium, hafnium, niobium, tungsten, manganese, iron, nickel, cobalt, zinc, tin, lead, bismuth, an alloy or mixture of at least two of these metals, a zirconium-nickel alloy or mixture, an aluminium-magnesium alloy or mixture, a lithium-aluminium alloy or mixture, a lithium-silicon alloy or mixture, a calcium-aluminium alloy or mixture, an iron-titanium alloy or mixture, a zirconium-titanium alloy or mixture, boron, titanium hydride, zirconium hydride, a boron hydride, hafnium hydride, a lithium complex hydride, elemental carbon, expandable graphite, bituminous coal, charcoal, lignite coal, phosphorus, sulphur, silicon, sawdust or wood.
A pacing lead comprising: an elongate body defining a lumen extending from a proximal portion to a distal portion configured to receive a guide wire; and a left-ventricular electrode coupled to the elongate body implantable from tissue adjacent to or within the triangle of Koch region of the right atrium through the right-atrial endocardium to deliver cardiac therapy to and sense electrical activity of the left ventricle in the basal region, septal region, or basal-septal region of the left ventricular myocardium of a patient's heart. an elongate body defining a lumen extending from a proximal portion to a distal portion configured to receive a guide wire; and a left-ventricular electrode coupled to the elongate body implantable from tissue adjacent to or within the triangle of Koch region of the right atrium through the right-atrial endocardium to deliver cardiac therapy to and sense electrical activity of the left ventricle in the basal region, septal region, or basal-septal region of the left ventricular myocardium of a patient's heart.
Method for allocating resources on an uplink between a user terminal and a base station of a radio communication network multiplexing data in resource blocks (250, 250r) that are time-distributed and frequency-distributed into time intervals, said allocation method implementing at least two resource allocation modes: - a first allocation mode, called standard allocation mode, associated with a first transmission mode of said terminal, called standard transmission mode, and implementing at least one signalling portion containing resource allocation information in each time interval; and - a second allocation mode, called priority allocation mode, associated with a second transmission mode of said terminal, called priority transmission mode, in which said network favours said priority allocation mode and is able to allocate, to said terminal, using said priority allocation mode, at least one resource block previously allocated using said standard allocation mode, introducing an allocation collision situation, and characterized in that, in such a collision situation, said network implements a temporary allocation mode in order to allocate at least one substitute resource block in the standard transmission mode, implementing a number of signalling portions containing resource allocation information greater than that used in the standard allocation mode, in each time interval. said allocation method implementing at least two resource allocation modes: - a first allocation mode, called standard allocation mode, associated with a first transmission mode of said terminal, called standard transmission mode, and implementing at least one signalling portion containing resource allocation information in each time interval; and - a second allocation mode, called priority allocation mode, associated with a second transmission mode of said terminal, called priority transmission mode, in which - a first allocation mode, called standard allocation mode, associated with a first transmission mode of said terminal, called standard transmission mode, and implementing at least one signalling portion containing resource allocation information in each time interval; and - a second allocation mode, called priority allocation mode, associated with a second transmission mode of said terminal, called priority transmission mode, in which said network favours said priority allocation mode and is able to allocate, to said terminal, using said priority allocation mode, at least one resource block previously allocated using said standard allocation mode, introducing an allocation collision situation, and characterized in that, in such a collision situation, said network implements a temporary allocation mode in order to allocate at least one substitute resource block in the standard transmission mode, implementing a number of signalling portions containing resource allocation information greater than that used in the standard allocation mode, in each time interval.
An RF amplifier for polar modulation, comprising: an amplifier circuit having a plurality of first amplifier stages (14, 16) and a second amplifier stage; a plurality of first power distribution branches for distributing a first power supply voltage to the plurality of first amplifier stages (14, 16); and a second power distribution branch for distributing a second power supply voltage to the second amplifier stage, wherein the second power supply voltage is configured to separate from the first power supply voltage, and wherein each of the plurality of first power distribution branches includes its own π C-R-C network which is configured to suppress low frequency oscillations in the respective power distribution branch; and one or more of the first power supply voltage and the second power supply voltage has a variable magnitude for amplitude modulation. an amplifier circuit having a plurality of first amplifier stages (14, 16) and a second amplifier stage; a plurality of first power distribution branches for distributing a first power supply voltage to the plurality of first amplifier stages (14, 16); and a second power distribution branch for distributing a second power supply voltage to the second amplifier stage, wherein the second power supply voltage is configured to separate from the first power supply voltage, and wherein each of the plurality of first power distribution branches includes its own π C-R-C network which is configured to suppress low frequency oscillations in the respective power distribution branch; and one or more of the first power supply voltage and the second power supply voltage has a variable magnitude for amplitude modulation.
An information scheduling method applied to a base station, characterized by comprising: configuring time unit information for user equipment, UE, through radio resource control, RRC, signaling, wherein the time unit information indicates one time unit, and the time unit indicated by the time unit information comprises 2 symbols or 7 symbols; and scheduling at least one of user data or uplink feedback of downlink data according to the configured time unit information; wherein scheduling the uplink feedback according to the configured time unit information comprises: in response to that the UE repeats transmission of the uplink feedback, a transmission start time and a transmission end time of each repeated transmission are both within a same time unit, and transmission start times and transmission end times of different repeated transmissions are within different time units. configuring time unit information for user equipment, UE, through radio resource control, RRC, signaling, wherein the time unit information indicates one time unit, and the time unit indicated by the time unit information comprises 2 symbols or 7 symbols; and scheduling at least one of user data or uplink feedback of downlink data according to the configured time unit information; wherein scheduling the uplink feedback according to the configured time unit information comprises: in response to that the UE repeats transmission of the uplink feedback, a transmission start time and a transmission end time of each repeated transmission are both within a same time unit, and transmission start times and transmission end times of different repeated transmissions are within different time units.
A positive ignition engine comprising an exhaust system, which exhaust system comprises a catalysed filter for filtering particulate matter from exhaust gas emitted from a positive ignition internal combustion engine, which filter comprising a ceramic porous filter substrate, which is a wall-flow filter having a total substrate length and having a plurality of inlet channels having inlet surfaces and a plurality of outlet channels having outlet surfaces, wherein the inlet surfaces of each inlet channel are separated from the outlet surfaces of each outlet channel by a ceramic wall of porous structure containing pores of a first mean pore size, wherein the wall-flow filter is coated with a washcoat composition which is a NOx absorber catalyst washcoat composition comprising at least one precious metal; or a selective catalytic reduction catalyst washcoat composition, wherein the porous structure of the washcoated ceramic wall of the wall-flow filter contains pores of a second mean pore size, wherein the second mean pore size is less than the first mean pore size, which NOx absorber catalyst washcoat or SCR catalyst washcoat being axially arranged on the wall-flow filter as a first zone comprising the inlet surfaces of a first substrate length less than the total substrate length and a second zone comprising the outlet surfaces of a second substrate length less than the total substrate length, wherein the sum of the substrate length in the first zone and the substrate length in the second zone is 110-130%, wherein: (i) a washcoat loading in the first zone > second zone; or (ii) where the washcoat composition is a NOx absorber catalyst washcoat composition, both a washcoat loading and a total precious metal loading in the first zone > second zone, and wherein the first zone is disposed upstream of the second zone. (i) a washcoat loading in the first zone > second zone; or (ii) where the washcoat composition is a NOx absorber catalyst washcoat composition, both a washcoat loading and a total precious metal loading in the first zone > second zone,