mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a plurality of power units in a power distribution network PDN, comprising: a) receiving one or more requests to increase or decrease the power drawn from, or the power supplied to, the PDN; b) determining, based on aggregated power and/or energy data regarding the plurality of power units, and the one or more requests, one or more parameters defining properties of power units to be controlled in response to the one or more requests; c) receiving status updates from the plurality of power units, each status update comprising information about the properties of the power unit that sent the status update and, for each status update: determining, based on the received information and the determined parameters, whether the properties of the power unit that sent the status update fulfils the determined parameters; and if the properties of the power unit fulfils the determined parameters, controlling the power unit that sent the status update to change the amount of power drawn from or supplied to the PDN. a) receiving one or more requests to increase or decrease the power drawn from, or the power supplied to, the PDN; b) determining, based on aggregated power and/or energy data regarding the plurality of power units, and the one or more requests, one or more parameters defining properties of power units to be controlled in response to the one or more requests; c) receiving status updates from the plurality of power units, each status update comprising information about the properties of the power unit that sent the status update and, for each status update: determining, based on the received information and the determined parameters, whether the properties of the power unit that sent the status update fulfils the determined parameters; and if the properties of the power unit fulfils the determined parameters, controlling the power unit that sent the status update to change the amount of power drawn from or supplied to the PDN. determining, based on the received information and the determined parameters, whether the properties of the power unit that sent the status update fulfils the determined parameters; and if the properties of the power unit fulfils the determined parameters, controlling the power unit that sent the status update to change the amount of power drawn from or supplied to the PDN.
A pellicle for EUV comprising a pellicle frame having two end faces, an adhesive layer laid on one of said end faces of the pellicle frame , a pellicle film which is tensely adhered to the pellicle frame via said adhesive layer , and an agglutinant layer laid on another one of said end faces of the pellicle frame , wherein said adhesive layer is an adhesive composition made of 100 mass parts of an adhesive material and 100 through 4,000 mass parts of thermally conductive filler.
Aerodynamic fairing for a rear wheel of a motor vehicle, comprising a main screen positioned substantially horizontally under a subframe of the vehicle in the space situated between the rear wheels of the vehicle and in proximity to one of them, characterized in that it comprises a secondary screen forming a lateral extension advancing into the cavity of the adjacent wheel in a direction at right angles to the longitudinal direction (X) of the vehicle, the secondary screen supporting a substantially vertical spoiler situated in the cavity of said adjacent wheel, the spoiler having a free edge turned towards the ground that has a curved profile.
Shaping tool for molten metal or glass, characterised in that the shaping tool contains particles, wherein at least 50 wt.% of the particles consist of carbon particles, wherein the particles are interconnected by a binder, wherein the shaping tool consists of the particles by at least 90 wt.%, wherein the shaping tool has a geometric density of from 0.7 g/cm 3 to 1.4 g/cm 3 and wherein the shaping tool has an anisotropy factor with regard to thermal expansion of less than 1-2, which means that the thermal expansion coefficients in all three spatial directions (x-, y- and z-direction) differ from one other by no more than 20% in each case.
A fluid circulating assembly (10; 174) comprising: an electrical machine comprising: a rotor assembly ; a stator assembly ; and a housing comprising an endshield , said endshield comprising: an annular center section configured to enclose said stator assembly; and a plurality of fins extending axially away from said stator assembly, characterized in that the housing further comprises a plurality of axially extending T-shaped T-slots spaced about a perimeter of said annular center section of said endshield . an electrical machine comprising: a rotor assembly ; a stator assembly ; and a housing comprising an endshield , said endshield comprising: an annular center section configured to enclose said stator assembly; and a plurality of fins extending axially away from said stator assembly, a rotor assembly ; a stator assembly ; and a housing comprising an endshield , said endshield comprising: an annular center section configured to enclose said stator assembly; and a plurality of fins extending axially away from said stator assembly, an annular center section configured to enclose said stator assembly; and a plurality of fins extending axially away from said stator assembly, characterized in that the housing further comprises a plurality of axially extending T-shaped T-slots spaced about a perimeter of said annular center section of said endshield .
A manufacturing method for a ceramic matrix composite having a woven fabric that has a plurality of fiber bundles and a matrix that is disposed in a gap between the fiber bundles, the method comprising: a green body formation step of forming a green body by infiltrating the woven fabric with a polymer as a precursor of the matrix and performing sintering; and a densification step of further infiltrating the green body with the polymer and performing sintering, wherein the densification step includes an infiltration step of further infiltrating the green body with the polymer to form an infiltrated green body, a drying step of drying the infiltrated green body to form a dried green body, a steam treatment step of leaving the dried green body under a saturation water vapor pressure to form a treated green body, and a sintering step of sintering the treated green body. a green body formation step of forming a green body by infiltrating the woven fabric with a polymer as a precursor of the matrix and performing sintering; and a densification step of further infiltrating the green body with the polymer and performing sintering, wherein the densification step includes an infiltration step of further infiltrating the green body with the polymer to form an infiltrated green body, a drying step of drying the infiltrated green body to form a dried green body, a steam treatment step of leaving the dried green body under a saturation water vapor pressure to form a treated green body, and a sintering step of sintering the treated green body. an infiltration step of further infiltrating the green body with the polymer to form an infiltrated green body, a drying step of drying the infiltrated green body to form a dried green body, a steam treatment step of leaving the dried green body under a saturation water vapor pressure to form a treated green body, and a sintering step of sintering the treated green body.
A prefabricated pumping station unit, comprising a prefabricated hollow-shaped pumping station body , a liquid inlet and a liquid outlet connected to the pumping station body , and a well-shaped column mounted in the station body , wherein the circumference of the cross section of the upper end portion of the pumping station body is larger than the circumference of the cross section of the lower end portion thereof, wherein the pumping station body comprises a first tubular portion and a tapered portion , connecting the lower end portion of the first tubular portion , wherein the cross sectional dimension of the tapered portion gradually decreases in a direction from top to bottom, and wherein the liquid inlet is provided in the first tubular portion , characterized in that the pumping station body further comprises a second tubular portion , the cross sectional dimension of the second tubular portion is smaller than the first tubular portion and the second tubular portion is connected to a lower end portion of the tapered portion .
A switch cabinet comprising a front part and a rear part , a left side part and a right side part and a top part and a bottom part , wherein a voltage limiting device is disposed in the switch cabinet, the voltage limiting device having an electromagnetically operable switching device for producing an electrical connection between a first cable terminal and a second cable terminal , wherein an electrical conductor (A) electrically connects the first cable terminal to the switching device and another electrical conductor (B) electrically connects the second cable terminal to the switching device , wherein the switching device comprises a multi-pole contactor , characterised in that one of the two electrical conductors (A) comprises an electrically conductive support plate which is disposed at the back of the switch cabinet , the electrically conductive support plate forms at least part of the rear wall or at least part of a back wall of the switch cabinet, the switching device is disposed in a plane extending parallel to the electrically conductive support plate , wherein the contactor of the switching device is disposed in the switch cabinet in front of the support plate in the area of one of the two side parts of the switch cabinet . one of the two electrical conductors (A) comprises an electrically conductive support plate which is disposed at the back of the switch cabinet , the electrically conductive support plate forms at least part of the rear wall or at least part of a back wall of the switch cabinet, the switching device is disposed in a plane extending parallel to the electrically conductive support plate , wherein the contactor of the switching device is disposed in the switch cabinet in front of the support plate in the area of one of the two side parts of the switch cabinet .
A material for forming an organic film, comprising: a compound shown by the following general formula ; and an organic solvent, wherein R 1 represents one of the following formulae , R 2 represents a nitro group, a halogen atom, a hydroxy group, an alkyloxy group having 1 to 4 carbon atoms, an alkynyloxy group having 2 to 4 carbon atoms, an alkenyloxy group having 2 to 4 carbon atoms, a linear, branched, or cyclic alkyl group having 1 to 6 carbon atoms, a trifluoromethyl group, or a trifluoromethyloxy group, "n" represents 0 or 1, "m" represents an integer of 1 to 3, "p" represents 0 or 1, "l" represents an integer of 0 to 2, and W represents a divalent organic group having 2 to 40 carbon atoms.
A carbonated beverage maker comprising: a water reservoir configured to hold ice water, the water reservoir having a first impeller and a shroud surrounding the first impeller; a carbon dioxide creation chamber containing chemical elements and configured to receive warm water, wherein the chemical elements are configured to react with each other to create carbon dioxide when the warm water is introduced to the carbon dioxide creation chamber; and a carbonation chamber connected to the water reservoir and the carbon dioxide creation chamber, the carbonation chamber having a second impeller, wherein the second impeller comprises a stem portion and blades, the stem portion and the blades defining conduits therein, and wherein the blades are configured to create a low pressure region in a lower portion of the carbonation chamber such that carbon dioxide from the carbon dioxide creation chamber flows through the conduits to the low pressure region. a water reservoir configured to hold ice water, the water reservoir having a first impeller and a shroud surrounding the first impeller; a carbon dioxide creation chamber containing chemical elements and configured to receive warm water, wherein the chemical elements are configured to react with each other to create carbon dioxide when the warm water is introduced to the carbon dioxide creation chamber; and a carbonation chamber connected to the water reservoir and the carbon dioxide creation chamber, the carbonation chamber having a second impeller, wherein the second impeller comprises a stem portion and blades, the stem portion and the blades defining conduits therein, and wherein the blades are configured to create a low pressure region in a lower portion of the carbonation chamber such that carbon dioxide from the carbon dioxide creation chamber flows through the conduits to the low pressure region.
A method for determining paging time, comprising determining , by a User Equipment, UE, a paging time unit corresponding to the UE according to an Identifier, ID, of the UE, configuration parameters of paging time units, and preset rules, wherein the configuration parameters of paging time units comprise at least one of: distribution parameters of UEs among the paging time units of different types; or, numbers of paging time units corresponding to different time-frequency resource types in a transmission cycle; wherein the paging time units at least comprise a paging time unit of a first type and a paging time unit of a second type, and paging time units of different types correspond to different preset rules; the paging time unit of the first type corresponds to a first time-frequency resource type, and the paging time unit of the second type corresponds to a second time-frequency resource type; and a size of a time-frequency resource corresponding to the first time-frequency resource type is different from a size of time-frequency resource corresponding to the second time-frequency resource type. determining , by a User Equipment, UE, a paging time unit corresponding to the UE according to an Identifier, ID, of the UE, configuration parameters of paging time units, and preset rules, wherein the configuration parameters of paging time units comprise at least one of: distribution parameters of UEs among the paging time units of different types; or, numbers of paging time units corresponding to different time-frequency resource types in a transmission cycle; wherein the paging time units at least comprise a paging time unit of a first type and a paging time unit of a second type, and paging time units of different types correspond to different preset rules; the paging time unit of the first type corresponds to a first time-frequency resource type, and the paging time unit of the second type corresponds to a second time-frequency resource type; and a size of a time-frequency resource corresponding to the first time-frequency resource type is different from a size of time-frequency resource corresponding to the second time-frequency resource type.
A method for rendering an augmented reality scene on a mobile computing device , comprising: tracking a real-world scene and/or a viewpoint of a user with one or more event- based vision sensors ; and blending an augmented reality scene displayed on the mobile computing device based on the viewpoint of the user and a scene map of the real-world scene and on the tracking of the one or more event-based vision sensors , characterised in that the event-based vision sensors detect OFF-events as discrete decreases in light intensity and/or ON-events as discrete increases in light intensity for pixels of the event-based vision sensors ; and the event-based vision sensors include comparators that compare a difference between photoreceptor signal and past photoreceptor signal to a threshold to determine the OFF-events and/or ON-events. tracking a real-world scene and/or a viewpoint of a user with one or more event- based vision sensors ; and blending an augmented reality scene displayed on the mobile computing device based on the viewpoint of the user and a scene map of the real-world scene and on the tracking of the one or more event-based vision sensors , characterised in that the event-based vision sensors detect OFF-events as discrete decreases in light intensity and/or ON-events as discrete increases in light intensity for pixels of the event-based vision sensors ; and the event-based vision sensors include comparators that compare a difference between photoreceptor signal and past photoreceptor signal to a threshold to determine the OFF-events and/or ON-events.
A method of processing a non-magnetic austenitic stainless steel alloy workpiece, comprising: annealing the workpiece; heating the workpiece to a warm working temperature, wherein the warm working temperature is in a range from 510°C to 621°C (950°F to 1150°F); open die press forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a central region of the workpiece; and radial forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a surface region of the workpiece; wherein after the steps of open die press forging and radial forging, the strain imparted to the central region and the strain imparted to the surface region are each in a range of from 0.3 cm/cm (inch/inch) to 1.0 cm/cm (inch/inch); wherein a difference in strain from the central region to the surface region is not more than 0.5 cm/cm (inch/inch), wherein a "surface region" of a workpiece includes a volume of material between the surface of the workpiece to a depth of up to about 50% of the distance from the surface to the workpiece center, and a "central region" of a workpiece includes a centrally located volume of material that makes up to about 70% by volume of material of the workpiece; and wherein the forged workpiece has a circular cross-section with a diameter greater than 13.34 cm (5.25 inches). annealing the workpiece; heating the workpiece to a warm working temperature, wherein the warm working temperature is in a range from 510°C to 621°C (950°F to 1150°F); open die press forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a central region of the workpiece; and radial forging the workpiece at a temperature in the warm working temperature range to impart a desired strain to a surface region of the workpiece; wherein after the steps of open die press forging and radial forging, the strain imparted to the central region and the strain imparted to the surface region are each in a range of from 0.3 cm/cm (inch/inch) to 1.0 cm/cm (inch/inch); wherein a difference in strain from the central region to the surface region is not more than 0.5 cm/cm (inch/inch), wherein a "surface region" of a workpiece includes a volume of material between the surface of the workpiece to a depth of up to about 50% of the distance from the surface to the workpiece center, and a "central region" of a workpiece includes a centrally located volume of material that makes up to about 70% by volume of material of the workpiece; and wherein the forged workpiece has a circular cross-section with a diameter greater than 13.34 cm (5.25 inches).
A method of operating a terminal device in a cellular communications network providing Dual Connectivity, wherein the terminal device is connected to a Master Cell Group, MCG, comprising a Primary Cell, PCell, and wherein the PCell is associated with a Master eNB, MeNB, the method comprising: receiving a timing measurement command from the network for measuring timing information comprising a System Frame Number and Subframe Timing Difference, SSTD; obtaining said timing information for a plurality of cells of the network ; allocating different priorities to said cells; and reporting to the network said timing information for a subset of said cells having highest priorities, wherein said timing information comprises information relating to a timing difference between a reference cell and each cell in said subset of cells , wherein the reference cell is said PCell. receiving a timing measurement command from the network for measuring timing information comprising a System Frame Number and Subframe Timing Difference, SSTD; obtaining said timing information for a plurality of cells of the network ; allocating different priorities to said cells; and reporting to the network said timing information for a subset of said cells having highest priorities, wherein said timing information comprises information relating to a timing difference between a reference cell and each cell in said subset of cells , wherein the reference cell is said PCell.
A liquid dispensing device comprising: an elongated member defining a handle having a hollow interior, the hollow interior defining a fluid reservoir having an opening at a lower end of the elongated member; and a base member affixed to the lower end of the elongated member and having a bottom surface facing in a direction away from the handle ; wherein the device further comprises: a frangible cover secured over the bottom surface and forming a seal across the opening of the fluid reservoir ; a swab head comprising an absorbent sponge-like member and a button element (30. 130), the sponge-like member having opposing outer and inner sides wherein the inner side is affixed to the bottom surface of the base member ; and the button element defining a longitudinal axis (A B ), the button element including a foot portion at a first longitudinal end of the button element adjacent to the outer side of the sponge-like member and a penetration end at an opposing second longitudinal end of the button element . an elongated member defining a handle having a hollow interior, the hollow interior defining a fluid reservoir having an opening at a lower end of the elongated member; and a base member affixed to the lower end of the elongated member and having a bottom surface facing in a direction away from the handle ; wherein the device further comprises: a frangible cover secured over the bottom surface and forming a seal across the opening of the fluid reservoir ; a swab head comprising an absorbent sponge-like member and a button element (30. 130), the sponge-like member having opposing outer and inner sides wherein the inner side is affixed to the bottom surface of the base member ; and the button element defining a longitudinal axis (A B ), the button element including a foot portion at a first longitudinal end of the button element adjacent to the outer side of the sponge-like member and a penetration end at an opposing second longitudinal end of the button element . a frangible cover secured over the bottom surface and forming a seal across the opening of the fluid reservoir ; a swab head comprising an absorbent sponge-like member and a button element (30. 130), the sponge-like member having opposing outer and inner sides wherein the inner side is affixed to the bottom surface of the base member ; and the button element defining a longitudinal axis (A B ), the button element including a foot portion at a first longitudinal end of the button element adjacent to the outer side of the sponge-like member and a penetration end at an opposing second longitudinal end of the button element .
A method for analyzing inclusions in steel, comprising: Providing an optical emission spectrometry (OES) system ; and Providing a charged-particle microscopy with energy dispersive X-ray spectroscopy (CPM/EDX) system ; Wherein the method is characterized by: generating a correction factor based on inclusion properties of a first sample determined using both the OES system and the CPM/EDX system, and determining an inclusion property of a second, different, sample using the OES system calibrated with the correction factor. Providing an optical emission spectrometry (OES) system ; and Providing a charged-particle microscopy with energy dispersive X-ray spectroscopy (CPM/EDX) system ; Wherein the method is characterized by: generating a correction factor based on inclusion properties of a first sample determined using both the OES system and the CPM/EDX system, and determining an inclusion property of a second, different, sample using the OES system calibrated with the correction factor.