mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining a cell specific cyclic shift from a received indication of the cell specific cyclic shift; determining a quantized cyclic shift of a reference signal as a combination of the cell specific cyclic shift with an outcome of a pseudo-random cyclic shift hopping according to Cyclic _ sft _ slot 2 cell = mod Cyclic _ sft _ slot 2 + increment cell , Num _ Shifts , wherein mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and sending a reference signal that is cyclically shifted according to the determined quantized cyclic shift. determining a cell specific cyclic shift from a received indication of the cell specific cyclic shift; determining a quantized cyclic shift of a reference signal as a combination of the cell specific cyclic shift with an outcome of a pseudo-random cyclic shift hopping according to Cyclic _ sft _ slot 2 cell = mod Cyclic _ sft _ slot 2 + increment cell , Num _ Shifts , wherein mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and mod (a,b) is a modulo operation, the result of this modulo operation being the remainder, i.e. remainder = a mod b, Cyclic_sft_slot2 as a first parameter of the sum is the outcome of the pseudo-random hopping, increment(cell) as a second parameter of the sum is the cell specific cyclic shift, Num_Shifts is the total number of allowed cyclic shifts (the divisor of the modulo operation), and Cyclic_sft_slot2(cell) is the quantized cyclic shift of the reference signal; and sending a reference signal that is cyclically shifted according to the determined quantized cyclic shift.
A beverage comprising catechin compound(s) and RebD and/or RebM, wherein a content (A) of the catechin compound(s) is 1 to 166 ppm, and the catechin compound(s) is one or more compounds selected from the group consisting of catechin, epicatechin, gallocatechin, epigallocatechin, catechin gallate, epicatechin gallate, gallocatechin gallate, and epigallocatechin gallate; a total content (B) of the RebD and/or RebM is 20 to 500 ppm; and B/A is 2.9 or more. a content (A) of the catechin compound(s) is 1 to 166 ppm, and the catechin compound(s) is one or more compounds selected from the group consisting of catechin, epicatechin, gallocatechin, epigallocatechin, catechin gallate, epicatechin gallate, gallocatechin gallate, and epigallocatechin gallate; a total content (B) of the RebD and/or RebM is 20 to 500 ppm; and B/A is 2.9 or more.
. A three-dimensional printing method, comprising: selectively applying a liquid functional agent including an energy source material; applying a metallic or ceramic build material; wherein the liquid functional agent is selectively applied any of before the metallic or ceramic build material, after the metallic or ceramic build material, or both before and after the metallic or ceramic build material, and wherein the liquid functional agent patterns the metallic or ceramic build material to form a composite layer; exposing at least some of the metallic or ceramic build material to energy; and initiating a reaction involving the energy source material to alter a thermal condition of the composite layer; wherein the reaction involving the energy source material is an exothermic reaction that supplies additional energy to the composite layer and generates a gaseous byproduct; wherein the energy source material is a reactant including a fuel and an oxidizer, and wherein the initiating of the reaction is accomplished by the exposing of the composite layer to the energy; or wherein the energy source material is a reactant fuel, and wherein the initiating of the reaction is accomplished by exposing the composite layer to an oxidizer and by the exposing of the composite layer to the energy; or wherein the energy source material is a reactant fuel, and wherein the initiating of the reaction is accomplished by exposing the composite layer to an oxidizer. selectively applying a liquid functional agent including an energy source material; applying a metallic or ceramic build material; wherein the liquid functional agent is selectively applied any of before the metallic or ceramic build material, after the metallic or ceramic build material, or both before and after the metallic or ceramic build material, and wherein the liquid functional agent patterns the metallic or ceramic build material to form a composite layer; exposing at least some of the metallic or ceramic build material to energy; and initiating a reaction involving the energy source material to alter a thermal condition of the composite layer; wherein the reaction involving the energy source material is an exothermic reaction that supplies additional energy to the composite layer and generates a gaseous byproduct; wherein the energy source material is a reactant including a fuel and an oxidizer, and wherein the initiating of the reaction is accomplished by the exposing of the composite layer to the energy; or wherein the energy source material is a reactant fuel, and wherein the initiating of the reaction is accomplished by exposing the composite layer to an oxidizer and by the exposing of the composite layer to the energy; or wherein the energy source material is a reactant fuel, and wherein the initiating of the reaction is accomplished by exposing the composite layer to an oxidizer.
Method for generating a synthesis gas which consists principally of carbon monoxide and hydrogen and has been freed of acid gases, proceeding from a hydrocarbonaceous fuel, and air and steam, wherein low-temperature separation separates air into an oxygen stream, a residual gas stream and a nitrogen stream, wherein the residual gas stream and the nitrogen stream are at ambient temperature and the nitrogen stream is at elevated pressure, wherein the hydrocarbonaceous fuel is mixed with the oxygen stream and the steam at elevated temperature and elevated pressure and is converted into a synthesis gas, and wherein acid gas is subsequently separated therefrom by low-temperature absorption in an absorption column, wherein the absorbent is cooled by means of a compression refrigeration plant, characterised in that the nitrogen stream generated by low-temperature separation of air is passed through an expansion turbine and cooled thereby and is then used to cool the absorbent or the coolant circulating in the coolant circuit of the compression refrigeration plant.
Roller press for the comminution, compacting or briquetting of material, more particularly of material containing ore, with a press stand , two rollers arranged next to each other in the press stand that form a roller gap , and a feed chute arranged above the roller gap via which the material can be supplied to the roller gap , wherein the feed chute comprises one or more chute walls that are orientated in an inclined manner to the vertical, forming a cross-section that widens from the top downwards, wherein the feed chute is provided with a measuring device for determining the filling level of the material in the feed chute , characterised in that the measuring device is designed as a gravimetric measuring device, wherein the measuring device has one or more load cells on which the feed chute acts, wherein with the load cells , a gravitational force introduced by the material into the chute walls through wall friction is measurable and from this the filling level can be determined. with a press stand , two rollers arranged next to each other in the press stand that form a roller gap , and a feed chute arranged above the roller gap via which the material can be supplied to the roller gap , wherein the feed chute comprises one or more chute walls that are orientated in an inclined manner to the vertical, forming a cross-section that widens from the top downwards, wherein the feed chute is provided with a measuring device for determining the filling level of the material in the feed chute , characterised in that the measuring device is designed as a gravimetric measuring device, wherein the measuring device has one or more load cells on which the feed chute acts, wherein with the load cells , a gravitational force introduced by the material into the chute walls through wall friction is measurable and from this the filling level can be determined.
A pair of slide components that slide relative to each other, wherein: the pair of slide components have sliding faces (S) that slide relative to each other, a sealed fluid-side periphery , and a leakage-side periphery , the sliding face (S) of at least one slide component of the pair of slide components includes: a fluid introduction groove (13; 23; 33; 63; 73; 83) in communication with the sealed fluid-side periphery ; a first pressure generation mechanism (12; 22; 32; 52) of which one end is in communication with the fluid introduction groove (13; 23; 33; 63; 73; 83) and the other end is surrounded by a land portion (R1; R3); and a second pressure generation mechanism (11; 21; 31; 51) of which one end is in communication with the leakage-side periphery and the other end is surrounded by an annular land portion (R2), and the fluid introduction groove (13; 23; 33; 63; 73; 83) and the other end of the first pressure generation mechanism (12; 22; 32; 52) include overlapping portions (Lp) overlapping circumferentially, wherein the fluid introduction groove (13; 23; 33; 63; 73; 83) has an inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) facing the other end of the first pressure generation mechanism (12; 22; 32; 52); characterized in that the inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) is inclined to a direction to approach the one end of the first pressure generation mechanism (12; 22; 32; 52) with respect to a radial axis connecting an intersection point (P) of the inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) and the sealed fluid-side periphery and a center of one of the slide components. the pair of slide components have sliding faces (S) that slide relative to each other, a sealed fluid-side periphery , and a leakage-side periphery , the sliding face (S) of at least one slide component of the pair of slide components includes: a fluid introduction groove (13; 23; 33; 63; 73; 83) in communication with the sealed fluid-side periphery ; a first pressure generation mechanism (12; 22; 32; 52) of which one end is in communication with the fluid introduction groove (13; 23; 33; 63; 73; 83) and the other end is surrounded by a land portion (R1; R3); and a second pressure generation mechanism (11; 21; 31; 51) of which one end is in communication with the leakage-side periphery and the other end is surrounded by an annular land portion (R2), and the fluid introduction groove (13; 23; 33; 63; 73; 83) and the other end of the first pressure generation mechanism (12; 22; 32; 52) include overlapping portions (Lp) overlapping circumferentially, wherein the fluid introduction groove (13; 23; 33; 63; 73; 83) has an inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) facing the other end of the first pressure generation mechanism (12; 22; 32; 52); characterized in that the inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) is inclined to a direction to approach the one end of the first pressure generation mechanism (12; 22; 32; 52) with respect to a radial axis connecting an intersection point (P) of the inclined wall part (13d; 23d; 33d; 63d; 73d; 83d) and the sealed fluid-side periphery and a center of one of the slide components.
A contact device adapted to be inserted between the two contact surfaces of two conductors (32 and 34) of an electrical connection provided with at least one bolt , said device consisting of a metal foam plate with high porosity and deformability in order to reduce the electrical resistance of the connection, the surface area of said metal foam plate is at least equal to the contacting surface area of said two conductors, said metal foam plate comprising at least one circular opening intended to contain the bolt, Characterized in that said metal foam plate comprises at least one first pre-cut located between said opening and an outer edge of the contact device, said pre-cut being made by cutting the foam plate over a part of its thickness so as to weaken it and make it easily frangible along said pre-cut, said pre-cut allowing the bolt to be passed through it during the installation of said contact device between the two contact surfaces of said two conductors, the said contact device comprising a gripping means located outside the surface of said foam plate intended to come into contact with the contact surfaces of said two conductors.
A compression garment comprising: one or more garment portions wrappable about one or more body portions of a user to apply compression to the one or more body portions, wherein a wraparound garment portion of the one or more garment portions extends from a proximal end region and terminates at a distal end region that is configured to be moved by a user to wrap the one or more garment portions about the one or more body portions, wherein the wraparound garment portion comprises a mitt at the distal end region defining a mitt opening to receive a hand of a user to assist the user in donning the one or more compression garment portions and in wrapping the one or more garment portions about the one or more body portions of the user; and tightening apparatus coupled to the wraparound garment portion to selectively tighten the one or more garment portions about the one or more body portions, wherein the tightening apparatus selectively adjusts a length of the wraparound garment portion defined from the proximal end region to the distal end region. one or more garment portions wrappable about one or more body portions of a user to apply compression to the one or more body portions, wherein a wraparound garment portion of the one or more garment portions extends from a proximal end region and terminates at a distal end region that is configured to be moved by a user to wrap the one or more garment portions about the one or more body portions, wherein the wraparound garment portion comprises a mitt at the distal end region defining a mitt opening to receive a hand of a user to assist the user in donning the one or more compression garment portions and in wrapping the one or more garment portions about the one or more body portions of the user; and tightening apparatus coupled to the wraparound garment portion to selectively tighten the one or more garment portions about the one or more body portions, wherein the tightening apparatus selectively adjusts a length of the wraparound garment portion defined from the proximal end region to the distal end region.
An array substrate for a display device, comprising a plurality of gate lines (G1, G2, G3, ..., Gi, ..., Gn), a plurality of data lines (D 1, D2, D3, ..., Dj, Dm), and a plurality of subpixels defined by the gate lines (G1, G2, G3, ..., Gi, ..., Gn) and the data lines (D1, D2, D3, ..., Dj, Dm) crossing each other, wherein at least one secondary data line (L) for providing a secondary data signal is arranged between the subpixels in two adjacent columns, the subpixels in a same column connect to at least one secondary data line (L), and at least one subpixel among the subpixels in a same column is driven by the secondary data line (L) connecting to the at least one subpixel ; characterized in that two secondary data lines (L1, L2) are arranged between the subpixels in two adjacent columns, the subpixels in a same column connect to one data line (D1, D2, D3, ..., Dj, Dm) and two secondary data lines (L1, L2), the two secondary data lines (L1, L2) comprise a first secondary data line (L1) and a second secondary data line (L2), switching units of the subpixels in a (3i+1)th row are connected to the data lines (D1, D2, D3, ..., Dj, Dm) connecting to the subpixels , switching units of the subpixels in a (3i+2)th row are connected to the first secondary data lines (L1) connecting to the subpixels , switching units of the subpixels in a (3i+3)th row are connected to the second secondary data lines (L2) connecting to the subpixels , and i is an integer greater than or equal to 0; wherein the first secondary data line (L1) is arranged between the subpixels and the second secondary data line (L2), a source electrode of the switching unit of each subpixel among the subpixels in the (3i+3) th row is provided with a first via-hole , the second secondary data line (L2) is provided with a second via-hole , and the source electrode of the switching unit of each subpixel among the subpixels in the (3i+3) th row is connected to the second secondary data line (L2) via a first lapping electrode layer through the first via-hole and the second via-hole ; and wherein a width of a portion of the first secondary data line (L1) overlapping the first lapping electrode layer is smaller than a width of the other portion of the first secondary data line (L1), or a width of a portion of the first lapping electrode layer overlapping the first secondary data line (L1) is smaller than a width of the other portion of the first lapping electrode layer .
A system for coupling pipes comprising: a first pipe having a tapered, spigot end; a second pipe having a tapered, spigot end; wherein the first pipe and the second pipe are made from a reinforced thermosetting resin (RTR), a coupler having two tapered socket ends adapted to internally receive the respective tapered, spigot ends of the first pipe and the second pipe , wherein a thermoplastic material is disposed between an exterior of the first pipe and an interior of the coupler , wherein a thermoplastic material is disposed between an exterior of the second pipe and the interior of the coupler , wherein the coupler is made of a reinforced thermoplastic material, and wherein, upon application of rotational force to the coupler , friction between the first pipe , the second pipe , and the coupler generates heat sufficient to melt the thermoplastic material such that, when the heat is removed, the hardened thermoplastic material seals the first pipe and the second pipe to the coupler . a first pipe having a tapered, spigot end; a second pipe having a tapered, spigot end; wherein the first pipe and the second pipe are made from a reinforced thermosetting resin (RTR), a coupler having two tapered socket ends adapted to internally receive the respective tapered, spigot ends of the first pipe and the second pipe , wherein a thermoplastic material is disposed between an exterior of the first pipe and an interior of the coupler , wherein a thermoplastic material is disposed between an exterior of the second pipe and the interior of the coupler , wherein the coupler is made of a reinforced thermoplastic material, and wherein, upon application of rotational force to the coupler , friction between the first pipe , the second pipe , and the coupler generates heat sufficient to melt the thermoplastic material such that, when the heat is removed, the hardened thermoplastic material seals the first pipe and the second pipe to the coupler .
A printing system comprising a printing apparatus and a foil transfer apparatus ; the printing apparatus comprising: a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material , the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; the foil transfer apparatus comprising: a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer ; wherein the first shape and the second shape are different from each other. the printing apparatus comprising: a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material , the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; a first liquid discharger configured to form an image layer with a first liquid on a first surface of a base material , the image layer including an image of a first shape; a second liquid discharger configured to form an adhesive layer of a second shape with a second liquid on a second surface of the base material opposite to the first surface on which the image layer is formed; the foil transfer apparatus comprising: a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer ; wherein the first shape and the second shape are different from each other. a foil transfer apparatus configured to transfer a foil having the second shape onto the adhesive layer ; wherein the first shape and the second shape are different from each other.