mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for administration by intramuscular or subcutaneous injection, comprising a therapeutically effective amount of bedaquiline, or a pharmaceutically acceptable salt thereof, in the form of a suspension of micro- or nanoparticles comprising: (a) bedaquiline, or a pharmaceutically acceptable salt thereof, in micro- or nanoparticle form, and a surface modifier; and (b) a pharmaceutically acceptable aqueous carrier. (a) bedaquiline, or a pharmaceutically acceptable salt thereof, in micro- or nanoparticle form, and a surface modifier; and (b) a pharmaceutically acceptable aqueous carrier.
A stent spring for repairing a pipe comprising: a substantially tubular mesh structure defining a void , the void defining a central axis , the mesh structure comprising one or more strands , the one or more strands defining a plurality of openings , wherein the stent spring is configurable in an expanded stent spring configuration and a compressed stent spring configuration; a tab extending radially inward from the mesh structure into the void , the tab defining a tab opening ; and a compression mechanism configured to engage the tab to bias the stent spring to the compressed stent spring configuration, wherein the compression mechanism comprises: i) a compression disc , the compression disc defining a disc slot formed in an outer side edge of the compression disc , and ii) a connector comprising a head , wherein the head extends into the disc slot . a substantially tubular mesh structure defining a void , the void defining a central axis , the mesh structure comprising one or more strands , the one or more strands defining a plurality of openings , wherein the stent spring is configurable in an expanded stent spring configuration and a compressed stent spring configuration; a tab extending radially inward from the mesh structure into the void , the tab defining a tab opening ; and a compression mechanism configured to engage the tab to bias the stent spring to the compressed stent spring configuration, wherein the compression mechanism comprises: i) a compression disc , the compression disc defining a disc slot formed in an outer side edge of the compression disc , and ii) a connector comprising a head , wherein the head extends into the disc slot . i) a compression disc , the compression disc defining a disc slot formed in an outer side edge of the compression disc , and ii) a connector comprising a head , wherein the head extends into the disc slot .
A threshing concave assembly comprised of: a concave frame having a first side member and a second side member opposing each other, wherein the first and second side members each have an interior surface and exterior surface; an elongated crop threshing bar disposed between the interior surface of the first side and second side members of the frame ; and the elongated crop threshing bar having a first end and a second end, wherein the first and second ends are affixed to the interior surface of the first and second side members of the frame , the first and second side members comprising a top surface and a bottom surface; characterized in that 2. the top surface of the first and second side members further comprise crest and trough configurations; wherein the elongated crop threshing bar further comprises a cut-away notch, channel, or groove extending the length of the elongated crop threshing bar ; the cut-away notch, channel, or groove at least partially aligns with the troughs of the top surface of the first and second side members . a concave frame having a first side member and a second side member opposing each other, wherein the first and second side members each have an interior surface and exterior surface; an elongated crop threshing bar disposed between the interior surface of the first side and second side members of the frame ; and the elongated crop threshing bar having a first end and a second end, wherein the first and second ends are affixed to the interior surface of the first and second side members of the frame , the first and second side members comprising a top surface and a bottom surface; characterized in that 2. the top surface of the first and second side members further comprise crest and trough configurations; wherein the elongated crop threshing bar further comprises a cut-away notch, channel, or groove extending the length of the elongated crop threshing bar ; the cut-away notch, channel, or groove at least partially aligns with the troughs of the top surface of the first and second side members .
A polynucleotide comprising a seed specific promoter and a heterologous expression enhancing element (NEENA) functionally linked to said promoter, and further comprising a nucleic acid sequence to be expressed under the control of said promoter, wherein the NEENA is selected from i) a nucleic acid molecule as shown in the nucleic acid sequence of SEQ ID NO. 8, ii) a nucleic acid molecule having at least 80% sequence identity to the nucleic acid sequence of i), wherein said nucleic acid molecule enhances the expression of the nucleic acid sequence to be expressed under the control of said promoter, and iii) a nucleic acid molecule of at least 100 consecutive bases of a nucleic acid sequence of i) or ii) which enhances the expression of the nucleic acid sequence to be expressed under the control of said promoter. i) a nucleic acid molecule as shown in the nucleic acid sequence of SEQ ID NO. 8, ii) a nucleic acid molecule having at least 80% sequence identity to the nucleic acid sequence of i), wherein said nucleic acid molecule enhances the expression of the nucleic acid sequence to be expressed under the control of said promoter, and iii) a nucleic acid molecule of at least 100 consecutive bases of a nucleic acid sequence of i) or ii) which enhances the expression of the nucleic acid sequence to be expressed under the control of said promoter.
A pellicle composition, comprising: a graphene quantum dot compound; and a solvent, wherein the graphene quantum dot compound includes at least one selected from graphene quantum dots having a size of 50 nm or less or a graphene quantum dot precursor; and wherein an amount of the graphene quantum dot compound is in a range of 0.1 wt% to 40 wt% based on a total weight of the pellicle composition. a graphene quantum dot compound; and a solvent, wherein the graphene quantum dot compound includes at least one selected from graphene quantum dots having a size of 50 nm or less or a graphene quantum dot precursor; and wherein an amount of the graphene quantum dot compound is in a range of 0.1 wt% to 40 wt% based on a total weight of the pellicle composition.
A method for the manufacture of a homogeneous, solid, particulate, urea-based material comprising elemental sulphur, the method comprising the steps of: (a) providing a first liquid flow comprising a urea-based base material at a first temperature at least at or above the melting temperature of the urea-based base material; (b) providing a second liquid flow comprising elemental sulphur at a second temperature at least at or above the melting temperature of the elemental sulphur; (c) continuously joining the first flow with the second flow to form a third flow at a third temperature at which both flows are liquid, such that elemental sulphur in the resulting inhomogeneous melt of molten urea-based base material and molten elemental sulphur is in liquid form; and (d) spraying the inhomogeneous melt, provided in step (c), in a urea fluidized bed granulator using spraying means comprising at least one atomization nozzle operated at less than 2 bar; wherein the residence time of the third flow between the steps of joining (c) and spraying (d) is in the order of 10 to 100 seconds; such that the melt is solidified into homogeneous, solid, particulate urea-based material comprising solid elemental sulphur phases therein. (a) providing a first liquid flow comprising a urea-based base material at a first temperature at least at or above the melting temperature of the urea-based base material; (b) providing a second liquid flow comprising elemental sulphur at a second temperature at least at or above the melting temperature of the elemental sulphur; (c) continuously joining the first flow with the second flow to form a third flow at a third temperature at which both flows are liquid, such that elemental sulphur in the resulting inhomogeneous melt of molten urea-based base material and molten elemental sulphur is in liquid form; and (d) spraying the inhomogeneous melt, provided in step (c), in a urea fluidized bed granulator using spraying means comprising at least one atomization nozzle operated at less than 2 bar; wherein the residence time of the third flow between the steps of joining (c) and spraying (d) is in the order of 10 to 100 seconds; such that the melt is solidified into homogeneous, solid, particulate urea-based material comprising solid elemental sulphur phases therein.
A memory device comprising at least one memory stack electrically connected in series with a selection transistor, the memory device comprising a substrate over which the selection transistor comprises: - a semiconductor layer comprising several first areas superimposed on top of one another, the first areas forming an electrical conduction channel of the selection transistor; - an electrostatic control gate and a gate dielectric layer of the selection transistor, parts of the gate dielectric layer being each arranged between a part of the electrostatic control gate and one of the first areas of the semiconductor layer ; - dielectric spacers arranged against sidewalls of the electrostatic control gate ; - contact regions electrically coupled to the first areas of the semiconductor layer via second areas of the semiconductor layer , the second areas of the semiconductor layer extending between the contact regions and the dielectric spacers , the contact regions forming source/drain regions of the selection transistor. wherein one of the contact regions comprises the memory stack interposed between a first conductive portion , electrically connecting the memory stack to the semiconductor layer , and a second conductive portion forming an electrical contact of the memory stack ; and wherein the second areas of the semiconductor layer are not arranged directly against the electrostatic control gate and form a continuous layer with the first areas . - a semiconductor layer comprising several first areas superimposed on top of one another, the first areas forming an electrical conduction channel of the selection transistor; - an electrostatic control gate and a gate dielectric layer of the selection transistor, parts of the gate dielectric layer being each arranged between a part of the electrostatic control gate and one of the first areas of the semiconductor layer ; - dielectric spacers arranged against sidewalls of the electrostatic control gate ; - contact regions electrically coupled to the first areas of the semiconductor layer via second areas of the semiconductor layer , the second areas of the semiconductor layer extending between the contact regions and the dielectric spacers , the contact regions forming source/drain regions of the selection transistor. wherein one of the contact regions comprises the memory stack interposed between a first conductive portion , electrically connecting the memory stack to the semiconductor layer , and a second conductive portion forming an electrical contact of the memory stack ; and wherein the second areas of the semiconductor layer are not arranged directly against the electrostatic control gate and form a continuous layer with the first areas .
A computer-implemented process comprising: tracking a user's behavioral pattern to generate a pre-surveillance rule that includes i) a trigger time that is a predetermined amount of time before a user's behavioral pattern begins, and ii) a location that is to be pre-surveilled and that is associated with the user's behavioral pattern, wherein the user's behavioral pattern includes travel in the location and the pre-surveillance rule triggers surveillance of the location at the trigger time; monitoring a user's behavior using a monitoring system ; determining whether to initiate execution of the pre-surveillance rule by determining that the user's behavior is consistent with the user's behavioral pattern associated with the pre-surveillance rule at the trigger time; determining a drone navigation path that is associated with the pre-surveillance rule; transmitting an instruction to a drone to perform pre-surveillance along the navigation path ; the computer-implemented process being characterized in that it further comprises the steps of: generating a status report, wherein the status report provides an indication of a level of safety associated with the location that was pre-surveilled; and transmitting the status report to a user device of the user. tracking a user's behavioral pattern to generate a pre-surveillance rule that includes i) a trigger time that is a predetermined amount of time before a user's behavioral pattern begins, and ii) a location that is to be pre-surveilled and that is associated with the user's behavioral pattern, wherein the user's behavioral pattern includes travel in the location and the pre-surveillance rule triggers surveillance of the location at the trigger time; i) a trigger time that is a predetermined amount of time before a user's behavioral pattern begins, and ii) a location that is to be pre-surveilled and that is associated with the user's behavioral pattern, wherein the user's behavioral pattern includes travel in the location and the pre-surveillance rule triggers surveillance of the location at the trigger time; monitoring a user's behavior using a monitoring system ; determining whether to initiate execution of the pre-surveillance rule by determining that the user's behavior is consistent with the user's behavioral pattern associated with the pre-surveillance rule at the trigger time; determining a drone navigation path that is associated with the pre-surveillance rule; transmitting an instruction to a drone to perform pre-surveillance along the navigation path ; the computer-implemented process being characterized in that it further comprises the steps of: generating a status report, wherein the status report provides an indication of a level of safety associated with the location that was pre-surveilled; and transmitting the status report to a user device of the user.
A sulfur-modified chloroprene polymer latex, comprising: an emulsifier and a sulfur-modified chloroprene polymer that is a chloroprene polymer (A) modified with sulfur (B), wherein when the total amount of a chloroprene monomer (A-1) and a monomer (A-2) copolymerizable with the chloroprene monomer which constitute the chloroprene polymer is 100 parts by mass, the amount of sulfur (B) contained in the sulfur-modified chloroprene polymer is Y parts by mass, and the z-average particle size of the sulfur-modified chloroprene polymer is X nm, the sulfur amount Y in the sulfur-modified chloroprene polymer, and the z-average particle size X of the sulfur-modified chloroprene polymer satisfy the relationships represented by the following formulae to : 0.10 < Y < 0.60 120 < X < 320 Y < 0.0025 X − 0.20
A geothermal heat exchange system comprising: a borehole , which is divided into a ground surface section (GH1) and a shallow geothermal source section (GH2); a heat transfer portion (B) formed by filling the shallow geothermal source section (GH2) of the borehole with a heat conductive grouting material to acquire geothermal heat; and heat exchange pipes in which heat exchange medium flows, characterized in that one or more stackable thermal insulation cartridges is (are) installed in the ground surface section (GH1) of said borehole , and that the heat exchange pipes pass through the stackable thermal insulation cartridge(s) and the heat transfer portion (B) wherein the stackable thermal insulation cartridge comprises an inner pipe and an outer pipe which are formed of a plastic material, wherein the space between the inner pipe and the outer pipe is filled with a thermal insulation material, a thermal insulation grouting material is filled in the inner pipe , and heat exchanging pipes are passed through the inner pipe. a borehole , which is divided into a ground surface section (GH1) and a shallow geothermal source section (GH2); a heat transfer portion (B) formed by filling the shallow geothermal source section (GH2) of the borehole with a heat conductive grouting material to acquire geothermal heat; and heat exchange pipes in which heat exchange medium flows, characterized in that one or more stackable thermal insulation cartridges is (are) installed in the ground surface section (GH1) of said borehole , and that the heat exchange pipes pass through the stackable thermal insulation cartridge(s) and the heat transfer portion (B) wherein the stackable thermal insulation cartridge comprises an inner pipe and an outer pipe which are formed of a plastic material, wherein the space between the inner pipe and the outer pipe is filled with a thermal insulation material, a thermal insulation grouting material is filled in the inner pipe , and heat exchanging pipes are passed through the inner pipe.
Computing device (100; 100a) with at least one computing core for carrying out a first computer program (PRG1), wherein the computing device (100; 100a) is designed to access a memory device (200; 200a) to load the first computer program (PRG1), wherein the computing device (100; 100a) is designed to send a first control command (A1; A1'), which characterizes the first computer program (PRG1) and/or a memory area of the memory device (200; 200a) assigned to the first computer program (PRG1), to at least one cryptographic module , wherein the cryptographic module is designed to verify the computer program (PRG1) characterized by the first control command (A1) or the memory area of the memory device (200; 200a) assigned to the first computer program (PRG1) , wherein the computing device (100; 100a) is designed to execute the first computer program (PRG1) , wherein the computing device (100; 100a) is designed to execute the first computer program (PRG1) directly after the sending of the first control command (A1; A1') to the cryptographic module without waiting for a or the response (A2) of the cryptographic module to the first control command (A1; A1') and/or without reading out the response (A2) from the cryptographic module , wherein the computing device (100; 100a) is designed to receive a response (A2; A2') of the cryptographic module to the first control command (A1) or to read it out from the cryptographic module , wherein the response (A2; A2') has information about the result of a test of the first computer program (PRG1) characterized by the control command (A1; A1') or the memory area of the memory device (200; 200a) assigned to the first computer program (PRG1), wherein the computing device (100; 100a) is designed to control operation of the computing device (100; 100a) in dependence on the response (A2; A2') .
A process for producing a structure comprising a membrane of a first material, in particular indium-tin oxide, in contact with receiving ends of a plurality of nanowires , the process comprising the following steps: - Forming a nanowire device comprising the receiving ends , the receiving ends being formed so as to form planar surfaces, - Producing of a membrane device (3 ; 34) comprising said membrane and a layer - Placing, by transfer, of the membrane device (3; 34), previously made, directly on the nanowires at the planar surfaces of the receiving ends, so that the membrane is in contact with said receiving ends, the ratio of the sum of the areas of the surfaces of the receiving ends relative to the continuous area of the surface of the membrane on said receiving ends being strictly less than 100%, and - Following the step of placing the membrane device on the nanowires at the receiving ends, rinsing the structure with a solvent, so as to dissolve the layer of the membrane device so as to remain on said receiving ends, the membrane . - Forming a nanowire device comprising the receiving ends , the receiving ends being formed so as to form planar surfaces, - Producing of a membrane device (3 ; 34) comprising said membrane and a layer - Placing, by transfer, of the membrane device (3; 34), previously made, directly on the nanowires at the planar surfaces of the receiving ends, so that the membrane is in contact with said receiving ends, the ratio of the sum of the areas of the surfaces of the receiving ends relative to the continuous area of the surface of the membrane on said receiving ends being strictly less than 100%, and - Following the step of placing the membrane device on the nanowires at the receiving ends, rinsing the structure with a solvent, so as to dissolve the layer of the membrane device so as to remain on said receiving ends, the membrane .
An image decoding method performed by an image decoding apparatus, the image decoding method comprising: determining a prediction mode of a current block based on prediction mode information of the current block; determining whether intra sub-partitions, ISP, is available for the current block, based on the prediction mode of the current block being an intra prediction mode; decoding ISP mode information for the current block, based on the ISP being available for the current block; and generating a prediction block for the current block by applying the ISP to the current block based on the ISP mode information, wherein the determining whether the ISP is available for the current block is performed based on comparison between a size of a luma component block of the current block and a specific threshold, and wherein, a flag related to whether the current block is partitioned into subpartitions is parsed based on intra_luma_ref_idx [x0][y0] is 0 and both a width and height of the luma component block of the current block being equal to or less than the specific threshold. determining a prediction mode of a current block based on prediction mode information of the current block; determining whether intra sub-partitions, ISP, is available for the current block, based on the prediction mode of the current block being an intra prediction mode; decoding ISP mode information for the current block, based on the ISP being available for the current block; and generating a prediction block for the current block by applying the ISP to the current block based on the ISP mode information, wherein the determining whether the ISP is available for the current block is performed based on comparison between a size of a luma component block of the current block and a specific threshold, and wherein, a flag related to whether the current block is partitioned into subpartitions is parsed based on intra_luma_ref_idx [x0][y0] is 0 and both a width and height of the luma component block of the current block being equal to or less than the specific threshold.
Component arrangement, namely a rotor, for a turbomachine, in particular a gas turbine, comprising a first flange and a second flange having recesses distributed in a distribution direction, in particular in a peripheral direction, the second flange being fastened to the first flange, in particular releasably, by fasteners which engage in first recesses of these recesses of the first an d second flange, characterized in that fastener-free second recesses of these recesses of the first flange are covered by the second flange so as to be airtight.