mhurhangee/ep-ind-claims huggingface dataset:
A composition, comprising: an isolated polypeptide that is an extracellular ligand-binding portion of a human p75 tumor necrosis factor receptor fused to the Fc region of a human IgG1; salt at a concentration of greater than 50 mM to prevent aggregation of the isolated polypeptide, thereby stabilizing the composition; an aqueous buffer at a concentration of less than 100 mM, wherein the aqueous buffer is sodium phosphate, potassium phosphate, sodium or potassium citrate, maleic acid, ammonium acetate, tris-(hydroxymethyl)-aminomethane (tris), acetate, diethanolamine or a combination thereof; and a polyol or sugar, wherein the composition does not contain free amino acids. an isolated polypeptide that is an extracellular ligand-binding portion of a human p75 tumor necrosis factor receptor fused to the Fc region of a human IgG1; salt at a concentration of greater than 50 mM to prevent aggregation of the isolated polypeptide, thereby stabilizing the composition; an aqueous buffer at a concentration of less than 100 mM, wherein the aqueous buffer is sodium phosphate, potassium phosphate, sodium or potassium citrate, maleic acid, ammonium acetate, tris-(hydroxymethyl)-aminomethane (tris), acetate, diethanolamine or a combination thereof; and a polyol or sugar, wherein the composition does not contain free amino acids.
A wire plug-in aid sleeve structure for wire connection terminal or for switch wire connection device, comprising an aid sleeve, wherein the aid sleeve has a head section, a belly section connected with the head section and a tail section connected with the belly section, the head section, the belly sections and the tail sections together defining a guide hole, characterized in that the tail section having a first side and a second side positioned on a peripheral section of the guide hole and two lateral sides connected with the first and second sides (31, 32), wherein the head section has the form of a plate body having an area larger than a cross-sectional area of the belly sections, whereby a shoulder section is formed between the head section and the belly sections, the tail sections protruding from the belly sections, the cross-sectional area of the belly sections being larger than a cross-sectional area of the tail sections, at a junction between the belly section and the tail section, the guide hole being narrowed to form a tapered structure.
A method performed by a first portable terminal (100a, 100b, 100c, 100d) for sharing and using location information, the method comprising the steps of: displaying a list including a plurality of applications that use location information from among a plurality of applications stored in the first portable terminal, on a screen of the first portable terminal; receiving, for each of the plurality of applications that use location information included in the list, a corresponding setting (310, 320, 330, 340) indicating whether location-information sharing is activated through the screen, so that users of other portable terminals can receive location information of the first portable terminal and the user of the first portable terminal can determine location information of other portable terminals during the use of each of the plurality of applications; transmitting (S202, S204) the settings to a server; executing (S205, S206) an application for which location-information sharing is activated; transmitting (S207, S208), to the server, a request for sharing of location information with respect to the executed application; receiving (S210, S211), from the server, location information of a second portable terminal (100a, 100b, 100c, 100d) in which location-information sharing is activated for the executed application; and processing (S212, S213) the received location information of the second portable terminal (100a, 100b, 100c, 100d) through the executed application. displaying a list including a plurality of applications that use location information from among a plurality of applications stored in the first portable terminal, on a screen of the first portable terminal; receiving, for each of the plurality of applications that use location information included in the list, a corresponding setting (310, 320, 330, 340) indicating whether location-information sharing is activated through the screen, so that users of other portable terminals can receive location information of the first portable terminal and the user of the first portable terminal can determine location information of other portable terminals during the use of each of the plurality of applications; transmitting (S202, S204) the settings to a server; executing (S205, S206) an application for which location-information sharing is activated; transmitting (S207, S208), to the server, a request for sharing of location information with respect to the executed application; receiving (S210, S211), from the server, location information of a second portable terminal (100a, 100b, 100c, 100d) in which location-information sharing is activated for the executed application; and processing (S212, S213) the received location information of the second portable terminal (100a, 100b, 100c, 100d) through the executed application.
A method of manufacturing a ring-shaped member for a vehicle, the method being characterized by: punching out an axial intermediate portion of a ring-shaped workpiece entirely in a circumferential direction by using a punching tool that is arranged movably in a radial direction of the ring shaped workpiece so that a continuous gap is formed over the entire circumferential direction of the ring-shaped workpiece, and such that a first ring-shaped member and a second ring-shaped member, each having a tapered tubular portion or a cylindrical portion (13a, 13b) and at least one claw piece (15a, 15b), are formed, wherein the punching step comprises: performing a first punching process on a first region of the intermediate portion in the circumferential direction; and performing a second punching process on a second region of the intermediate portion which is at least partially different from the first region in the circumferential direction. punching out an axial intermediate portion of a ring-shaped workpiece entirely in a circumferential direction by using a punching tool that is arranged movably in a radial direction of the ring shaped workpiece so that a continuous gap is formed over the entire circumferential direction of the ring-shaped workpiece, and such that a first ring-shaped member and a second ring-shaped member, each having a tapered tubular portion or a cylindrical portion (13a, 13b) and at least one claw piece (15a, 15b), are formed, wherein the punching step comprises: performing a first punching process on a first region of the intermediate portion in the circumferential direction; and performing a second punching process on a second region of the intermediate portion which is at least partially different from the first region in the circumferential direction. performing a first punching process on a first region of the intermediate portion in the circumferential direction; and performing a second punching process on a second region of the intermediate portion which is at least partially different from the first region in the circumferential direction.
A method of manufacturing precision cast parts for vehicle exhaust systems, comprising: fabricating a model of a product to be manufactured using a substance selected from the group consisting of a wax and a plastic; forming a first coating layer on a surface of the model using a first slurry; forming a second coating layer on the surface of the model coated with the first coating layer using a second slurry; drying the first and second coating layers to form a mold and heating the mold to remove the model; pre-heating the mold, placing the mold in a ceramic box with a top portion open, and filling an inner part of the ceramic box with ceramic balls; and producing a product by injecting a molten metal into the mold to cast the product, characterized in that the method further comprises heating the ceramic balls to remove foreign substances from surfaces of the ceramic balls prior to the cast preparation. fabricating a model of a product to be manufactured using a substance selected from the group consisting of a wax and a plastic; forming a first coating layer on a surface of the model using a first slurry; forming a second coating layer on the surface of the model coated with the first coating layer using a second slurry; drying the first and second coating layers to form a mold and heating the mold to remove the model; pre-heating the mold, placing the mold in a ceramic box with a top portion open, and filling an inner part of the ceramic box with ceramic balls; and producing a product by injecting a molten metal into the mold to cast the product, characterized in that the method further comprises heating the ceramic balls to remove foreign substances from surfaces of the ceramic balls prior to the cast preparation.
A method of providing a drilling process control, the method characterized by: identifying, using a processor, two or more tasks required to provide the process; identifying one or more procedures associated with completing each of the two or more tasks; and outputting commands to complete the one or more procedures associated with each of the two or more tasks based on an occurrence of corresponding one or more trigger conditions, the commands being directed to actors that complete the one or more procedures, the actors including a downhole tool, a surface tool, or a human operator, wherein the one or more trigger conditions include an encounter of a borehole shape; and prioritizing, using the processor, two or more of the two or more tasks that involve a same actor among the actors. identifying, using a processor, two or more tasks required to provide the process; identifying one or more procedures associated with completing each of the two or more tasks; and outputting commands to complete the one or more procedures associated with each of the two or more tasks based on an occurrence of corresponding one or more trigger conditions, the commands being directed to actors that complete the one or more procedures, the actors including a downhole tool, a surface tool, or a human operator, wherein the one or more trigger conditions include an encounter of a borehole shape; and prioritizing, using the processor, two or more of the two or more tasks that involve a same actor among the actors.
System workstation with a self-contained stable frame support structure (11, 87, 90) for attaching attachment elements (18, 27, 85, 91), wherein the frame support structure (11, 87, 90) has a plurality of separate profile strips (12, 13, 14, 29, 57, 89), and with a wiring duct for receiving wires that is integrally formed by means of at least one profile strip (12, 13, 14, 29, 57, 89), wherein the profile strips (12, 13, 14, 29, 57, 89) that form the frame support structure (11, 87, 90) can be connected together by means of connection elements (15, 16, 58), and a connection element (15, 16, 58) for connecting two profile strips (12, 13, 14, 29, 57, 89) is provided between the two profile strips (12, 13, 14, 29, 57, 89) to be connected, wherein one connection between the profile strip (12, 13, 14, 29, 57, 89) and the connection element (15, 16, 58) is designed as a plug connection, and two connecting sides of the connection element (15, 16, 58) are each releasably connectable with an end of a profile strip (12, 13, 14, 29, 57, 89) by means of the plug connection, the connection element (15, 16) is designed as a corner connector and has a wiring section, characterised in that the wiring section is formed from two profile elements (60, 61) and a base plate arranged between the profile elements (60, 61), wherein the profile elements (60, 61) and the base plate are curved and in a side view afford a quarter circle-shaped form.
A computer-implemented image processing method comprising: acquiring original image data corresponding to a three-dimensional image of a cultured embryo obtained by optical coherence tomography imaging of the embryo; and executing a region segmentation on the three-dimensional image into a plurality of regions based on the original image data, wherein in the region segmentation, a local thickness calculation for outputting a gradation value indicating a magnitude of a radius of a sphere inscribed in an object in the three-dimensional image is performed on the three-dimensional image and the gradation value is used as an index value indicating a size of the object included in the three-dimensional image, the three-dimensional image is segmented into a region indicated by the index value greater than a predetermined first threshold and a region indicated by the index value less than the first threshold, and each of the regions resulting from the segmentation is further segmented by a watershed algorithm. acquiring original image data corresponding to a three-dimensional image of a cultured embryo obtained by optical coherence tomography imaging of the embryo; and executing a region segmentation on the three-dimensional image into a plurality of regions based on the original image data, wherein in the region segmentation, a local thickness calculation for outputting a gradation value indicating a magnitude of a radius of a sphere inscribed in an object in the three-dimensional image is performed on the three-dimensional image and the gradation value is used as an index value indicating a size of the object included in the three-dimensional image, the three-dimensional image is segmented into a region indicated by the index value greater than a predetermined first threshold and a region indicated by the index value less than the first threshold, and each of the regions resulting from the segmentation is further segmented by a watershed algorithm.
A method of performing uplink transmission by a user equipment, UE, in a wireless communication system, the method comprising: performing a previous semi-persistent scheduling, SPS, transmission; and performing the uplink transmission at a time unit where a new SPS transmission is required based on an SPS period, characterized in that, based on a retransmission timing of the previous SPS transmission being same as the time unit in a situation that the SPS period is shorter than a specific value, the uplink transmission includes one of a retransmission of the previous SPS transmission and the new SPS transmission, with an 1-bit indicator for indicating whether the uplink transmission includes the retransmission of the previous SPS transmission or the new SPS transmission, and based on the retransmission timing of the previous SPS transmission not being same as the time unit or the SPS period not being shorter than the specific value, the uplink transmission includes the new SPS transmission without the 1-bit indicator. performing a previous semi-persistent scheduling, SPS, transmission; and performing the uplink transmission at a time unit where a new SPS transmission is required based on an SPS period, characterized in that, based on a retransmission timing of the previous SPS transmission being same as the time unit in a situation that the SPS period is shorter than a specific value, the uplink transmission includes one of a retransmission of the previous SPS transmission and the new SPS transmission, with an 1-bit indicator for indicating whether the uplink transmission includes the retransmission of the previous SPS transmission or the new SPS transmission, and based on the retransmission timing of the previous SPS transmission not being same as the time unit or the SPS period not being shorter than the specific value, the uplink transmission includes the new SPS transmission without the 1-bit indicator.
A method for performing a run-time simulation of a computer program comprising: extracting said computer program from a first application environment to a second application environment; in the second application environment, parsing said computer program to generate a hierarchical representation of said computer program; in the second application environment, and based on said hierarchical representation, inserting at least one log value generation instruction into said extracted computer program to generate an enhanced computer program; re-injecting said enhanced computer program into said first application environment; executing, in said first application environment, said enhanced computer program; and receiving from said first application environment generated log values; the method characterized by: generating a second hierarchical representation by parsing said enhanced computer program; and analysing said log values by identifying at least one portion of said computer program associated with said at least one log value by determining the insertion locations of said at least one log value generation instruction with respect to said second hierarchical representation thereby pairing the resulting log values with the code. extracting said computer program from a first application environment to a second application environment; in the second application environment, parsing said computer program to generate a hierarchical representation of said computer program; in the second application environment, and based on said hierarchical representation, inserting at least one log value generation instruction into said extracted computer program to generate an enhanced computer program; re-injecting said enhanced computer program into said first application environment; executing, in said first application environment, said enhanced computer program; and receiving from said first application environment generated log values; the method characterized by: generating a second hierarchical representation by parsing said enhanced computer program; and analysing said log values by identifying at least one portion of said computer program associated with said at least one log value by determining the insertion locations of said at least one log value generation instruction with respect to said second hierarchical representation thereby pairing the resulting log values with the code. generating a second hierarchical representation by parsing said enhanced computer program; and analysing said log values by identifying at least one portion of said computer program associated with said at least one log value by determining the insertion locations of said at least one log value generation instruction with respect to said second hierarchical representation thereby pairing the resulting log values with the code.
A seed drill having a frame, to which at least one disc-shaped seeding coulter and a disc-shaped fertiliser coulter arranged upstream of the seeding coulter in a working direction are connected, wherein the seeding coulter and the fertiliser coulter are each assigned a depth control means, wherein the depth control means assigned to the fertiliser coulter is or are one or more wheels, wherein at least on a side of the fertiliser coulter a depth control means is arranged laterally next to the fertiliser coulter so that seen from a direction transversely to the working direction at least half of the enveloping surface of the same overlaps the enveloping surface of the fertiliser coulter, characterized in that the depth control means comprises a row pre-forming and re-compacting means entering the ground, which, seen transversely to the working direction, is arranged relative to the fertiliser coulter so that the track of the same the following seeding coulter cuts into the ground and forms the seed furrow.
A barrier device (100; 200; 300; 400), comprising: a distal self-expanding stent (102; 202; 302) having a ring-like structure (105; 305) in an expanded configuration; a tubular barrier (104; 204; 304; 404) having a proximal end, a distal end, and a lumen extending therethrough, the distal stent (102; 202; 302) disposed at the distal end of the tubular barrier (104; 204; 304; 404); and an anchoring self-expanding stent (106; 206; 306) disposed at the proximal end of the tubular barrier (104; 204; 304; 404), wherein the anchoring self-expanding stent (106; 206; 306) has a shape-memory in an expanded configuration that substantially mimics a contour of an anatomy of a gastric outlet; wherein the ring-like structure (105; 305) is similarly shaped to a bolus of stomach materials such that the distal self-expanding stent (102; 202; 302) is configured to get distally translated through the intestine with the tubular barrier (104; 204; 304; 404) in tow, due to peristaltic waves generated by contraction of smooth muscles of the intestine. a distal self-expanding stent (102; 202; 302) having a ring-like structure (105; 305) in an expanded configuration; a tubular barrier (104; 204; 304; 404) having a proximal end, a distal end, and a lumen extending therethrough, the distal stent (102; 202; 302) disposed at the distal end of the tubular barrier (104; 204; 304; 404); and an anchoring self-expanding stent (106; 206; 306) disposed at the proximal end of the tubular barrier (104; 204; 304; 404), wherein the anchoring self-expanding stent (106; 206; 306) has a shape-memory in an expanded configuration that substantially mimics a contour of an anatomy of a gastric outlet; wherein the ring-like structure (105; 305) is similarly shaped to a bolus of stomach materials such that the distal self-expanding stent (102; 202; 302) is configured to get distally translated through the intestine with the tubular barrier (104; 204; 304; 404) in tow, due to peristaltic waves generated by contraction of smooth muscles of the intestine.
An apparatus comprising a circuit board, a circuit board connector mounted on the circuit board and configured to mate with a cable connector, and a grounding part distinct form the circuit board and distinct from the circuit board connector, - wherein the circuit board connector comprises at least one grounding element (220, 230) transferable from a rest position to a grounding position by mating the cable connector with the circuit board connector; - wherein the grounding position is a position for grounding the circuit board connector by means of a direct mechanical contact between an end portion of the grounding element (220, 230) and the grounding part; - wherein the grounding element (220, 230) is configured to perform a movement in a direction perpendicular to a circuit board connector mounting surface when it is transferred from the rest position to the grounding position; and - wherein the end portion of the grounding element (220, 230) is configured to penetrate the circuit board in the grounding position. - wherein the circuit board connector comprises at least one grounding element (220, 230) transferable from a rest position to a grounding position by mating the cable connector with the circuit board connector; - wherein the grounding position is a position for grounding the circuit board connector by means of a direct mechanical contact between an end portion of the grounding element (220, 230) and the grounding part; - wherein the grounding element (220, 230) is configured to perform a movement in a direction perpendicular to a circuit board connector mounting surface when it is transferred from the rest position to the grounding position; and - wherein the end portion of the grounding element (220, 230) is configured to penetrate the circuit board in the grounding position.