mhurhangee/ep-ind-claims huggingface dataset:
A memory system (10, 20), comprising: a memory controller (200, 400) configured to transmit a command, an address, or data to a first channel based on a data input/output signal having one of N different voltage levels during a first time interval, where N is a natural number of three or more, and the memory controller (200, 400) is configured to transmit the command, the address, or the data not transmitted during the first time interval to the first channel based on the data input/output signal having one of two different voltage levels during a second time interval; and a memory device (100, 300) configured to sample the data input/output signal received via the first channel during the first time interval in a pulse amplitude modulation, PAM,-N mode, the memory device (100, 300) configured to sample the data input/output signal received via the first channel during the second time interval in a non return to zero, NRZ, mode, wherein the memory controller (200, 400) transmits the command and the address to the first channel during the first time interval, and the data to the first channel during the second time interval. a memory controller (200, 400) configured to transmit a command, an address, or data to a first channel based on a data input/output signal having one of N different voltage levels during a first time interval, where N is a natural number of three or more, and the memory controller (200, 400) is configured to transmit the command, the address, or the data not transmitted during the first time interval to the first channel based on the data input/output signal having one of two different voltage levels during a second time interval; and a memory device (100, 300) configured to sample the data input/output signal received via the first channel during the first time interval in a pulse amplitude modulation, PAM,-N mode, the memory device (100, 300) configured to sample the data input/output signal received via the first channel during the second time interval in a non return to zero, NRZ, mode, wherein the memory controller (200, 400) transmits the command and the address to the first channel during the first time interval, and the data to the first channel during the second time interval.
A method comprising: forming a catechol solution comprising a catechol compound and an organic solvent; heating the catechol solution; adding titanium tetrachloride to the catechol solution to form a reaction mixture; reacting the titanium tetrachloride with the catechol compound to evolve HCl gas from the reaction mixture and to form an intermediate titanium catechol complex; and adding an alkaline aqueous solution to the intermediate titanium catechol complex, the alkaline aqueous solution comprising an alkali metal base: wherein the alkali metal base converts the intermediate titanium catechol complex into an alkali metal salt form titanium catechol complex that is at least partially dissolved in an aqueous phase. forming a catechol solution comprising a catechol compound and an organic solvent; heating the catechol solution; adding titanium tetrachloride to the catechol solution to form a reaction mixture; reacting the titanium tetrachloride with the catechol compound to evolve HCl gas from the reaction mixture and to form an intermediate titanium catechol complex; and adding an alkaline aqueous solution to the intermediate titanium catechol complex, the alkaline aqueous solution comprising an alkali metal base: wherein the alkali metal base converts the intermediate titanium catechol complex into an alkali metal salt form titanium catechol complex that is at least partially dissolved in an aqueous phase.
A helper plasmid comprising at least one adeno-associated virus rep gene encoding at least one functional AAV Rep protein and at least one helper virus gene, and which does not comprise a cap gene encoding a functional set of Cap proteins.
A device for stabilizing body joints, muscles and tendons comprising: a receptacle body, wherein the receptacle body is filled with a dilatant fluid and the receptacle body extends in an elongated shape from a first end towards a second end, and a compression body, wherein the compression body is arranged in the receptacle body in a relatively movable manner, wherein the compression body divides an interior space of the receptacle body into a first chamber and a second chamber, wherein between the receptacle body and the compression body a passage is provided, wherein the passage connects the first chamber with the second chamber fluid-technically, and wherein the compression body comprises at least one compression surface which substantially defines one side of the first chamber, wherein the compression surface can press onto the dilatant fluid situated in the first chamber, characterized by means of exactly one fibrous tension body for initiating an external force into the device, which is connected to the compression body.
An optimized method for washing in washing machines, characterized by a step of adding a stain-removing/cleaning additive during the last rinsing step of any washing cycle, wherein said additive is withdrawn from a dispenser compartment of the softener additive and brought into contact with the clothes to be washed by the water passing through the dispenser compartment of the softening additive, characterised in that the stain-removing/cleaning additive is a composition consisting of one or more of the following components: nonionic, anionic, amphoteric, cationic surfactants and/or soaps and/or enzymes and/or sequestering agents, selected from phosphonates, EDTA or amino-acid derivatives and/or chlorine-based whiteners and/or performance booster polymers, said additive being present in an amount of from 30 to 100 ml.
A combined container-processing plant comprising a container-forming machine and a container-filling machine operatively coupled to the container-forming machine, the container-forming machine and the container-filling machine having a respective rotating wheel, or carousel (16, 25), controlled by a respective control unit (18, 28) to rotate around a respective rotation axis (A, B) at synchronized production speed, while performing respective container-processing operations; characterized in that the container-forming machine and the container-filling machine are controlled to rotate at a full production speed, in a first operating condition, and at least at a first reduced production speed, in a second operating condition; the container-forming machine being configured to perform container-forming operations both at the full production speed and at the first reduced production speed.
A suction applying device for applying suction to a sampling unit (50; 150; 250) for sampling bodily fluid, wherein the suction applying device comprises - a syringe body with a hollow interior and a piston movable inside the hollow interior of the syringe body, wherein the syringe body has a rear end through which a piston rod connected to the piston extends outside of the syringe body and by means of which the piston can be moved, and a front end opposite the rear end, - a connection arrangement (30; 130; 230) configured for connection of a sampling unit (50; 150; 250), wherein the connection arrangement is located at the front end of the syringe body, - a first conduit having a rear opening connecting the first conduit to a rear portion of the hollow interior of the syringe body, in which rear portion a sub-pressure is created when the piston is moved forward inside the hollow interior, and a front opening by means of which the first conduit is connectable to a sampling unit (50; 150; 250), and - a second conduit, which second conduit connects a front portion of the hollow interior of the syringe body with the exterior of the syringe body, and which front portion is located between the piston and the front end of the syringe body. - a syringe body with a hollow interior and a piston movable inside the hollow interior of the syringe body, wherein the syringe body has a rear end through which a piston rod connected to the piston extends outside of the syringe body and by means of which the piston can be moved, and a front end opposite the rear end, - a connection arrangement (30; 130; 230) configured for connection of a sampling unit (50; 150; 250), wherein the connection arrangement is located at the front end of the syringe body, - a first conduit having a rear opening connecting the first conduit to a rear portion of the hollow interior of the syringe body, in which rear portion a sub-pressure is created when the piston is moved forward inside the hollow interior, and a front opening by means of which the first conduit is connectable to a sampling unit (50; 150; 250), and - a second conduit, which second conduit connects a front portion of the hollow interior of the syringe body with the exterior of the syringe body, and which front portion is located between the piston and the front end of the syringe body.
A pharmaceutical composition comprising Parathyroid hormone or PTH fragments having 84-n amino acids, wherein n is an integer from 1 to 56, and wherein the fragments contain the first 28 n-terminal amino acid residues, for use in the treatment of ischemic heart diseases.
A component for a gas turbine engine, comprising: a platform having an outer surface and an inner surface; a cover plate (80; 180) positioned adjacent to said outer surface of said platform, wherein said outer surface of said platform includes a pocket and said cover plate (80; 180) is positioned relative to said pocket to establish a platform cooling channel therebetween; a pocket wall which extends between said pocket and a slot of a mate face of said platform and includes a circumferential wall and a floor; and a seal received within said slot of said mate face, wherein the seal abuts a flat surface of said pocket wall, wherein at least a portion of said pocket is exposed to establish said platform cooling channel, said platform cooling channel is bounded by said cover plate (80; 180) and said pocket on all but a single side, the pocket includes a leading edge axial wall and a trailing edge axial wall, the portion of the pocket opposite from the circumferential wall is the exposed portion of the pocket, the cooling channel axially extends between the leading edge axial wall and the trailing edge axial wall, and the circumferential wall faces the circumferential direction. a platform having an outer surface and an inner surface; a cover plate (80; 180) positioned adjacent to said outer surface of said platform, wherein said outer surface of said platform includes a pocket and said cover plate (80; 180) is positioned relative to said pocket to establish a platform cooling channel therebetween; a pocket wall which extends between said pocket and a slot of a mate face of said platform and includes a circumferential wall and a floor; and a seal received within said slot of said mate face, wherein the seal abuts a flat surface of said pocket wall, wherein at least a portion of said pocket is exposed to establish said platform cooling channel, said platform cooling channel is bounded by said cover plate (80; 180) and said pocket on all but a single side, the pocket includes a leading edge axial wall and a trailing edge axial wall, the portion of the pocket opposite from the circumferential wall is the exposed portion of the pocket, the cooling channel axially extends between the leading edge axial wall and the trailing edge axial wall, and the circumferential wall faces the circumferential direction.
A robotic surgery system, comprising: a base configured to be fixed relative to an operating room; a robotic arm coupled to the base, wherein the robotic arm comprises a mounting fixture configured to be interchangeably coupled to a surgical tool and a first element of a fluoroscopic imaging system comprising a source element and a detector element, wherein the first element is one of the source element and the detector element; a second element of the fluoroscopic imaging system, wherein the second element is the other of the source element and the detector element, the second element configured to be repositionable relative to the first element of the fluoroscopic imaging system and relative to a patient tissue structure such that the patient tissue structure may be positioned between the first and second elements (24, 26) of the fluoroscopic imaging system; and a controller operatively coupled to the robotic arm, the controller configured to receive signals from a sensing system operatively coupled to the controller, the sensing system configured to detect motion of one or more sensor elements coupled to each of the first and second elements (24, 26) of the fluoroscopic imaging system, and the controller further configured to determine a relative spatial positioning between each of the first and second elements (24, 26) of the fluoroscopic imaging system. a base configured to be fixed relative to an operating room; a robotic arm coupled to the base, wherein the robotic arm comprises a mounting fixture configured to be interchangeably coupled to a surgical tool and a first element of a fluoroscopic imaging system comprising a source element and a detector element, wherein the first element is one of the source element and the detector element; a second element of the fluoroscopic imaging system, wherein the second element is the other of the source element and the detector element, the second element configured to be repositionable relative to the first element of the fluoroscopic imaging system and relative to a patient tissue structure such that the patient tissue structure may be positioned between the first and second elements (24, 26) of the fluoroscopic imaging system; and a controller operatively coupled to the robotic arm, the controller configured to receive signals from a sensing system operatively coupled to the controller, the sensing system configured to detect motion of one or more sensor elements coupled to each of the first and second elements (24, 26) of the fluoroscopic imaging system, and the controller further configured to determine a relative spatial positioning between each of the first and second elements (24, 26) of the fluoroscopic imaging system.
An absorbent article selected from disposable diapers or diaper pants having an absorbent core comprising: a front portion; a back portion; a crotch portion position between the front portion and the back portion; and a longitudinal axis extending along a length of said core and crossing said front, crotch and back portions (122, 126, 124), the absorbent core having a width extending perpendicular to said length and a perimeter comprising at least two opposing ends (102, 103) and at least two opposing sides (104, 105) positioned between said ends (102, 103) characterized in that the absorbent core comprises one or more substantially interconnected channels extending through the crotch portion along and substantially parallel to the longitudinal axis and further extending along at least a portion of said width of the core from one side of the core to the other, said one or more substantially interconnected channels being symmetric or asymmetric about the longitudinal axis, wherein at least one of the interconnected channels, preferably each of said channels, forms a shape having a closed end in the form of a U-bend, wherein the closed end is positioned proximal to the back portion of the absorbent core, and wherein said channels comprise a first nonwoven web bonded to a second nonwoven web by one or more adhesives. a front portion; a back portion; a crotch portion position between the front portion and the back portion; and a longitudinal axis extending along a length of said core and crossing said front, crotch and back portions (122, 126, 124), the absorbent core having a width extending perpendicular to said length and a perimeter comprising at least two opposing ends (102, 103) and at least two opposing sides (104, 105) positioned between said ends (102, 103) characterized in that the absorbent core comprises one or more substantially interconnected channels extending through the crotch portion along and substantially parallel to the longitudinal axis and further extending along at least a portion of said width of the core from one side of the core to the other, said one or more substantially interconnected channels being symmetric or asymmetric about the longitudinal axis, wherein at least one of the interconnected channels, preferably each of said channels, forms a shape having a closed end in the form of a U-bend, wherein the closed end is positioned proximal to the back portion of the absorbent core, and wherein said channels comprise a first nonwoven web bonded to a second nonwoven web by one or more adhesives.
A method performed by a source distribution unit, DU, of a base station in a wireless communication system, the method comprising: performing data transmission to a wireless device; initiating a mobility of the wireless device from the source DU to a target DU of the base station within a central unit, CU, of the base station; characterized by receiving, from the CU, a message including information related to stopping the data transmission to the wireless device; upon receiving the message from the CU, stopping the data transmission to the wireless device and transmitting a radio resource control, RRC, reconfiguration message to the wireless device; and transmitting, to the CU, information related to downlink data unsuccessfully transmitted to the wireless device, wherein radio resource control, RRC, packet data convergence protocol, PDCP, layers of the base station are located in the CU, and wherein radio link control, RLC, media access control, MAC, and physical layers of the base station are located in the source DU and the target DU. performing data transmission to a wireless device; initiating a mobility of the wireless device from the source DU to a target DU of the base station within a central unit, CU, of the base station; characterized by receiving, from the CU, a message including information related to stopping the data transmission to the wireless device; upon receiving the message from the CU, stopping the data transmission to the wireless device and transmitting a radio resource control, RRC, reconfiguration message to the wireless device; and transmitting, to the CU, information related to downlink data unsuccessfully transmitted to the wireless device, wherein radio resource control, RRC, packet data convergence protocol, PDCP, layers of the base station are located in the CU, and wherein radio link control, RLC, media access control, MAC, and physical layers of the base station are located in the source DU and the target DU.
Flexible duct element made of metal, comprising at least one annularly corrugated or helically corrugated bellows section and at least one terminally arranged connection cuff for connecting the flexible duct element to a further duct element or to a connection part, wherein there is mounted on the connection cuff a flange element having an end face at least one region of which serves as sealing face, and the connection cuff is bent over so as to point radially outwards at the end face of the flange element so that on connection of the flexible duct element to a further duct element or to a connection part it covers a portion of the end face of the flange element and/or forms a portion of the sealing face, the bent-over region of the connection cuff having a funnel shape and enclosing an angle α < 90° between itself and a longitudinal axis of the flexible duct element, characterised in that the flange element is funnel-shaped in that region of its end face which is covered by the bent-over region of the connection cuff, the funnel-shaped region of the end face of the flange element being dimensioned so that the adjoining connection cuff forms with its end-face end (13, 15) a circumferential edge (12, 16) which projects beyond a radial plane of the sealing face of the flange element in order that, on connection of the flexible duct element to a further duct element or connection part which has a counterpart to the flange element with a counter-sealing face, a circumferential linear seal is formed at that counter-sealing face.
Method for contactlessly attaching transponders to objects, in particular in hollow chambers on beverage crates or on other crates, wherein in a first station an object, which is not provided with a transponder or is provided with a non-readable transponder, is detected, an object detected in this manner in a second station is exposed to a cleaning and cooling process and is cleaned and cooled by means of a lance that can apply pressurised air, after which the object is supplied to another station and the lance with suctioned transponder is moved to or into the object, wherein a vacuum is applied inside the lance and after reaching the object, an overpressure is applied to the lance such that the transponder is contactlessly attached on the object, wherein a boost is generated using escaping pressurised air through a wing profiling on the lance and a lower pressure is generated when the pressurised air escapes between the lance and the transponder such that when the lance moves after attaching the transponder on the object, the wing profile slides closely along the transponder such that the transponder is pressed over its entire surface on the object without mechanical contact.
An ablation device suitable for positioning over a distal end portion of an endoscope, the ablation device comprising: a tubular member having a proximal portion, a distal portion and a lumen extending at least partially therethrough, the tubular member having a first configuration and a second configuration, wherein the tubular member comprises a conductive portion; a distal cap operably connected to the distal portion, the cap having a diameter that is smaller than a diameter of the distal end portion of the endoscope; a proximal ring connected to the proximal portion, the proximal ring having a diameter greater than a diameter of the distal end portion of the endoscope; a first catheter operably connected to the distal cap; a second catheter operably connected to the proximal ring; and an over catheter, wherein the over catheter is arranged such that it is positioned externally to and outside the endoscope when the ablation device is positioned over the distal end portion of the endoscope, and wherein the over catheter has the second catheter at least partially extending through a lumen of the over catheter; wherein the second catheter is configured to be movably positionable through the over catheter so that the proximal ring is movable relative to the distal cap to move the tubular member between the first configuration and the second configuration. a tubular member having a proximal portion, a distal portion and a lumen extending at least partially therethrough, the tubular member having a first configuration and a second configuration, wherein the tubular member comprises a conductive portion; a distal cap operably connected to the distal portion, the cap having a diameter that is smaller than a diameter of the distal end portion of the endoscope; a proximal ring connected to the proximal portion, the proximal ring having a diameter greater than a diameter of the distal end portion of the endoscope; a first catheter operably connected to the distal cap; a second catheter operably connected to the proximal ring; and an over catheter, wherein the over catheter is arranged such that it is positioned externally to and outside the endoscope when the ablation device is positioned over the distal end portion of the endoscope, and wherein the over catheter has the second catheter at least partially extending through a lumen of the over catheter; wherein the second catheter is configured to be movably positionable through the over catheter so that the proximal ring is movable relative to the distal cap to move the tubular member between the first configuration and the second configuration.