mhurhangee/ep-ind-claims huggingface dataset:
A crisscross nucleic acid slat, comprising: (a) a first plurality of at least four nucleic acid strands aligned parallel to each other, each strand of the first plurality having a length of 15-30 nucleotides; and (b) a second plurality of at least four nucleic acid strands aligned parallel to each, each strand of the second plurality having a length of 15-30 nucleotides, wherein the at least four nucleic acid strands of the first plurality are bound to and perpendicular to the at least four nucleic acid strands of the second plurality, a single nucleic acid strand of (b) binds to multiple nucleic acid strands of (a), each through a single cooperative binding site, and a single nucleic acid strand of (a) binds to multiple nucleic acid strands of (b), each through a single cooperative binding site. (a) a first plurality of at least four nucleic acid strands aligned parallel to each other, each strand of the first plurality having a length of 15-30 nucleotides; and (b) a second plurality of at least four nucleic acid strands aligned parallel to each, each strand of the second plurality having a length of 15-30 nucleotides, wherein the at least four nucleic acid strands of the first plurality are bound to and perpendicular to the at least four nucleic acid strands of the second plurality, a single nucleic acid strand of (b) binds to multiple nucleic acid strands of (a), each through a single cooperative binding site, and a single nucleic acid strand of (a) binds to multiple nucleic acid strands of (b), each through a single cooperative binding site.
A test and measurement instrument, comprising: an input (102, 104) configured to receive a signal-under-test; a user input (105, 106) configured to accept a first trigger event and a second trigger event from a user; a first trigger decoder configured to trigger on an occurrence of the first trigger event and generate a first trigger signal; characterized in further comprising: a second trigger decoder configured to trigger on an occurrence of the second trigger event occurring after the first trigger event and generate a second trigger signal; and an acquisition system configured to acquire the signal-under-test in response to the first trigger signal and store the acquired signal-under-test based on whether the second trigger signal is generated by the second trigger decoder. an input (102, 104) configured to receive a signal-under-test; a user input (105, 106) configured to accept a first trigger event and a second trigger event from a user; a first trigger decoder configured to trigger on an occurrence of the first trigger event and generate a first trigger signal; characterized in further comprising: a second trigger decoder configured to trigger on an occurrence of the second trigger event occurring after the first trigger event and generate a second trigger signal; and an acquisition system configured to acquire the signal-under-test in response to the first trigger signal and store the acquired signal-under-test based on whether the second trigger signal is generated by the second trigger decoder. a second trigger decoder configured to trigger on an occurrence of the second trigger event occurring after the first trigger event and generate a second trigger signal; and an acquisition system configured to acquire the signal-under-test in response to the first trigger signal and store the acquired signal-under-test based on whether the second trigger signal is generated by the second trigger decoder.
A foreign object detection system for use with a wireless power transfer system, comprising: a heat sensing system comprising at least two electrically conductive wires electrically insulated from one another by an insulation layer of heat sensitive material (562, 1262) having a conductive property configured to change as a function of temperature; an inductive sensing system comprising one or more sense coils, and at least one of the at least two electrically conductive wires, wherein a change in an electrical characteristic of the one or more sense coils is indicative of a presence of a foreign object near the wireless power transfer system; and a controller coupled to the heat sensing system and the inductive sensing system, wherein the controller is configured to determine the presence of the foreign object based on at least one of a measure of the conductive property of the heat sensitive material or a measure of the electrical characteristic of the one or more sense coils. a heat sensing system comprising at least two electrically conductive wires electrically insulated from one another by an insulation layer of heat sensitive material (562, 1262) having a conductive property configured to change as a function of temperature; an inductive sensing system comprising one or more sense coils, and at least one of the at least two electrically conductive wires, wherein a change in an electrical characteristic of the one or more sense coils is indicative of a presence of a foreign object near the wireless power transfer system; and a controller coupled to the heat sensing system and the inductive sensing system, wherein the controller is configured to determine the presence of the foreign object based on at least one of a measure of the conductive property of the heat sensitive material or a measure of the electrical characteristic of the one or more sense coils.
A method of developing a geometry of a mesostructure for a dental prosthesis by means of a software program, the method comprising the following steps: receiving first 3D data defining a 3D installation space for a mesostructure, receiving second 3D data defining possible positions for attaching the mesostructure, receiving third 3D data defining possible positions or regions for attaching the dental prosthesis to the mesostructure, and developing an optimized geometry of the mesostructure by means of an optimization technique, wherein starting from the 3D installation space, the possible positions for attaching the mesostructure and the possible positions or regions for attaching the dental prosthesis to the mesostructure, the geometry of the mesostructure is optimized by automatically removing, by means of the software program, those regions from the 3-D installation space which do not contribute or contribute only slightly to load absorption. receiving first 3D data defining a 3D installation space for a mesostructure, receiving second 3D data defining possible positions for attaching the mesostructure, receiving third 3D data defining possible positions or regions for attaching the dental prosthesis to the mesostructure, and developing an optimized geometry of the mesostructure by means of an optimization technique, wherein starting from the 3D installation space, the possible positions for attaching the mesostructure and the possible positions or regions for attaching the dental prosthesis to the mesostructure, the geometry of the mesostructure is optimized by automatically removing, by means of the software program, those regions from the 3-D installation space which do not contribute or contribute only slightly to load absorption.
A method in a wireless device for initiating a handover from a source base station to a target base station, comprising: - calculating a power offset indicative of a difference between a receiving power from the target base station and a receiving power from the source base station; - obtaining a Time Division Duplex, TDD, configuration difference between a TDD configuration of the target base station and a TDD configuration of the source base station; - calculating a TDD offset based on the TDD configuration difference and an uplink-downlink traffic model of the wireless device; and - initiating the handover when a combination of the power offset and the TDD offset exceeds a threshold. - calculating a power offset indicative of a difference between a receiving power from the target base station and a receiving power from the source base station; - obtaining a Time Division Duplex, TDD, configuration difference between a TDD configuration of the target base station and a TDD configuration of the source base station; - calculating a TDD offset based on the TDD configuration difference and an uplink-downlink traffic model of the wireless device; and - initiating the handover when a combination of the power offset and the TDD offset exceeds a threshold.
A composition comprising a DP-2 antagonist for use in stimulating hair growth in a subject having androgenetic alopecia by topical administration, wherein the DP-2 antagonist is AM21 1.
A composition that can be used in a structural adhesive, comprising: (a) at least one methacrylate monomer; (b) at least one elastomeric block copolymer containing styrene and at least one second monomer; (c) at least one elastomer chosen from polybutadiene, le polyisoprene and polychloroprene; and (d) particles formed from a thermoplastic shell and an elastomeric core. (a) at least one methacrylate monomer; (b) at least one elastomeric block copolymer containing styrene and at least one second monomer; (c) at least one elastomer chosen from polybutadiene, le polyisoprene and polychloroprene; and (d) particles formed from a thermoplastic shell and an elastomeric core.
A graphene transfer process, characterized in that, the method utilizes graphene on an initial substrate the method utilizes an initial substrate having a surface on which the graphene is synthesized or coated, wherein the initial substrate is used as an electrode to undergo an electrolysis process wherein the method comprises the steps of: coating a transfer medium layer onto the graphene on the surface of the initial substrate in which the transfer medium is coated onto the graphene on the initial substrate defining a composite layer of the transfer medium and the graphene for preventing damage to the graphene in subsequent processing, wherein the graphene is grown or is coated onto the surface of the initial substrate; separating the composite layer of the transfer medium and the graphene from the initial substrate in which the initial substrate with the composite layer of transfer medium and graphene is placed into an electrolyte solution and is used as an electrode such that gaseous substances is generated on the surface of the initial substrate by an electrolysis process and the composite layer of the transfer medium and the graphene is separated from the initial substrate through the combination effect of moving action and intercalation action of the gaseous substances; binding the composite layer of the transfer medium and the graphene to the target substrate by a direct contact method through placing the composite layer of the transfer medium and the graphene onto the target substrate; and removing the transfer medium by dissolution with solvent or by heating to remove the transfer medium on an outer surface of the graphene. coating a transfer medium layer onto the graphene on the surface of the initial substrate in which the transfer medium is coated onto the graphene on the initial substrate defining a composite layer of the transfer medium and the graphene for preventing damage to the graphene in subsequent processing, wherein the graphene is grown or is coated onto the surface of the initial substrate; separating the composite layer of the transfer medium and the graphene from the initial substrate in which the initial substrate with the composite layer of transfer medium and graphene is placed into an electrolyte solution and is used as an electrode such that gaseous substances is generated on the surface of the initial substrate by an electrolysis process and the composite layer of the transfer medium and the graphene is separated from the initial substrate through the combination effect of moving action and intercalation action of the gaseous substances; binding the composite layer of the transfer medium and the graphene to the target substrate by a direct contact method through placing the composite layer of the transfer medium and the graphene onto the target substrate; and removing the transfer medium by dissolution with solvent or by heating to remove the transfer medium on an outer surface of the graphene.
A pet door comprising: a first frame, wherein the first frame is configured to partially embed within a first external surface; a hinge, wherein the hinge is configured to pivot along a pivot axis defined by the first frame; a door, wherein at least one edge connects to the hinge; a knob, wherein the knob is attached to a surface of the door; a latch, wherein the latch extends from a rotational axis of the knob and interfaces with the first frame; a first connector frame extending from the first frame, wherein the first connector frame is configured to be fully embedded within the first external surface; a second frame, wherein the second frame is configured to partially embed within a second external surface, wherein when the first frame and the second frame are embedded, a portal from the first external surface to the second external surface is created; and a second connector frame extending from the second frame, wherein the second connector frame is connectable on a distal end to the first connector frame, and wherein when connected, the second connector frame is configured to be fully embedded within the second external surface. a first frame, wherein the first frame is configured to partially embed within a first external surface; a hinge, wherein the hinge is configured to pivot along a pivot axis defined by the first frame; a door, wherein at least one edge connects to the hinge; a knob, wherein the knob is attached to a surface of the door; a latch, wherein the latch extends from a rotational axis of the knob and interfaces with the first frame; a first connector frame extending from the first frame, wherein the first connector frame is configured to be fully embedded within the first external surface; a second frame, wherein the second frame is configured to partially embed within a second external surface, wherein when the first frame and the second frame are embedded, a portal from the first external surface to the second external surface is created; and a second connector frame extending from the second frame, wherein the second connector frame is connectable on a distal end to the first connector frame, and wherein when connected, the second connector frame is configured to be fully embedded within the second external surface.
A leg rest fitting having an adjustment device for setting a defined location of a leg rest of a piece of seating and/or reclining furniture, which leg rest is reversibly shiftable from a use position into a non-use position and back via the leg rest fitting, wherein the leg rest is held on a pivot arm (22, 23) of the leg rest fitting, which pivot arm is pivotably connected to a frame, comprising an adjustment element having a plane first abutment surface and having a plane second abutment surface opposing the first abutment surface in parallel, having a circumferential surface circumferentially connecting the abutment surfaces, having an opening in the form of an elongated hole, wherein the circumferential surface has a first contact surface region which is in any case sectionally shaped in a manner corresponding to the pivot arm (22, 23) and which is inclined and plane in relation to an opening longitudinal axis of the opening, wherein the abutment surfaces are congruently opposed to one another and wherein the adjustment element has a symmetrical configuration in relation to the opening longitudinal axis of the opening in such a way that the circumferential surface has a plane second contact surface region opposing the first contact surface region in a mirrorinverted manner, further comprising a releasable connecting means via which the adjustment element is shiftably held on the leg rest fitting, wherein, in a first mounting position of the adjustment element, the connecting means is fixed to the leg rest fitting and is guided by the opening of the adjustment element, wherein, in the non-use position of the leg rest, a defined orientation of the leg rest in relation to the frame of the leg rest fitting is settable via a rotational and/or translational shifting of the adjustment element and wherein the first abutment surface of the adjustment element is placed against the leg rest fitting in such a way that the first contact surface region of the circumferential surface is placed against the pivot arm (22, 23) and a weight force of the leg rest and of the pivot arm (22, 23) is supported by the adjustment element, wherein, as a result of the rotational and/or translational shifting of the adjustment element held in the mounting position, the first contact surface region is rotatable and/or displaceable and in this respect the pivot arm (22, 23) being placed against the first contact surface region in the non-use position of the leg rest is correspondingly shifted and wherein, for the shifting of the first contact surface region, the connecting means is easy to release and thus the adjustment element is rotatable about a connecting means longitudinal axis of the connecting means and/or translationally displaceable along the opening longitudinal axis of the opening.
A stable vaccine composition of inactivated Chikungunya virus strain with one or more mutations in the capsid, E1, E2 or E3 structural glycoproteins that enhance the adaptation of the virus to Aedes aegypti and capable of infecting Aedes albopictus, wherein the strains of the Chikungunya virus isolates are selected from TN01610, TN015110, TN06210, TN06310, TN06410, and AP0109 containing the nucleotide sequences disclosed in SEQ. ID NO.1 to SEQ ID NO.6, respectively and the corresponding full length genomic RNA sequences disclosed in SEQ ID NO.15 to SEQ ID NO.20, respectively.
A method for continuous cleaning of a papermaking fabric comprising: subjecting a fabric to be cleaned to an initial cleaning stage, wherein the initial cleaning stage includes the application of a cleaning medium comprising steam from an initial cleaning shower that allows application of the cleaning medium to the entire width of the fabric to be cleaned; subjecting the fabric to be cleaned to a second cleaning stage, following the initial cleaning stage, wherein the second cleaning stage includes the application of a cleaning medium comprising superheated water and wherein the second cleaning stage includes a second cleaning shower that allows application of the cleaning medium to the entire width of the fabric to be cleaned; wherein the paper machine production is not interrupted during cleaning. subjecting a fabric to be cleaned to an initial cleaning stage, wherein the initial cleaning stage includes the application of a cleaning medium comprising steam from an initial cleaning shower that allows application of the cleaning medium to the entire width of the fabric to be cleaned; subjecting the fabric to be cleaned to a second cleaning stage, following the initial cleaning stage, wherein the second cleaning stage includes the application of a cleaning medium comprising superheated water and wherein the second cleaning stage includes a second cleaning shower that allows application of the cleaning medium to the entire width of the fabric to be cleaned; wherein the paper machine production is not interrupted during cleaning.
A method comprising: receiving, by one or more processors, offline diagnostics data for a control valve (15-22, 40-46, 213), the offline diagnostics data describing a first relationship between pressure and valve position observed during a response of the control valve to a first control signal for a full range of travel when the control valve is not in service in a process plant; calculating an offline response of the control valve using the offline diagnostics data; receiving, by the one or more processors, online diagnostics data for the control valve, the online diagnostics data describing a second relationship between pressure and valve position observed during a response of the control valve to a second control signal for a part of the full range of travel when the control valve is in service in the process plant; calculating an online response of the control valve using the online diagnostics data; calculating a response ratio based on the calculated offline and online responses; analyzing a rate of change of the response ratio over time; determining whether or not the rate of change of the response ratio exceeds a threshold value; and in response to determining that the rate of change of the response ratio exceeds the threshold value, generating an indication to be provided to an operator via a user interface. receiving, by one or more processors, offline diagnostics data for a control valve (15-22, 40-46, 213), the offline diagnostics data describing a first relationship between pressure and valve position observed during a response of the control valve to a first control signal for a full range of travel when the control valve is not in service in a process plant; calculating an offline response of the control valve using the offline diagnostics data; receiving, by the one or more processors, online diagnostics data for the control valve, the online diagnostics data describing a second relationship between pressure and valve position observed during a response of the control valve to a second control signal for a part of the full range of travel when the control valve is in service in the process plant; calculating an online response of the control valve using the online diagnostics data; calculating a response ratio based on the calculated offline and online responses; analyzing a rate of change of the response ratio over time; determining whether or not the rate of change of the response ratio exceeds a threshold value; and in response to determining that the rate of change of the response ratio exceeds the threshold value, generating an indication to be provided to an operator via a user interface.
A method of maintaining static friction in an internal combustion engine comprising a crankcase and at least one of a gear and a wet-clutch, the method comprising supplying to the crankcase and at least one of the gear and wet-clutch a lubricating composition comprising: (a) an oil of lubricating viscosity; and (b) the reaction product of a hydrocarbyl-substituted succinic anhydride and an acid-functionalized amine compound, wherein the reaction product is present at 0.25 wt % to 2 wt % of the lubricating composition, wherein the reaction product is a succinimide acid. (a) an oil of lubricating viscosity; and (b) the reaction product of a hydrocarbyl-substituted succinic anhydride and an acid-functionalized amine compound, wherein the reaction product is present at 0.25 wt % to 2 wt % of the lubricating composition, wherein the reaction product is a succinimide acid.