mhurhangee/patent-ind-claim-en huggingface dataset:
A composite mat, comprising: a) a woven or non-woven cellulosic fiber, b) a polymeric binder, and c) a fire resistant additive, in an amount from 0.1-75%, 1-50%, 1-40%, 1-30%, 5-30%, 5-25%, 5-20%, 5-15%, 5-10%, 7.5-15%, 7.5-20% or 10-20% by weight relative to the total weight of the composite mat wherein the binder and fire resistant additive form a blend, wherein the blend penetrates the fiber and wherein the polymeric binder is formed from at least one α,β-monoethylenically unsaturated mono- or dicarboxylic acid. a) a woven or non-woven cellulosic fiber, b) a polymeric binder, and c) a fire resistant additive, in an amount from 0.1-75%, 1-50%, 1-40%, 1-30%, 5-30%, 5-25%, 5-20%, 5-15%, 5-10%, 7.5-15%, 7.5-20% or 10-20% by weight relative to the total weight of the composite mat wherein the binder and fire resistant additive form a blend, wherein the blend penetrates the fiber and wherein the polymeric binder is formed from at least one α,β-monoethylenically unsaturated mono- or dicarboxylic acid.
A method for manufacturing a lithium secondary battery comprising the steps of: i) dispersing a lithium metal powder and a binder in a dispersion medium to prepare a lithium dispersion; ii) coating the lithium dispersion on one side of a separator to form a lithium metal powder coating layer; iii) manufacturing an electrode assembly by interposing the separator between a negative electrode and a positive electrode, wherein the lithium metal powder coating layer contacts one side of the negative electrode, and wherein the negative electrode comprises a negative electrode active material; and iv) laminating the electrode assembly to transfer the lithium metal powder to the negative electrode and form a composite between lithium metal in the lithium metal powder and the negative electrode active material; wherein the dispersion medium is present in the lithium dispersion in an amount of 10 to 40% by weight based on the total weight of the lithium dispersion; and wherein the coating is carried out by spray drying. i) dispersing a lithium metal powder and a binder in a dispersion medium to prepare a lithium dispersion; ii) coating the lithium dispersion on one side of a separator to form a lithium metal powder coating layer; iii) manufacturing an electrode assembly by interposing the separator between a negative electrode and a positive electrode, wherein the lithium metal powder coating layer contacts one side of the negative electrode, and wherein the negative electrode comprises a negative electrode active material; and iv) laminating the electrode assembly to transfer the lithium metal powder to the negative electrode and form a composite between lithium metal in the lithium metal powder and the negative electrode active material; wherein the dispersion medium is present in the lithium dispersion in an amount of 10 to 40% by weight based on the total weight of the lithium dispersion; and wherein the coating is carried out by spray drying. wherein the dispersion medium is present in the lithium dispersion in an amount of 10 to 40% by weight based on the total weight of the lithium dispersion; and wherein the coating is carried out by spray drying.
A nasal cannula for therapeutic gas delivered to a patient in need thereof, comprising: a first tube, a second tube and a cannula nosepiece: the first tube being a nitric oxide tube for delivering a first therapeutic gas comprising nitric oxide to the patient in need thereof, the second tube being an oxygen tube for delivering a second therapeutic gas comprising oxygen to the patient; and the nitric oxide tube and the oxygen tube aggregating at the cannula nosepiece, the cannula nosepiece allowing separate flow paths to the patient for the nitric oxide tube and the oxygen tube such that the nitric oxide and the oxygen do not mix in the cannula nosepiece, wherein the nitric oxide delivery tube has an inner diameter that is smaller than the inner diameter of the oxygen delivery tube but larger than an inner diameter of the nitric oxide tube at the cannula nares. a first tube, a second tube and a cannula nosepiece: the first tube being a nitric oxide tube for delivering a first therapeutic gas comprising nitric oxide to the patient in need thereof, the second tube being an oxygen tube for delivering a second therapeutic gas comprising oxygen to the patient; and the first tube being a nitric oxide tube for delivering a first therapeutic gas comprising nitric oxide to the patient in need thereof, the second tube being an oxygen tube for delivering a second therapeutic gas comprising oxygen to the patient; and the nitric oxide tube and the oxygen tube aggregating at the cannula nosepiece, the cannula nosepiece allowing separate flow paths to the patient for the nitric oxide tube and the oxygen tube such that the nitric oxide and the oxygen do not mix in the cannula nosepiece, wherein the nitric oxide delivery tube has an inner diameter that is smaller than the inner diameter of the oxygen delivery tube but larger than an inner diameter of the nitric oxide tube at the cannula nares.
Polygonal pin for a window fitting of a window closing system , - wherein the polygonal pin is elongated and has a longitudinal central axis (LA), - wherein the polygonal pin has a first longitudinal end for rotationally fixed connection to a window drive and a second longitudinal end for rotationally fixed connection to a window handle , - wherein the polygonal pin has a first partial pin forming the first longitudinal end and a second partial pin forming the second longitudinal end , and - wherein the two partial pins are connected to one another in an axially displaceable manner and, as a result, an axial length (L) of the polygonal pin defined by the distance between the longitudinal ends is variable, - wherein the second partial pin is hollow and the first partial pin is accommodated in the second partial pin in certain regions and in an axially displaceable manner, - wherein the polygonal pin has a return spring and the return spring is accommodated in the second partial pin , and - wherein the return spring is axially clamped between a base of the second partial pin arranged across the longitudinal axis (LA) and the first partial pin , characterized in that - the second partial pin has a circumferential and radially outward oriented stop flange facing the first partial pin for one-sided axial fixing of the polygonal pin in a window latching element , and - the second partial pin has at least one axially oriented recess facing the first partial pin for radially clamping the polygonal pin in the window latching element . - wherein the polygonal pin is elongated and has a longitudinal central axis (LA), - wherein the polygonal pin has a first longitudinal end for rotationally fixed connection to a window drive and a second longitudinal end for rotationally fixed connection to a window handle , - wherein the polygonal pin has a first partial pin forming the first longitudinal end and a second partial pin forming the second longitudinal end , and - wherein the two partial pins are connected to one another in an axially displaceable manner and, as a result, an axial length (L) of the polygonal pin defined by the distance between the longitudinal ends is variable, - wherein the second partial pin is hollow and the first partial pin is accommodated in the second partial pin in certain regions and in an axially displaceable manner, - wherein the polygonal pin has a return spring and the return spring is accommodated in the second partial pin , and - wherein the return spring is axially clamped between a base of the second partial pin arranged across the longitudinal axis (LA) and the first partial pin , - the second partial pin has a circumferential and radially outward oriented stop flange facing the first partial pin for one-sided axial fixing of the polygonal pin in a window latching element , and - the second partial pin has at least one axially oriented recess facing the first partial pin for radially clamping the polygonal pin in the window latching element .
A method of managing a steering command for a steerable portion of nose landing gear of an aircraft , the method implementing servo-control to servo-control a steering actuator to an angle position setpoint (θset) for the steerable portion , the servo-control including calculating an error (ε) by subtracting a reference angle (θest) from the angle position setpoint (θset), the method being characterized in that the reference angle (θest) is an angle determined by calculation as a function of a longitudinal speed (Vlong) and a yaw rate (τ) of the aircraft .
A method for producing a molded body comprising a micro-optical component that has a cavity and/or protruding structures on a surface of the molded body , wherein the method comprises the following steps: a) providing a molding tool provided with undercuts which result in cavities in the molded body and/or protruding structures on the surface of the molded body , wherein the molding tool has at least one receptacle into which at least one material is introduced, wherein the material comprises at least one shape-memory material , wherein the shape-memory material is present in a first state , wherein the material at least partially fills the receptacle of the molding tool in such a way that the material adjoins at least one surface of the receptacle ; b) creating a molded body in the receptacle of the molding tool from the material , wherein the shape-memory material is present in a second state , wherein a form is embossed into the molded body during the second state ; c) transferring the shape-memory material from the second state to a third state , wherein the molded body can be deformed during the third state in such a way that the molded body is demolded from the receptacle of the molding tool in a demolding direction ; and d) at least partially restoring the form of the molded body by transferring the shape-memory material from the third state to a fourth state , wherein the molded body at least partially resumes the form according to step b) during the fourth state . a) providing a molding tool provided with undercuts which result in cavities in the molded body and/or protruding structures on the surface of the molded body , wherein the molding tool has at least one receptacle into which at least one material is introduced, wherein the material comprises at least one shape-memory material , wherein the shape-memory material is present in a first state , wherein the material at least partially fills the receptacle of the molding tool in such a way that the material adjoins at least one surface of the receptacle ; b) creating a molded body in the receptacle of the molding tool from the material , wherein the shape-memory material is present in a second state , wherein a form is embossed into the molded body during the second state ; c) transferring the shape-memory material from the second state to a third state , wherein the molded body can be deformed during the third state in such a way that the molded body is demolded from the receptacle of the molding tool in a demolding direction ; and d) at least partially restoring the form of the molded body by transferring the shape-memory material from the third state to a fourth state , wherein the molded body at least partially resumes the form according to step b) during the fourth state .
A power harvesting circuit, comprising: a first antenna having a first terminal coupled to a summing node through an input capacitor (C1), and a second terminal , the second terminal coupled to the summing node through a first diode (D1); characterized in that the power harvesting circuit further comprises: a second antenna having a first terminal coupled to the second terminal of the first antenna and a second terminal coupled to an interconnection between the input capacitor (C1) and the summing node through a second diode (D2), wherein the summing node is coupled to an output node through an output diode , wherein an output capacitor (C2) is provided at the output node; wherein said second terminal of the second antenna is adapted to provide a signal in opposite phase with a signal provided at the first terminal of the first antenna . a second antenna having a first terminal coupled to the second terminal of the first antenna and a second terminal coupled to an interconnection between the input capacitor (C1) and the summing node through a second diode (D2), wherein the summing node is coupled to an output node through an output diode , wherein an output capacitor (C2) is provided at the output node; wherein said second terminal of the second antenna is adapted to provide a signal in opposite phase with a signal provided at the first terminal of the first antenna .
A method of selectively applying enhancing adjustments to elements contained within image material captured by a camera having touch screen input, comprising: registration of user touch screen input at a location on a display screen at which a specific element in the captured image material is displayed; selecting the specific element of the captured image in response to the registration of user touch screen input, wherein the specific element can have any arbitrary shape; detecting finger-moving gestures after selection of said specific element and within the user touch screen input so that the selection of said specific element and the finger-moving gestures occur via a single touch; and processing the image of said specific element to apply enhancing adjustments to the content of said element in relation to the remainder of the captured image, the enhancing adjustments being controlled according to the finger-moving gestures, wherein the direction of the finger-moving gestures determines the type of enhancing adjustment to be performed. registration of user touch screen input at a location on a display screen at which a specific element in the captured image material is displayed; selecting the specific element of the captured image in response to the registration of user touch screen input, wherein the specific element can have any arbitrary shape; detecting finger-moving gestures after selection of said specific element and within the user touch screen input so that the selection of said specific element and the finger-moving gestures occur via a single touch; and processing the image of said specific element to apply enhancing adjustments to the content of said element in relation to the remainder of the captured image, the enhancing adjustments being controlled according to the finger-moving gestures, wherein the direction of the finger-moving gestures determines the type of enhancing adjustment to be performed.
Electrical cabinet comprising a main busbar (B) built in a continuous manner, a secondary busbar (B'), supporting insulators , secondary supporting insulators , a mechanical protection system , a splice connection set , derivation connections , switch sets and direct connection cables ; characterized in that the main busbar (B) presents a triple wall in its lower portion which comprises central holes equidistant from each other in all its extension, that is, length, a substantially-cubic hollow-shape lower structure, where the triple wall is aligned to one of the side walls of the lower structure, a substantially-cubic hollow-shape upper structure, where the upper structure is interconnected to the lower structure by means of a double central wall placed in its side portions, where in said double central wall there are three sets of holes, where each set contains five holes equidistant from each other, in a manner that a set of holes is in the central portion of the length of the double central wall and the other two in each extremity of the length of the referred double central wall; and in that the secondary busbar (B') contains an additional triple wall and a sole central structure having a substantially-hollow cubic shape, wherein the additional triple wall is located in the central portion of the lower wall of the sole central structure.
An aerosol delivery device comprising: at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; an atomizer controllable to activate and vaporize components of the aerosol precursor composition; an antenna configured to receive radio signals from satellites of a satellite navigation system, and convert the radio signals to corresponding electronic signals; a satellite navigation receiver module configured to receive the corresponding electronic signals and determine a position of the aerosol delivery device based thereon, and output a message that indicates the position so determined; a communication interface configured to enable establishment of or connection to at least one network that includes a computing device ; and a microprocessor configured to receive the message and control operation of at least one functional element of the aerosol delivery device based on the position indicated thereby, including the microprocessor configured to cause the communication interface to wirelessly communicate the position of the aerosol delivery device to the computing device that is configured to control operation of at least one other functional element of the aerosol delivery device based on the position of the aerosol delivery device, and wherein the satellite navigation receiver module and microprocessor are embodied by distinct integrated circuits coupled by at least one conductor onto which the message is output by the satellite navigation receiver module and from which the message is received by the microprocessor. at least one housing enclosing a reservoir configured to retain an aerosol precursor composition; an atomizer controllable to activate and vaporize components of the aerosol precursor composition; an antenna configured to receive radio signals from satellites of a satellite navigation system, and convert the radio signals to corresponding electronic signals; a satellite navigation receiver module configured to receive the corresponding electronic signals and determine a position of the aerosol delivery device based thereon, and output a message that indicates the position so determined; a communication interface configured to enable establishment of or connection to at least one network that includes a computing device ; and a microprocessor configured to receive the message and control operation of at least one functional element of the aerosol delivery device based on the position indicated thereby, including the microprocessor configured to cause the communication interface to wirelessly communicate the position of the aerosol delivery device to the computing device that is configured to control operation of at least one other functional element of the aerosol delivery device based on the position of the aerosol delivery device, and wherein the satellite navigation receiver module and microprocessor are embodied by distinct integrated circuits coupled by at least one conductor onto which the message is output by the satellite navigation receiver module and from which the message is received by the microprocessor.
A method of network probing by a communications device, comprising: transmitting a first probe addressed to a Simple Traversal Utilities for NATs (STUN) server from the communications device via a network connection to a first Network Address Translator (NAT); receiving, at the communications device, a first probe reply from the STUN server; incrementing a probe timeout counter that indicates a number of NATs along a network traffic path that a probe will traverse before being dropped; transmitting a first test probe including the incremented probe timeout counter via the network connection, the first test probe causing each of the number of NATs indicated by the incremented probe timeout counter to maintain an active address translation mapping for the communications device; transmitting a second probe addressed to the STUN server from the communications device via the network connection; receiving, at the communications device, a second probe reply from the STUN server; comparing the port and IP address in the first probe reply with the port and IP address in the second probe reply; and where the port and IP address in the first probe reply match the port and IP address in the second probe reply, determining that the number of NATs in the network traffic path is equal to the incremented probe timeout counter. transmitting a first probe addressed to a Simple Traversal Utilities for NATs (STUN) server from the communications device via a network connection to a first Network Address Translator (NAT); receiving, at the communications device, a first probe reply from the STUN server; incrementing a probe timeout counter that indicates a number of NATs along a network traffic path that a probe will traverse before being dropped; transmitting a first test probe including the incremented probe timeout counter via the network connection, the first test probe causing each of the number of NATs indicated by the incremented probe timeout counter to maintain an active address translation mapping for the communications device; transmitting a second probe addressed to the STUN server from the communications device via the network connection; receiving, at the communications device, a second probe reply from the STUN server; comparing the port and IP address in the first probe reply with the port and IP address in the second probe reply; and where the port and IP address in the first probe reply match the port and IP address in the second probe reply, determining that the number of NATs in the network traffic path is equal to the incremented probe timeout counter.
An apparatus comprising: a plurality of logic units , each to execute instructions; a debug interconnect coupled to the plurality of logic units , the debug interconnect separate from a second interconnect that couples the plurality of logic units ; a plurality of data buffers coupled to the debug interconnect , the plurality of data buffers to store hardware trace information, software trace information, and firmware trace information; and a bandwidth management controller coupled to the debug interconnect , the bandwidth management controller to dynamically allocate buffer space of the plurality of data buffers to the hardware trace information, the software trace information, and the firmware trace information, the bandwidth management controller further including a control logic to determine a buffer level of the allocated buffer space information and dynamically increase at least one of a voltage and a frequency of the debug interconnect if the buffer level exceeds a first threshold. a plurality of logic units , each to execute instructions; a debug interconnect coupled to the plurality of logic units , the debug interconnect separate from a second interconnect that couples the plurality of logic units ; a plurality of data buffers coupled to the debug interconnect , the plurality of data buffers to store hardware trace information, software trace information, and firmware trace information; and a bandwidth management controller coupled to the debug interconnect , the bandwidth management controller to dynamically allocate buffer space of the plurality of data buffers to the hardware trace information, the software trace information, and the firmware trace information, the bandwidth management controller further including a control logic to determine a buffer level of the allocated buffer space information and dynamically increase at least one of a voltage and a frequency of the debug interconnect if the buffer level exceeds a first threshold.
A compound comprising a modified oligonucleotide consisting of 15 to 30 linked nucleosides and having a nucleobase sequence comprising a complementary region comprising at least 15 contiguous nucleobases complementary to an equal length portion of nucleobases 121708 to 122044 of SEQ ID NO: 1, wherein the modified oligonucleotide comprises at least 10 contiguous modified nucleosides comprising a modified sugar moiety, wherein the modified sugar moiety is 2'-MOE, and wherein the compound is capable of reducing expression of the 4R isoform of Tau RNA or protein.