mhurhangee/patent-ind-claim-en huggingface dataset:
A method of positioning a toolset on the exterior of a patient relative to a magnetically adjustable device implanted in the patient, the implanted device including a rotor having an axis of rotation and at least one rotor magnet, the rotor having a range of arcuate motion within each of a plurality of selectable performance settings without altering a selected performance setting for the implanted device, the method comprising: estimating a location on the exterior of the patient above the implanted device; moving the toolset to the estimated location; detecting the location of at least one of a maximum positive pole value and a maximum negative pole value of the rotor magnet at a current performance setting; moving the toolset relative to the at least one detected maximum pole value; characterised by moving the rotor in a first arcuate direction and detecting a first limit of travel without altering the current performance setting; moving the rotor in a second, opposite direction and detecting a second limit of travel without altering the current performance setting; comparing the first and second limits of travel with known values for the plurality of selectable performance settings; and indicating the current performance setting of the implanted device. estimating a location on the exterior of the patient above the implanted device; moving the toolset to the estimated location; detecting the location of at least one of a maximum positive pole value and a maximum negative pole value of the rotor magnet at a current performance setting; moving the toolset relative to the at least one detected maximum pole value; moving the rotor in a first arcuate direction and detecting a first limit of travel without altering the current performance setting; moving the rotor in a second, opposite direction and detecting a second limit of travel without altering the current performance setting; comparing the first and second limits of travel with known values for the plurality of selectable performance settings; and indicating the current performance setting of the implanted device.
A drainage system for draining fluid from an aircraft fuel tank, the drainage system comprising: a first conduit configured to fluidly connect to a drainage outlet of a fuel tank of an aircraft; a plurality of measuring tanks , each measuring tank being configured to hold fluid drained from a fuel tank of an aircraft; a plurality of second conduits , each second conduit being fluidly connected to one of the plurality of measuring tanks ; a multiway valve comprising: a first passage fluidly connected to the first conduit ; a plurality of second passages , each second passage being fluidly connected to one of the plurality of second conduits ; and a controllable shutter configured to selectively direct fluid between the first passage and the plurality of second passages ; and a pump arranged to pump fluid through the first conduit . a first conduit configured to fluidly connect to a drainage outlet of a fuel tank of an aircraft; a plurality of measuring tanks , each measuring tank being configured to hold fluid drained from a fuel tank of an aircraft; a plurality of second conduits , each second conduit being fluidly connected to one of the plurality of measuring tanks ; a multiway valve comprising: a first passage fluidly connected to the first conduit ; a plurality of second passages , each second passage being fluidly connected to one of the plurality of second conduits ; and a controllable shutter configured to selectively direct fluid between the first passage and the plurality of second passages ; and a first passage fluidly connected to the first conduit ; a plurality of second passages , each second passage being fluidly connected to one of the plurality of second conduits ; and a controllable shutter configured to selectively direct fluid between the first passage and the plurality of second passages ; and a pump arranged to pump fluid through the first conduit .
A system for multi-engine coordination of gas turbine engine motoring in an aircraft, the system comprising: a controller configured to determine a motoring mode as a selection between a single engine dry motoring mode and a multi-engine dry motoring mode based on at least one temperature of a plurality of gas turbine engines and initiate dry motoring based on the motoring mode.
Brake assistance device for a hydraulic brake system for a vehicle powered by muscle and/or motor power, the brake assistance device comprising - an input device with a first piston , - a compensation volume with a second piston and with a preload element , - a 2/2-way valve , - a brake piston , and - an actuator , wherein the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system , characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction. - an input device with a first piston , - a compensation volume with a second piston and with a preload element , - a 2/2-way valve , - a brake piston , and - an actuator , wherein the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system , characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction. the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system , characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction.
A light guide for a motor vehicle, wherein the light guide has a light-guiding body made of transparent plastics material, wherein the light-guiding body has at least one light-entrance surface and at least one light-exit surface and wherein the light-guiding body is covered in a region by means of a substantially light-opaque cover material , wherein the substantially light-opaque cover material is bright or white, wherein the cover material is applied onto the region by means of an injection molding method, wherein the light-guiding body has a reflection surface , which lies opposite or is adjacent to the light-entrance surface and which is oriented at an angle in relation to the light-entrance surface , preferably also in relation to the light-exit surface , and wherein the reflection surface is covered on the rear side by means of the light-opaque cover material , wherein a plug-in apparatus in the form of a connection socket, of one of the present light-entrance surfaces is formed for a light source or a light-guiding element by means of the cover material , said plug-in apparatus being formed by the substantially light-opaque cover material and having a central recess having a base at one of the present light-entrance surfaces of the light-guiding body .
A detection system comprising: at least one sensor configured to measure a presence of airborne particles, wherein the at least one sensor comprises a nanofiber chemical sensor for sensing a chemical composition of the airborne particles, and wherein the nanofiber chemical sensor comprises a variable resistance that varies in response to a concentration of the chemical composition of the airborne particles; at least one amplifier circuit in communication with the at least one sensor , wherein the amplifier circuit is configured to monitor a charge generated by the at least one sensor over a time interval; and a controller configured to: monitor the charge accumulated in the at least one amplifier circuit from the at least one sensor at the time interval; and in response to the charge of the at least one amplifier circuit , detect the presence of the airborne particles, wherein the controller is further configured to: detect the concentration of the chemical composition in response to identifying changes in the variable resistance, wherein the changes in the variable resistance are determined based on the charge of the at least one amplifier circuit and a voltage potential of a bias voltage supplied to the at least one nanofiber chemical sensor . at least one sensor configured to measure a presence of airborne particles, wherein the at least one sensor comprises a nanofiber chemical sensor for sensing a chemical composition of the airborne particles, and wherein the nanofiber chemical sensor comprises a variable resistance that varies in response to a concentration of the chemical composition of the airborne particles; wherein the at least one sensor comprises a nanofiber chemical sensor for sensing a chemical composition of the airborne particles, and wherein the nanofiber chemical sensor comprises a variable resistance that varies in response to a concentration of the chemical composition of the airborne particles; at least one amplifier circuit in communication with the at least one sensor , wherein the amplifier circuit is configured to monitor a charge generated by the at least one sensor over a time interval; and a controller configured to: monitor the charge accumulated in the at least one amplifier circuit from the at least one sensor at the time interval; and in response to the charge of the at least one amplifier circuit , detect the presence of the airborne particles, monitor the charge accumulated in the at least one amplifier circuit from the at least one sensor at the time interval; and in response to the charge of the at least one amplifier circuit , detect the presence of the airborne particles, wherein the controller is further configured to: detect the concentration of the chemical composition in response to identifying changes in the variable resistance, wherein the changes in the variable resistance are determined based on the charge of the at least one amplifier circuit and a voltage potential of a bias voltage supplied to the at least one nanofiber chemical sensor .
Storage device, with at least one storage container which comprises a container housing which on an upper side which is orientated in a height direction comprises an upper handle and on an a front side which is orientated at right angles to the height direction comprises a front handle which is pivotably mounted about a pivot axis , wherein the front handle in the course of a pivoting movement is selectively pivotable into a position of non-use pivoted onto the container housing at the front or into a position of use pivoted away from the container housing and projecting to the front, wherein the storage container comprises a front arresting device which is assigned to the front handle and is designed for the non-pivotable releasable arresting of the front handle in its position of non-use , characterized in that the upper handle is likewise pivotably mounted on the container housing , wherein in the course of a pivoting movement it is selectively pivotable into a position of non-use pivoted onto the container housing at the top or into a position of use pivoted away from the container housing and projecting upwards, wherein the storage container comprises an upper arresting device and which is assigned to the upper handle for the releasable arresting of the upper handle in its position of non-use .
Ultrasound probe cover comprising a flexible polymer tube member having an open first end and a second end; a seamless top member closing the open first end, and wherein the originally separate tube and top members are joined to each other adhesively by welding or by use of an adhesive forming an outwardly extending flange that is turned inside the probe cover in the final configuration.
A cryogenic product useful for the preparation of a cellularized matrix composition, comprising: a cryogenic bag defining a sealed internal volume; a cryogenically preserved cellular composition received within a first compartment within said internal volume; a solid composition received within a second compartment within said internal volume, wherein the solid composition is a porous matrix composition; and wherein said first compartment and second compartment each define an opening to a third compartment within said internal volume for mixing said cellular composition with said solid composition . a cryogenic bag defining a sealed internal volume; a cryogenically preserved cellular composition received within a first compartment within said internal volume; a solid composition received within a second compartment within said internal volume, wherein the solid composition is a porous matrix composition; and wherein said first compartment and second compartment each define an opening to a third compartment within said internal volume for mixing said cellular composition with said solid composition .
A system comprising one or more computers and one or more storage devices on which are stored instructions that are operable, when executed by the one or more computers, to cause the one or more computers to perform operations comprising: receiving, from a near infrared spectrometer , molecular content data that indicates a molecular content of a portion of a batch of sludge; determining, by a machine learning module included in the system using the molecular content data and multiple parameters of the machine learning module, a predicted value for a property of the portion of the batch of sludge; determining, using the predicted value and current weather conditions at at least one potential destination and/or predicted weather conditions at the at least one potential destination, a recommended potential use for the batch of sludge; and providing the predicted value for the property of the portion of the batch of sludge. receiving, from a near infrared spectrometer , molecular content data that indicates a molecular content of a portion of a batch of sludge; determining, by a machine learning module included in the system using the molecular content data and multiple parameters of the machine learning module, a predicted value for a property of the portion of the batch of sludge; determining, using the predicted value and current weather conditions at at least one potential destination and/or predicted weather conditions at the at least one potential destination, a recommended potential use for the batch of sludge; and providing the predicted value for the property of the portion of the batch of sludge.
A locking steel plate assembly, comprising a locking steel plate and a screw cooperating with the locking steel plate , the locking steel plate comprising: a steel plate body , the steel plate body being provided with a mounting hole , and the mounting hole comprising a first hole section and a second hole section having a cross section area less than a cross section area of the first hole section ; an elastic block hook , provided inside the first hole section , a first end of the elastic block hook and the steel plate body being integrated together, and a second end of the elastic block hook bending toward the second hole section ; and a limiting groove , provided on an inner wall of the second end of the elastic block hook ; the screw comprising a screw head , a screw rod and a flange provided on the screw head , the screw head is accommodated in the elastic block hook of the locking steel plate , the screw rod gets through the second hole section of the locking steel plate ; characterized in that , a part of the second end of the elastic block hook being above the screw head , the flange being on the top of the screw head , and the flange is provided in the limiting groove . the locking steel plate comprising: a steel plate body , the steel plate body being provided with a mounting hole , and the mounting hole comprising a first hole section and a second hole section having a cross section area less than a cross section area of the first hole section ; an elastic block hook , provided inside the first hole section , a first end of the elastic block hook and the steel plate body being integrated together, and a second end of the elastic block hook bending toward the second hole section ; and a limiting groove , provided on an inner wall of the second end of the elastic block hook ; a steel plate body , the steel plate body being provided with a mounting hole , and the mounting hole comprising a first hole section and a second hole section having a cross section area less than a cross section area of the first hole section ; an elastic block hook , provided inside the first hole section , a first end of the elastic block hook and the steel plate body being integrated together, and a second end of the elastic block hook bending toward the second hole section ; and a limiting groove , provided on an inner wall of the second end of the elastic block hook ; the screw comprising a screw head , a screw rod and a flange provided on the screw head , the screw head is accommodated in the elastic block hook of the locking steel plate , the screw rod gets through the second hole section of the locking steel plate ; characterized in that , a part of the second end of the elastic block hook being above the screw head , the flange being on the top of the screw head , and the flange is provided in the limiting groove .
A lithographic printing plate precursor comprising an aluminum-containing substrate, and an infrared radiation-sensitive image-recording layer disposed on the aluminum-containing substrate, the infrared radiation-sensitive image-recording layer comprising: a) one or more free radically polymerizable components; b) one or more infrared radiation absorbers; c) an initiator composition; d) one or more color-forming compounds; e) one or more compounds, each being represented by the following Structure (P): wherein X is the group -O-, or -S-, Y is the group >N-, R 1 is hydrogen or a substituted or unsubstituted alkyl, R 2 and R 3 are independently halo, thioalkyl having 1 to 20 carbon atoms, thiophenyl, alkoxy having 1 to 20 carbon atoms, phenoxy, alkyl having 1 to 20 carbon atoms, phenyl, thioacetyl, or acetyl groups, and m and n are independently 0 or an integer of from 1 to 4; and f) optionally, a non-free radically polymerizable polymeric material different from the a), b), c), d), and e) components defined above, wherein the infrared radiation-sensitive image-recording layer, upon exposure to infrared radiation to provide exposed regions and non-exposed regions, exhibits a color contrast between the exposed regions and non-exposed regions of a ΔE greater than 8, and wherein a ΔE of at least 5 is maintained between the exposed regions and the non-exposed regions after storage of the exposed image-recording layer under white light for at least one hour. a) one or more free radically polymerizable components; b) one or more infrared radiation absorbers; c) an initiator composition; d) one or more color-forming compounds; e) one or more compounds, each being represented by the following Structure (P): wherein X is the group -O-, or -S-, Y is the group >N-, R 1 is hydrogen or a substituted or unsubstituted alkyl, R 2 and R 3 are independently halo, thioalkyl having 1 to 20 carbon atoms, thiophenyl, alkoxy having 1 to 20 carbon atoms, phenoxy, alkyl having 1 to 20 carbon atoms, phenyl, thioacetyl, or acetyl groups, and m and n are independently 0 or an integer of from 1 to 4; and f) optionally, a non-free radically polymerizable polymeric material different from the a), b), c), d), and e) components defined above,
A method for producing ingots from metal, in particular from steel, having a cross-sectional area of more than 0.1 m 2 , liquid metal being discharged either directly from a casting ladle or via a tundish into an ingot mold open at the bottom, the at least partially solidified ingot being withdrawn from the ingot mold in the direction of a longitudinal axis of the ingot using a withdrawing tool which is vertically movable in the direction of the longitudinal axis and on which the ingot is at least indirectly disposed, and the ingot being at least temporarily rotated about its longitudinal axis , at least during the casting process, characterized in that the rotation of the ingot is realized via a pedestal element or a withdrawing tool on which the ingot stands with its facing side.
A method for controlling an RRC state in a UE-initiated RRC connection resume procedure, comprising: sending , by a terminal device, a first Radio Resource Control (RRC) message to a network device, wherein the first RRC message is an RRC resume request message; receiving , by the terminal device, a second RRC message sent from the network device, wherein the second RRC message is an RRC release message; entering , by the terminal device, a RRC inactive state and using configuration information corresponding to the RRC inactive state if the second RRC message carries the configuration information corresponding to the RRC inactive state; wherein if the second RRC message does not carry the configuration information corresponding to the RRC inactive state, the terminal device uses locally stored configuration information corresponding to the RRC inactive state after enters the RRC inactive state; wherein the configuration information corresponding to the RRC inactive state comprises at least one of I-RNTI, an RAN notification area, an RAN DRX cycle, a periodic RAN notification area update timer. sending , by a terminal device, a first Radio Resource Control (RRC) message to a network device, wherein the first RRC message is an RRC resume request message; receiving , by the terminal device, a second RRC message sent from the network device, wherein the second RRC message is an RRC release message; entering , by the terminal device, a RRC inactive state and using configuration information corresponding to the RRC inactive state if the second RRC message carries the configuration information corresponding to the RRC inactive state; wherein if the second RRC message does not carry the configuration information corresponding to the RRC inactive state, the terminal device uses locally stored configuration information corresponding to the RRC inactive state after enters the RRC inactive state; wherein the configuration information corresponding to the RRC inactive state comprises at least one of I-RNTI, an RAN notification area, an RAN DRX cycle, a periodic RAN notification area update timer.