mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic switching circuit that disconnects a power source from a grid based on an interruption or fault, characterized by comprising: a relay leg configured to connect a power source to a grid via a first switching contact (SC2) controlled by a first control coil (CC2) and a second switching contact (SC1) controlled by a second control coil (CC1) different from the first control coil, wherein at least one of the first switching contact or the second switching contact comprises a switching contact of a latching relay (RE1). a relay leg configured to connect a power source to a grid via a first switching contact (SC2) controlled by a first control coil (CC2) and a second switching contact (SC1) controlled by a second control coil (CC1) different from the first control coil, wherein at least one of the first switching contact or the second switching contact comprises a switching contact of a latching relay (RE1).
A thermoplastic resin composition obtainable by blending an alicyclic structure-containing polymer, an aqueous dispersion of a metal oxide, and a polyglycerin fatty acid ester.
Double piston compressor (1.1 - 1.12) of a compressed air supply device, comprising a first pressure stage and a second pressure stage , which each have a cylinder with a piston axially movably guided therein, the two cylinders being arranged radially opposite each other with respect to an axis of rotation of a drive shaft , the two pistons being rigidly connected to each other via a piston rod and having a drive connection to the drive shaft via a slotted guide, the slotted guide (14.1 - 14.12) having a recess formed in the piston rod (15.1 - 15.7) provided with a guide track (16.1 - 16.7) and aligned with its cross-sectional plane at right angles to the axis of rotation of the drive shaft , and the slotted guide (14.1 - 14.12) having a drive roller (17, 17', 17", 25, 25') engaging in the recess (15.1 - 15.7), axially parallel with respect to the axis of rotation of the drive shaft and fixed eccentrically and rotatably to the drive shaft , characterized in that the recess (15.1) of the slotted guide (14.1) is limited by a closed guide track (16.1), which is aligned centrally relative to a mid-axis of the piston rod , and on which the drive roller rolls, pressed permanently onto the two pistons by a resultant compressive force, in that the lateral spacing of the guide track (16.1), measured at right angles to the mid-axis of the piston rod , corresponds at most to the sum of twice the eccentricity (e) and twice the rolling radius (R R ) of the drive roller , and in that the lateral distance of the guide track (16.1), measured parallel to the mid-axis of the piston rod , is more than twice the rolling radius (R R ) of the drive roller , and less than the sum of twice the eccentricity (e) and twice the rolling radius (R R ) of the drive roller .
A system for selective image reconstruction, comprising: a non-transitory memory device for storing computer readable program code; and a processor in communication with the memory device, the processor being operative with the computer readable program code to perform steps including (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image, characterized in that the steps further comprise automatically identifying the region of interest, wherein automatically identifying the region of interest comprises propagating the region of interest from a previously acquired image to the first image. a non-transitory memory device for storing computer readable program code; and a processor in communication with the memory device, the processor being operative with the computer readable program code to perform steps including (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image, (i) receiving at least one first image that is reconstructed at a first spatial resolution, (ii) identifying at least one region of interest in the at least one first image, (iii) selectively reconstructing at least one second image of the region of interest at a second spatial resolution that is higher than the first spatial resolution, and (iv) generating results based on the at least one second image,
A method for preparing a polymer scaffold, comprising the steps of a. providing a piece of a fabric, particularly a non-woven fabric mesh, more particularly a felt-like textile, of filaments of a first polymer, wherein said first polymer is biodegradable or biocompatible, and wherein said piece is characterized by an axis of longitudinal extension; b. applying a coating of a second polymer to said arrangement of filaments in a coating step, wherein said second polymer is characterized by a glass transition temperature being lower than the melting point of said first polymer; c. stretching said piece along its axis of longitudinal extension, thereby obtaining an aligned microfibrillar scaffold, wherein the first and second polymer are each characterized by a glass transition temperature Tg and a melting temperature Tm, and step c. is performed at a temperature that is - higher than the Tg of both the first and second polymer, and - lower than the Tm of both the first and second polymer. a. providing a piece of a fabric, particularly a non-woven fabric mesh, more particularly a felt-like textile, of filaments of a first polymer, wherein said first polymer is biodegradable or biocompatible, and wherein said piece is characterized by an axis of longitudinal extension; b. applying a coating of a second polymer to said arrangement of filaments in a coating step, wherein said second polymer is characterized by a glass transition temperature being lower than the melting point of said first polymer; c. stretching said piece along its axis of longitudinal extension, - higher than the Tg of both the first and second polymer, and - lower than the Tm of both the first and second polymer.
A method for determining a vehicle pose, the method comprising: predicting a pose of the vehicle on a map based on sensor data acquired by a vehicle localization system; transforming a set of map road references of a segment of a digital map from a global coordinate system to an image-frame coordinate system of a vehicle-mounted camera based on map data and the predicted pose of the vehicle, wherein the transformed set of map road references form a set of polylines in the image-frame coordinate system identifying a set of corresponding image road reference features in an image acquired by the vehicle mounted camera, each identified road references feature defining a set of measurement coordinates in the image-frame; projecting each of the identified set of image road reference features onto the formed set of polylines in order to obtain a set of projection points, wherein each projection point defines a set of projection coordinates; determining an error parameter based on a difference between the measurement coordinates and the corresponding projection coordinates; updating the predicted pose based on the determined error parameter. predicting a pose of the vehicle on a map based on sensor data acquired by a vehicle localization system; transforming a set of map road references of a segment of a digital map from a global coordinate system to an image-frame coordinate system of a vehicle-mounted camera based on map data and the predicted pose of the vehicle, wherein the transformed set of map road references form a set of polylines in the image-frame coordinate system identifying a set of corresponding image road reference features in an image acquired by the vehicle mounted camera, each identified road references feature defining a set of measurement coordinates in the image-frame; projecting each of the identified set of image road reference features onto the formed set of polylines in order to obtain a set of projection points, wherein each projection point defines a set of projection coordinates; determining an error parameter based on a difference between the measurement coordinates and the corresponding projection coordinates; updating the predicted pose based on the determined error parameter.
A clot retrieval device for removing occlusive clot from a blood vessel comprising a clot engaging element having a constrained delivery configuration, an expanded deployed configuration and a more freely expanded condition, the clot engaging element having a first peripheral portion, a second peripheral portion and a clot engaging section extending between the first and second peripheral portions wherein, (i) in the expanded deployed configuration, the peripheral portions are laterally spaced-apart, the clot engaging section extends between the peripheral portions, and wherein at least a portion of the device has a longitudinally extending undulating wave pattern configured to engage and grip the clot, and (ii) in the more freely expanded condition the device has at least two wave patterns that are superimposed on one another, the first, undulating wave, pattern having a wavelength and an amplitude and the second wave pattern having a wavelength and an amplitude which are larger than those of the first undulating wave pattern, so as to increase an effective diameter of the device beyond that of the expanded deployed configuration in order to retain apposition between clot and vessel wall as the device is withdrawn through increasing diameters of vessel .
An ultrasonic surgical system , comprising: an ultrasonic surgical instrument comprising: an ultrasonic generator configured to output a drive signal; an ultrasonic transducer coupled to the ultrasonic generator and configured to receive the drive signal and output mechanical motion in response thereto; a waveguide coupled to the ultrasonic transducer and configured to transmit the mechanical motion therealong; a blade disposed at a distal end portion of the waveguide, the blade configured to oscillate in response to receipt of the mechanical motion from the waveguide, wherein the blade defines a displacement when oscillating; and a handle wherein a sensor is disposed on the surgical instrument at a location (L1) at a junction between a fixed handle portion of the handle assembly and a body portion of the handle assembly and is configured to sense an application of force applied by the user via the handle to urge the blade into the tissue which is a property indicative of tension on the tissue; and a controller configured to adjust the drive signal to thereby adjust the displacement based upon the sensed force. an ultrasonic generator configured to output a drive signal; an ultrasonic transducer coupled to the ultrasonic generator and configured to receive the drive signal and output mechanical motion in response thereto; a waveguide coupled to the ultrasonic transducer and configured to transmit the mechanical motion therealong; a blade disposed at a distal end portion of the waveguide, the blade configured to oscillate in response to receipt of the mechanical motion from the waveguide, wherein the blade defines a displacement when oscillating; and a handle wherein a sensor is disposed on the surgical instrument at a location (L1) at a junction between a fixed handle portion of the handle assembly and a body portion of the handle assembly and is configured to sense an application of force applied by the user via the handle to urge the blade into the tissue which is a property indicative of tension on the tissue; and a controller configured to adjust the drive signal to thereby adjust the displacement based upon the sensed force.
Method for producing pentamethylene diisocyanate, comprising, in this order, the steps of reacting carbonyl chloride with pentamethylenediamine to produce a reaction mixture containing pentamethylene diisocyanate and a tar component containing a chlorine-containing component, degassing the reaction mixture to remove excessive carbonyl chloride from the reaction mixture, heating the reaction mixture at a temperature of 140-260°C, and purifying the reaction mixture to separate the pentamethylene diisocyanate from the tar component, wherein in step the reaction mixture is heated without removing the tar component from the reaction mixture. reacting carbonyl chloride with pentamethylenediamine to produce a reaction mixture containing pentamethylene diisocyanate and a tar component containing a chlorine-containing component, degassing the reaction mixture to remove excessive carbonyl chloride from the reaction mixture, heating the reaction mixture at a temperature of 140-260°C, and purifying the reaction mixture to separate the pentamethylene diisocyanate from the tar component,
A display device comprising: a display panel ; a module cover positioned on a rear side of the display panel, the module cover supporting the display panel; a first coupling part formed on a rear side of the module cover ; a second coupling part formed on a target attachment surface parallel to the display panel , the second coupling part configured to be coupled with the first coupling part ; a third coupling part formed on the rear side of the module cover , the third coupling part spaced apart from the first coupling part ; a fourth coupling part formed on the target attachment surface , the fourth coupling part configured to be coupled with the third coupling part , and a button positioned on the side of the display panel , wherein the first coupling part is positioned above the third coupling part , the first coupling part is hung on the second coupling part , and the third coupling part includes a magnet configured to be coupled with the fourth coupling part magnetically, wherein the button is configured to cause a current flowing in the third coupling part to be selectively cut off, wherein the third coupling part is an electromagnet and the fourth coupling part is a metal. a display panel ; a module cover positioned on a rear side of the display panel, the module cover supporting the display panel; a first coupling part formed on a rear side of the module cover ; a second coupling part formed on a target attachment surface parallel to the display panel , the second coupling part configured to be coupled with the first coupling part ; a third coupling part formed on the rear side of the module cover , the third coupling part spaced apart from the first coupling part ; a fourth coupling part formed on the target attachment surface , the fourth coupling part configured to be coupled with the third coupling part , and a button positioned on the side of the display panel , wherein the first coupling part is positioned above the third coupling part , the first coupling part is hung on the second coupling part , and the third coupling part includes a magnet configured to be coupled with the fourth coupling part magnetically, wherein the button is configured to cause a current flowing in the third coupling part to be selectively cut off, wherein the third coupling part is an electromagnet and the fourth coupling part is a metal.
A charging system for an electric energy storage comprising a cable charging assembly , a plug transition between said charging cable assembly and said electric energy storage, said cable charging assembly comprising a cable provided with at least two separate power conductors and at least one earth conductor , wherein the at least two separate power conductors are spaced a distance apart from each other within said cable, each power conductor surrounds at least one tube , and each power conductor comprises a plurality of intertwisted wires stranded around said tube , wherein said cable charging assembly comprises at least two separate cooling circuits within said cable, namely a first cooling circuit comprising a cooling fluid in the tubes surrounded by the at least two power conductors and a second cooling circuit comprising a cooling fluid in auxiliary tubes to cool the plug transition , said second cooling circuit for cooling said plug transition comprises auxiliary tubes , characterized in that said cooling circuit further comprises cooling blocks , a cooling unit and a pump , wherein said plug transitions are surrounded by a connector shell which includes one or more cooling blocks in thermal conductive contact with said plug transitions , wherein the auxiliary tubes are connected to the one or more cooling blocks .
A pharmaceutical composition for use in a method for suppressing the immunity of a subject to prevent or treat an autoimmune disease or an allergic disease by inducing proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells, the composition comprising, as an active ingredient, bacteria belonging to the genus Clostridium, wherein the bacteria induce said proliferation or accumulation of transcription factor Foxp3-positive regulatory T cells.
Electrical plug socket comprising a housing , which has a plug receptacle for the insertion of a plug connector and has a cable receptacle for the insertion of a data transmission cable , wherein arranged in the plug receptacle are a plurality of contact springs , which are contactable by associated plug contacts of the plug connector and are each electrically connected to a wire connection element , and comprising a wire receiving part that together with the data transmission cable is insertable into the cable receptacle and is positionable on the wire connection elements for receiving the wires of the data transmission cable , and comprising at least one strain relief part , which is movable back and forth between a release position spaced at a distance from the data transmission cable and a strain relief position abutting against the data transmission cable , characterized in that the at least one strain relief part is insertable into the cable receptacle , wherein in the release position it unblocks the cable receptacle and in the strain relief position it dips into the cable receptacle and during the transition from the release position into the strain relief position it displaces the wire receiving part from a pre-assembly position into a final assembly position and fixes it in the final assembly position, wherein the at least one strain relief part is fixable to the housing in the release position and in the strain relief position, wherein the fixation of the at least one strain relief part to the housing is effected by way of a releasable latching connection, which in the strain relief position of the at least one strain relief part comprises a plurality of latching steps for the at least one strain relief part .
Method for folding laundry items , wherein, in a longitudinal-folding station , folding means are used to fold, one after the other, a first longitudinal-periphery strip of the laundry item , around at least one folding template , against a central and/or inner longitudinal strip of the laundry item , then to fold an opposite longitudinal-periphery strip of the laundry item against the longitudinal-periphery strip previously folded under the longitudinal strip , and, thereafter, to fold the longitudinally folded laundry item transversely, if appropriate, at least once, characterized in that upstream of the longitudinal-folding operation, with the laundry items as yet not folded, it is established whether at least one emblem is present on an adjacent side of the laundry item and, depending on whether an emblem or no emblem has been established on the visible side of the laundry item , the two longitudinal-periphery strips are folded against the one side or the other side of the longitudinal strip and/or the longitudinal-periphery strips already previously laid against the longitudinal strip .
A method for preparing an at least partially exfoliated clay, comprising the steps of: providing a clay; providing an exfoliating agent, comprising a partial ester of poly(alkylene oxide) (meth)acrylate, a cyclic carbonate and water, wherein the water is present in an amount of 10% by volume or less based on the volume of the exfoliating agent; mixing the clay and the exfoliating agent; and obtaining the at least partially exfoliated clay. providing a clay; providing an exfoliating agent, comprising a partial ester of poly(alkylene oxide) (meth)acrylate, a cyclic carbonate and water, wherein the water is present in an amount of 10% by volume or less based on the volume of the exfoliating agent; mixing the clay and the exfoliating agent; and obtaining the at least partially exfoliated clay.
A method of controlling a load wrapping apparatus of the type configured to wrap a load on a load support with packaging material dispensed from a packaging material dispenser through relative rotation between the packaging material dispenser and the load support , the method comprising: sensing a plurality of points on a plurality of surfaces of the load using one or more sensors directed at the load ; generating a surface model of the load based upon the sensed plurality of points, wherein the generated surface model identifies a top surface topography comprising a plurality of elevations for the load ; and controlling one or more control parameters for the load wrapping apparatus when wrapping the load based upon the generated surface model ; the method being characterized by the step of: determining a density parameter for the load from the generated surface model . sensing a plurality of points on a plurality of surfaces of the load using one or more sensors directed at the load ; generating a surface model of the load based upon the sensed plurality of points, wherein the generated surface model identifies a top surface topography comprising a plurality of elevations for the load ; and controlling one or more control parameters for the load wrapping apparatus when wrapping the load based upon the generated surface model ; the method being characterized by the step of: determining a density parameter for the load from the generated surface model .