mhurhangee/ep-ind-claims huggingface dataset:
A foreign object detection circuit comprising: a detection coil; a transmitting circuit configured to generate an unbalanced signal; a balanced-to-unbalanced transformer configured to transform the unbalanced signal supplied from the transmitting circuit to a balanced signal and configured to output the balanced signal to the detection coil; and a detection circuit configured to detect a foreign object by sensing a change in frequency characteristic of reflected power that is a power component reflected by the detection coil. a detection coil; a transmitting circuit configured to generate an unbalanced signal; a balanced-to-unbalanced transformer configured to transform the unbalanced signal supplied from the transmitting circuit to a balanced signal and configured to output the balanced signal to the detection coil; and a detection circuit configured to detect a foreign object by sensing a change in frequency characteristic of reflected power that is a power component reflected by the detection coil.
A solid-state electric charge sensor (200, 600) comprising: a charge detector circuit (210, 610) operatively coupled with a signal-readout circuit (205, 605) through a column signal line and comprising a sense node; the signal-readout circuit (205, 605) comprising a current source (240, 640), an amplifier (250, 650) and said column signal line (220, 620),wherein the amplifier (250, 650) has an output node (254, 354, 454, 654) and a single input node and is selectively operable in an open-loop configuration and a negative feedback loop configuration, wherein said single input node is operatively connected with said column signal line (220, 620); a feedback line (230, 630) selectively operable for connecting, during a reset phase, said sense node of said charge detection unit and said output node of said amplifier to form said negative feedback loop configuration of said amplifier and selectively operable for disconnecting, during an amplification phase, said sense node of said charge detection unit from said output node of said amplifier to form said open loop configuration of said amplifier; said amplifier (250, 650) has an inverting voltage gain; said single input node is operatively connected with said current source (240, 640); and the solid-state electric charge sensor (200, 600) further comprises a sample-and-hold circuit (260, 660) connected to the output node (254, 354, 454, 654) of said amplifier (250, 650). a charge detector circuit (210, 610) operatively coupled with a signal-readout circuit (205, 605) through a column signal line and comprising a sense node; the signal-readout circuit (205, 605) comprising a current source (240, 640), an amplifier (250, 650) and said column signal line (220, 620),wherein the amplifier (250, 650) has an output node (254, 354, 454, 654) and a single input node and is selectively operable in an open-loop configuration and a negative feedback loop configuration, wherein said single input node is operatively connected with said column signal line (220, 620); a feedback line (230, 630) selectively operable for connecting, during a reset phase, said sense node of said charge detection unit and said output node of said amplifier to form said negative feedback loop configuration of said amplifier and selectively operable for disconnecting, during an amplification phase, said sense node of said charge detection unit from said output node of said amplifier to form said open loop configuration of said amplifier; said amplifier (250, 650) has an inverting voltage gain; said single input node is operatively connected with said current source (240, 640); and the solid-state electric charge sensor (200, 600) further comprises a sample-and-hold circuit (260, 660) connected to the output node (254, 354, 454, 654) of said amplifier (250, 650).
A method of forming a neighbour cell list, for use in a basestation of a cellular communications network, the method characterised by, for each of a plurality of neighbour cells: assigning a value of a relative position component, depending on whether or not the basestation can detect signals transmitted from said neighbour cell; assigning a value of a handover success component, depending on a history of successful or unsuccessful handover attempts to said neighbour cell; and combining the values of the relative position and handover success components to form a weighting parameter, for use in determining a handover priority to be given to said neighbour cell in the neighbour cell list. assigning a value of a relative position component, depending on whether or not the basestation can detect signals transmitted from said neighbour cell; assigning a value of a handover success component, depending on a history of successful or unsuccessful handover attempts to said neighbour cell; and combining the values of the relative position and handover success components to form a weighting parameter, for use in determining a handover priority to be given to said neighbour cell in the neighbour cell list.
A method for reconstructing an image using a medical imaging system, the steps of the method comprising: a) acquiring data from a subject with the medical imaging system, the acquired data containing a plurality of data consistency classes; b) automatically reconstructing an image of the subject from the data acquired in step a), the image of the subject containing artifacts associated with data inconsistencies; c) forming an image matrix having a first column corresponding to the image reconstructed in step b); d) computing a target image matrix by iteratively updating the image matrix formed in step c) by minimizing a matrix rank of the image matrix subject to a data consistency condition such that each column of the computed target image matrix corresponds to a different one of the plurality of data consistency classes; wherein the consistency condition promotes a forward projection of each column in the image matrix to be consistent with a different subset of the acquired data; wherein each subset of the acquired data contains data that are consistent only with other data in that subset of the acquired data and are otherwise inconsistent with data in other subsets of the acquired data; wherein the plurality of data consistency classes include a data consistency class for data consistent with a true image of the subject that is substantially free of artifacts and a data consistency class for data consistent with at least one artifact; and e) providing the first column of the target image matrix computed in step d) as a true image of the subject that is substantially free of artifacts. a) acquiring data from a subject with the medical imaging system, the acquired data containing a plurality of data consistency classes; b) automatically reconstructing an image of the subject from the data acquired in step a), the image of the subject containing artifacts associated with data inconsistencies; c) forming an image matrix having a first column corresponding to the image reconstructed in step b); d) computing a target image matrix by iteratively updating the image matrix formed in step c) by minimizing a matrix rank of the image matrix subject to a data consistency condition such that each column of the computed target image matrix corresponds to a different one of the plurality of data consistency classes; wherein the consistency condition promotes a forward projection of each column in the image matrix to be consistent with a different subset of the acquired data; wherein each subset of the acquired data contains data that are consistent only with other data in that subset of the acquired data and are otherwise inconsistent with data in other subsets of the acquired data; wherein the plurality of data consistency classes include a data consistency class for data consistent with a true image of the subject that is substantially free of artifacts and a data consistency class for data consistent with at least one artifact; and e) providing the first column of the target image matrix computed in step d) as a true image of the subject that is substantially free of artifacts.
A system for biometric detection of a fingerprint comprising: a flexible sensor comprising a two-dimensional array of sensing elements on a flexible substrate; and a conforming enclosure mechanism proximate said flexible sensor comprising one or more mechanical positioning members that move at least a portion of said sensor to conform to a shape of a finger after presentation of said finger to said flexible sensor in order to position said finger along said flexible sensor to enable capture of a rolled-equivalent fingerprint image for said finger using said flexible sensor, wherein the rolled-equivalent fingerprint image is obtained without rotation or rocking of said finger with respect to said flexible sensor; wherein said one or more mechanical positioning members move at least a portion of said flexible sensor to curl said flexible sensor along the finger between right and left sides of a fingernail of the finger to partially enclose the flexible sensor around the finger in order to enable said flexible sensor to capture said rolled-equivalent fingerprint image. a flexible sensor comprising a two-dimensional array of sensing elements on a flexible substrate; and a conforming enclosure mechanism proximate said flexible sensor comprising one or more mechanical positioning members that move at least a portion of said sensor to conform to a shape of a finger after presentation of said finger to said flexible sensor in order to position said finger along said flexible sensor to enable capture of a rolled-equivalent fingerprint image for said finger using said flexible sensor, wherein the rolled-equivalent fingerprint image is obtained without rotation or rocking of said finger with respect to said flexible sensor; wherein said one or more mechanical positioning members move at least a portion of said flexible sensor to curl said flexible sensor along the finger between right and left sides of a fingernail of the finger to partially enclose the flexible sensor around the finger in order to enable said flexible sensor to capture said rolled-equivalent fingerprint image.
Shaft coupling for coupling a shaft journal with a polygonal cross-section to a drive or a bearing axle, comprising a rotationally drivable coupling body, which comprises a coupling opening for receiving the shaft journal, wherein the coupling body comprises a first coupling part and a second coupling part and is configured to be openable along a partition line wherein the partition line intersects the coupling opening, wherein a clamping device for the force-locking connection of the shaft journal in the coupling opening is provided, and wherein the coupling opening is at least partially formed by clamping jaws, which in the closed position are pressed by the clamping device, preferably flatly, onto the shaft journal, wherein the clamping device comprises a clamping bracket with a first centring flank and a second centring flank, characterised in that in the closed state the first centring flank is in active contact with a centring flank of the first coupling part and the second centring flank is in active contact with a centring flank of the second coupling part.
Beverage container comprising one parison, globally with a rotational symmetry around a vertical axis Z, comprising on the inside of said parison at least one relief on the internal wall of the parison, said relief extending helically from a height of the parison lower than or equal to the level of the mouth, to a level higher than or equal to the bottom of the parison, and being able to receive the beverage on one of its contours and make it slide along its helix, characterized in that said relief being further inclined according to an angle α towards the top of the internal surface of the parison in relation to a plane perpendicular to the vertical axis Z so as to form a gutter with the internal surface of the parison on at least one part of the length of the helix formed by said relief.
An electro-optical device for cross-fading, comprising: - a plurality of video projectors (101, 102) projecting luminous fluxes on a common passive screen, with at least one coverage zone between the luminous fluxes; - at least one dynamic mask interposed between at least one of the video projectors (101, 102) and the common passive screen, the dynamic mask being formed by displaying a mask image on a transparent screen in order to obtain an optimal luminosity of the display of the coverage zone; - the transparent screen being curved and/or flexible. - a plurality of video projectors (101, 102) projecting luminous fluxes on a common passive screen, with at least one coverage zone between the luminous fluxes; - at least one dynamic mask interposed between at least one of the video projectors (101, 102) and the common passive screen, the dynamic mask being formed by displaying a mask image on a transparent screen in order to obtain an optimal luminosity of the display of the coverage zone; - the transparent screen being curved and/or flexible.
A separator for a rechargeable battery, comprising a porous substrate and a heat resistance layer on at least one surface of the porous substrate, wherein the heat resistance layer includes an acryl-based copolymer, an alkali metal, and a filler and the acryl-based copolymer includes a unit derived from (meth)acrylate or (meth)acrylic acid, a cyano group-containing unit, and a sulfonate group-containing unit.
Saw bench having a first pair of legs and a second pair of legs, wherein at least two crossbars for cut material are arranged between the first pair of legs and the second pair of legs, wherein the first pair of legs and the second pair of legs are rigidly connected via a frame, wherein - each crossbar consists of a first flat bearing element and a second flat bearing element, wherein the first and second flat bearing elements (4, 5) are arranged at an angle (a) to one another, wherein - a saw slot is formed between the crossbars, characterized in that - at least one first guide rail and/or at least one second guide rail for a sawing means is mounted in the saw bench in such a way that the sawing means engages below a level of the cut material on the at least two crossbars when sawing the cut material through the saw slot, wherein the at least one first guide rail is inserted and secured on the frame at the rear in relation to the first flat bearing element, and a guide bolt, which is connected to the sawing means, can be slidably guided in the at least one first guide rail, and/or wherein the at least one second guide rail is inserted and secured to the frame and in a receptacle at a free end of the second flat bearing element, and a guide bolt, which is connected to the sawing means, can be slidably guided in the at least one second guide rail. - each crossbar consists of a first flat bearing element and a second flat bearing element, wherein the first and second flat bearing elements (4, 5) are arranged at an angle (a) to one another, wherein - a saw slot is formed between the crossbars, - at least one first guide rail and/or at least one second guide rail for a sawing means is mounted in the saw bench in such a way that the sawing means engages below a level of the cut material on the at least two crossbars when sawing the cut material through the saw slot, wherein the at least one first guide rail is inserted and secured on the frame at the rear in relation to the first flat bearing element, and a guide bolt, which is connected to the sawing means, can be slidably guided in the at least one first guide rail, and/or wherein the at least one second guide rail is inserted and secured to the frame and in a receptacle at a free end of the second flat bearing element, and a guide bolt, which is connected to the sawing means, can be slidably guided in the at least one second guide rail.
A device for controlling a gaseous flow, comprising: - a gaseous flow adjusting interface, configured to inhibit or allow a gaseous flow through the device in a controlled manner, and - adjusting interface control means (3, 4); wherein the adjusting interface comprises a plurality of nano-holes, each of the nano-holes having sub-micrometric dimensions and being suitable to be opened or closed, in a controlled manner, to allow or, respectively, inhibit the passage of a respective gaseous micro-flow; and wherein the control means (3, 4) comprise: - actuating means, suitable to open or close said nano-holes, and - electronic processing means, configured to activate the actuating means to individually or collectively open or close said nano-holes in a controlled manner, and wherein the actuating means comprise a plurality of miniaturized nano-hole opening/closing mechanical members, each of said miniaturized nano-hole opening/closing mechanical members being suitable to mechanically open or close a corresponding nano-hole, so as to maximize or minimize, respectively, the nano-hole conductance, characterized in that each of said miniaturized nano-hole opening/closing mechanical members is suitable to be at least partially inserted into a corresponding nano-hole upon a nano-hole closure condition. - a gaseous flow adjusting interface, configured to inhibit or allow a gaseous flow through the device in a controlled manner, and - adjusting interface control means (3, 4); - actuating means, suitable to open or close said nano-holes, and - electronic processing means, configured to activate the actuating means to individually or collectively open or close said nano-holes in a controlled manner,
A method for creating a three-dimensional model of a bone of a patient, the method comprising: receiving scan data of the bone of the patient into a preoperative planning software; and creating machine-readable instructions using the preoperative planning software based on the scan data, characterized by moving a plurality of moveable pins of an adjustable model by way of a machine, based on the instructions to correspond to a three-dimensional surface model of the bone of the patient. receiving scan data of the bone of the patient into a preoperative planning software; and creating machine-readable instructions using the preoperative planning software based on the scan data, characterized by moving a plurality of moveable pins of an adjustable model by way of a machine, based on the instructions to correspond to a three-dimensional surface model of the bone of the patient.
Test assembly, comprising - a tension/pressure measuring device and comprising - an adapter part for connecting a medical hollow body to the tension/pressure measuring device, wherein - the adapter part comprises: o a first connecting end, which is designed to connect the adapter part to an interior of a medical hollow body in a fluid-tight manner, and o a second connecting end, which has a pressure chamber and is designed to operatively connect the adapter part to the tension/pressure measuring device, so that a pressure in the pressure chamber can be adjusted by means of the tension/pressure measuring device, wherein - a hollow channel passes through the adapter part from the pressure chamber to the first connecting end, characterised in that - the tension/pressure measuring device has a standing body and a working end, which can be axially displaced relative to the standing body, wherein - the second connecting end of the adapter part is operatively connected to the working end in such a way that a pressure in the pressure chamber can be adjusted by axially displacing the working end relative to the pressure chamber. - a tension/pressure measuring device and comprising - an adapter part for connecting a medical hollow body to the tension/pressure measuring device, wherein - the adapter part comprises: o a first connecting end, which is designed to connect the adapter part to an interior of a medical hollow body in a fluid-tight manner, and o a second connecting end, which has a pressure chamber and is designed to operatively connect the adapter part to the tension/pressure measuring device, so that a pressure in the pressure chamber can be adjusted by means of the tension/pressure measuring device, wherein o a first connecting end, which is designed to connect the adapter part to an interior of a medical hollow body in a fluid-tight manner, and o a second connecting end, which has a pressure chamber and is designed to operatively connect the adapter part to the tension/pressure measuring device, so that a pressure in the pressure chamber can be adjusted by means of the tension/pressure measuring device, wherein - a hollow channel passes through the adapter part from the pressure chamber to the first connecting end, - the tension/pressure measuring device has a standing body and a working end, which can be axially displaced relative to the standing body, wherein - the second connecting end of the adapter part is operatively connected to the working end in such a way that a pressure in the pressure chamber can be adjusted by axially displacing the working end relative to the pressure chamber.
Insulating concrete formwork system with insulating panels (1,5) and connection elements comprising: two or more insulating panels (1,5) for receiving a fluid concrete structuring material between said panels (1,5); at least two profiles to fit each one in one said panel (1,5); one or more connecting devices (2,7) that comprise two extremities each one for connection to one section to join two panels (1,5); wherein each panel (1,5) has four ends including an upper end and a lower end opposite the upper end; wherein the panels (1,5) comprise a cavity to fit one or more profiles along the upper end of each panel (1,5); wherein the panels (1,5) comprise a cavity to fit one or more profiles along the lower end of each panel (1,5); wherein the profiles comprise a lateral flashing with a plurality of holes to fit the extremities of the connecting devices (2,7); wherein the connecting devices (2,7) comprise a plurality of hooks, at their two extremities, to enter into said holes of the respective profile; characterised in that the panels (1,5) comprise along the length of the lower end a protuberance and along the length of the upper end a recess, for superimposition of panels (1,5); in that the protuberance or the recess are adapted to fit in the lateral flashing of said profiles together with the hooks of said connecting device (2,7); and in that the recess is arranged for residues to be deposited therein. two or more insulating panels (1,5) for receiving a fluid concrete structuring material between said panels (1,5); at least two profiles to fit each one in one said panel (1,5); one or more connecting devices (2,7) that comprise two extremities each one for connection to one section to join two panels (1,5); wherein each panel (1,5) has four ends including an upper end and a lower end opposite the upper end; wherein the panels (1,5) comprise a cavity to fit one or more profiles along the upper end of each panel (1,5); wherein the panels (1,5) comprise a cavity to fit one or more profiles along the lower end of each panel (1,5); wherein the profiles comprise a lateral flashing with a plurality of holes to fit the extremities of the connecting devices (2,7); wherein the connecting devices (2,7) comprise a plurality of hooks, at their two extremities, to enter into said holes of the respective profile; characterised in that the panels (1,5) comprise along the length of the lower end a protuberance and along the length of the upper end a recess, for superimposition of panels (1,5); in that the protuberance or the recess are adapted to fit in the lateral flashing of said profiles together with the hooks of said connecting device (2,7); and in that the recess is arranged for residues to be deposited therein.