mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling access to a region, each person seeking access carrying a RFID tag containing a detectable unique identifier, the method comprising: detecting, at a first location through which all persons seeking access to the region are allowed to pass, a unique identifier relating to a person in the first location; using the detected unique identifier to retrieve information concerning the person from one or more external databases; supplying the retrieved information to a second location remote from the first location; and using, at the second location and when the person is at the second location, the retrieved information to make a decision as to whether to allow the person carrying the unique identifier access to the controlled region. detecting, at a first location through which all persons seeking access to the region are allowed to pass, a unique identifier relating to a person in the first location; using the detected unique identifier to retrieve information concerning the person from one or more external databases; supplying the retrieved information to a second location remote from the first location; and using, at the second location and when the person is at the second location, the retrieved information to make a decision as to whether to allow the person carrying the unique identifier access to the controlled region.
Method for watermark embedding in multi views video comprising a plurality of views captured with a plurality of cameras characterized in that it comprises for each view the steps of: - projecting the view onto a domain invariant to the plurality of views and to intermediate synthesized view, resulting into an invariant vector (i), wherein said invariant domain comprises the sum of the samples values of said view along any line parallel to a line passing through optical centers of the cameras, said parallel lines called view invariant dimension, provided that: i) optical axis of the cameras are parallel, ii) optical axis are orthogonal to the line passing through optical centers of all cameras, iii) all cameras share a same focal distance, and iv) there is no rotation between the cameras; - applying a watermarking algorithm to the invariant vector (i) resulting into a watermarked invariant vector (i w); - subtracting the invariant vector (i) from the watermarked invariant vector (i w) obtaining the invariant watermark vector (w); - distributing the invariant watermark vector (w) by duplicating said invariant watermark vector (w) over the view invariant dimension resulting into a watermark signal; - merging the watermark signal with the view resulting into a watermarked view (I w). - projecting the view onto a domain invariant to the plurality of views and to intermediate synthesized view, resulting into an invariant vector (i), wherein said invariant domain comprises the sum of the samples values of said view along any line parallel to a line passing through optical centers of the cameras, said parallel lines called view invariant dimension, provided that: i) optical axis of the cameras are parallel, ii) optical axis are orthogonal to the line passing through optical centers of all cameras, iii) all cameras share a same focal distance, and iv) there is no rotation between the cameras; i) optical axis of the cameras are parallel, ii) optical axis are orthogonal to the line passing through optical centers of all cameras, iii) all cameras share a same focal distance, and iv) there is no rotation between the cameras; - applying a watermarking algorithm to the invariant vector (i) resulting into a watermarked invariant vector (i w); - subtracting the invariant vector (i) from the watermarked invariant vector (i w) obtaining the invariant watermark vector (w); - distributing the invariant watermark vector (w) by duplicating said invariant watermark vector (w) over the view invariant dimension resulting into a watermark signal; - merging the watermark signal with the view resulting into a watermarked view (I w).
Device for locking or securing a pivotable device, such as a door, a window or the like, comprising a fastening unit for fastening the device to an edge of the pivotable device, a stopper unit which is designed to be brought into engagement with an abutment, and an actuating unit which is supported on the fastening unit and is operatively connected to the stopper unit in such a way that a rotational displacement of the actuating unit leads to a translational displacement of the stopper unit, the fastening unit having a support element and a counter element which can be displaced relative to one another in such a way that the pivotable device can be clamped with or between them, wherein the support element has a plate-shaped base from which a support surface extends transversely away, wherein a holding area protrudes from the plate-shaped base of the support element, on which the counter element can be supported or mounted in such a way that the counter element in relation to the support element is relocatable, characterized in that the counter element has a guide area for translational displacement of the stopper unit.
An organism migrant system for arrangement in a flowing water body, wherein the organism migrant system is formed with a first length, a first width and a first height, wherein the organism migrant system comprises at least two slot passes and at least one pool along the first length, wherein the pool is formed between two each of the at least two slot passes, and wherein each slot pass forms at least one slot comprised by the organism migrant system for the flow of water in a slot flow direction, wherein the slot has a slot length measured in the direction of the slot flow direction, which slot length is between 20% and 80% of the first width, and the slot has a varying slot width, characterized in that the slot is bounded by a first slot area and a second slot area which is opposite of the first slot area, and first elevations of the first slot area are opposite of second elevations of the second slot area.
A fluid reservoir comprising: • a slide cylinder; • a neck that defines an outlet opening; • an internal shoulder that connects the slide cylinder to the outlet opening, the internal shoulder being provided with an annular groove that extends in line with the slide cylinder, such that the internal shoulder defines an annular collar that connects the annular groove to the outlet opening; and • a follower piston that is engaged to slide in leaktight manner in the slide cylinder, the piston defining at least one sealing lip that is received in the annular groove when the reservoir is empty; the fluid reservoir being characterized in that the annular collar is formed with at least one radial channel (17; 17') that connects the annular groove to the outlet opening of the neck. • a slide cylinder; • a neck that defines an outlet opening; • an internal shoulder that connects the slide cylinder to the outlet opening, the internal shoulder being provided with an annular groove that extends in line with the slide cylinder, such that the internal shoulder defines an annular collar that connects the annular groove to the outlet opening; and • a follower piston that is engaged to slide in leaktight manner in the slide cylinder, the piston defining at least one sealing lip that is received in the annular groove when the reservoir is empty; the fluid reservoir being characterized in that the annular collar is formed with at least one radial channel (17; 17') that connects the annular groove to the outlet opening of the neck.
A device for detecting elevator rope elongation, the elevator rope being connected to a rope head device and an operating device in an elevator, wherein the device for detecting elevator rope elongation comprises: one and more brackets connected to an elastic reset member in the rope head device; a coupling member connected to at least one of the brackets and configured to be driven into a trigger position by the at least one bracket when the displacement of the elastic reset member exceeds a threshold value due to reduction of compression amount; a trigger connected to the coupling member and configured to be triggered to generate a trigger signal when the coupling member is driven into the trigger position; characterized in that at least one of the brackets is provided with a fixing part for fixing the ends of the coupling member thereon. one and more brackets connected to an elastic reset member in the rope head device; a coupling member connected to at least one of the brackets and configured to be driven into a trigger position by the at least one bracket when the displacement of the elastic reset member exceeds a threshold value due to reduction of compression amount; a trigger connected to the coupling member and configured to be triggered to generate a trigger signal when the coupling member is driven into the trigger position; characterized in that at least one of the brackets is provided with a fixing part for fixing the ends of the coupling member thereon.
A synergistic combination of agents for use in the treatment of a hematologic cancer in a patient, wherein the hematologic cancer is non-Hodgkin's lymphoma and wherein the NHL is a diffuse large B cell lymphoma, wherein the combination of agents comprises a first agent that selectively blocks CD47 and a second agent that binds to CD20, wherein the first and second agents are comprised in a bispecific FcR-engaging antibody selective for CD47 and for CD20.
A method for generating and using a digital twin of a hydrocarbon system, the method characterized by: performing a plurality of simulations using design of experiments, DOE, techniques to create a hyperdimensional space mapping simulation inputs, outputs and attributes; using the hyperdimensional space from the plurality of simulations to generate one or more reduced order models, ROMs, using a regression technique or a machine learning technique; generating a digital twin of the hydrocarbon system based on data from an on-site test at the hydrocarbon system by instantiating the one or more ROMs at an operational point of the hydrocarbon system, and configuring the digital twin to use real-time data obtained from the hydrocarbon system; estimating values of one or more variables of the hydrocarbon system in real-time using the digital twin; and controlling the hydrocarbon system based on the estimated values of the one or more variables. performing a plurality of simulations using design of experiments, DOE, techniques to create a hyperdimensional space mapping simulation inputs, outputs and attributes; using the hyperdimensional space from the plurality of simulations to generate one or more reduced order models, ROMs, using a regression technique or a machine learning technique; generating a digital twin of the hydrocarbon system based on data from an on-site test at the hydrocarbon system by instantiating the one or more ROMs at an operational point of the hydrocarbon system, and configuring the digital twin to use real-time data obtained from the hydrocarbon system; estimating values of one or more variables of the hydrocarbon system in real-time using the digital twin; and controlling the hydrocarbon system based on the estimated values of the one or more variables.
Method for manufacturing pile fabrics,, wherein two base fabrics, are woven composed of first ground warp yarns (1-3, 3a, 3b, 13),(4-6, 6a, 6b, 14) and first weft threads (20,20b,20R,22); (21, 21b,21R, 22), respectively, while each base fabric, comprises at least one pile warp thread -, parts of which extend between both base fabrics, in a pile-forming manner, wherein at least some of the pile warp threads - are non-pile-forming over at least part of their length, and wherein the pile-forming parts of the pile-warp threads - between both base fabrics, are cut, so that two pile fabrics, are obtained, characterized in that at least some of the non-pile-forming parts of the pile warp threads - are woven in, together with second weft threads,, before the pile warp threads are cut, to form at least one additional fabric;,, and in that each additional fabric;, is subsequently removed.
A receiving device for receiving a magnetic field and for producing electric energy by magnetic induction, wherein - the receiving device comprises at least one coil (33, 35, 37) of an electric line, wherein the magnetic field induces an electric voltage in the coil (33, 35, 37) during operation and wherein the coil (33, 35, 37) comprises an inductance, - the receiving device and the coil (33, 35, 37) are adapted to receive the magnetic field from a receiving side, - the receiving device comprises a case (2, 3) enclosing the at least one coil (33, 35, 37) and further components of the receiving device, - the receiving device comprises at least one capacitor having a capacitance, which capacitor is electrically connected to the coil or to at least one of the coils (33, 35, 37) so as to form an electric circuit having a resonance frequency according to the inductance(s) of the coil(s) (33, 35, 37) and to the capacitance(s) of the capacitor(s), characterized in that - the at least one capacitor being arranged on a side opposite to the receiving side, in a protruding portion of the case (2, 3). - the receiving device comprises at least one coil (33, 35, 37) of an electric line, wherein the magnetic field induces an electric voltage in the coil (33, 35, 37) during operation and wherein the coil (33, 35, 37) comprises an inductance, - the receiving device and the coil (33, 35, 37) are adapted to receive the magnetic field from a receiving side, - the receiving device comprises a case (2, 3) enclosing the at least one coil (33, 35, 37) and further components of the receiving device, - the receiving device comprises at least one capacitor having a capacitance, which capacitor is electrically connected to the coil or to at least one of the coils (33, 35, 37) so as to form an electric circuit having a resonance frequency according to the inductance(s) of the coil(s) (33, 35, 37) and to the capacitance(s) of the capacitor(s), - the at least one capacitor being arranged on a side opposite to the receiving side, in a protruding portion of the case (2, 3).
Method of clustering cache servers within a Mobile Edge Computing network, hereinafter referred to as MEC network, each cell of the network being provided with local computation resources and with a cache server hosting a cache, user equipments being able to send requests for offloading computational tasks to the cells serving them, said tasks belonging to a catalogue of possible tasks, the caches containing computation results of said tasks, said method comprising: (a) initializing a cluster of cache servers by selecting an initial cache server ( η), (b) computing, for each candidate cache server neighboring said initial cache server and not already belonging to said cluster, a metric value between said cluster and said candidate cache server, said metric value being a sum of gains computed over the catalogue of possible tasks, a gain associated with a task being taken into account in the sum if the computation result of said task is present in the cache hosted by the candidate cache server but not present in any of the caches hosted by the cache servers belonging to said cluster; (c) selecting the cache server of said set of cache servers achieving the highest metric value of the metric values computed at step (b); (d) updating said cluster by including therein the cache server selected at step (c); wherein steps (b), (c) and (d) are repeated until a stopping criterion is met. (a) initializing a cluster of cache servers by selecting an initial cache server ( η), (b) computing, for each candidate cache server neighboring said initial cache server and not already belonging to said cluster, a metric value between said cluster and said candidate cache server, said metric value being a sum of gains computed over the catalogue of possible tasks, a gain associated with a task being taken into account in the sum if the computation result of said task is present in the cache hosted by the candidate cache server but not present in any of the caches hosted by the cache servers belonging to said cluster; (c) selecting the cache server of said set of cache servers achieving the highest metric value of the metric values computed at step (b); (d) updating said cluster by including therein the cache server selected at step (c);
A device for substantially sealing a wound that extends through tissue to an opening in a body lumen comprising: a restraining member comprising a knit, woven or braided first bioabsorbable material and defining an interior space therein; a sealing member comprising a highly expandable second bioabsorbable material at least partially located within the interior space of said restraining member; and a delivery tube, wherein the restraining member and the sealing member are releasable in an unexpanded state from an open distal end of the delivery tube and wherein the sealing member will expand upon exposure to blood flow. a restraining member comprising a knit, woven or braided first bioabsorbable material and defining an interior space therein; a sealing member comprising a highly expandable second bioabsorbable material at least partially located within the interior space of said restraining member; and a delivery tube, wherein the restraining member and the sealing member are releasable in an unexpanded state from an open distal end of the delivery tube and wherein the sealing member will expand upon exposure to blood flow.
An apparatus comprising a block-based processor, wherein instructions organized as instruction blocks are fetched, executed, and committed atomically, and wherein an instruction block comprises a block header and one or more instructions, the block based processor comprising: one or more processing cores configured to fetch and execute instruction blocks; and a control unit (160,205) configured to, based on receiving a branch signal including the memory address of a target location, wherein the branch signal is generated by executing a branch instruction by one of the processing cores, characterized in that the control unit is configured to: verify that the target location is a valid branch target by verifying that an instruction block header is stored at the target location, by checking that one or more bits stored at the target location match an architectural specification for the block-based processor; and when the verifying indicates that an instruction header is not stored at the target location, the control unit is configured to initiate branch instruction exception processing. one or more processing cores configured to fetch and execute instruction blocks; and a control unit (160,205) configured to, based on receiving a branch signal including the memory address of a target location, wherein the branch signal is generated by executing a branch instruction by one of the processing cores, characterized in that the control unit is configured to: verify that the target location is a valid branch target by verifying that an instruction block header is stored at the target location, by checking that one or more bits stored at the target location match an architectural specification for the block-based processor; and when the verifying indicates that an instruction header is not stored at the target location, the control unit is configured to initiate branch instruction exception processing. verify that the target location is a valid branch target by verifying that an instruction block header is stored at the target location, by checking that one or more bits stored at the target location match an architectural specification for the block-based processor; and when the verifying indicates that an instruction header is not stored at the target location, the control unit is configured to initiate branch instruction exception processing.
A filter unit, comprising two stacked cavities, wherein each cavity comprises: a dielectric substrate (10, 50), a first metal covering layer (20, 60) and a second metal covering layer (30, 70) that are disposed on two opposite surfaces of the dielectric substrate (10, 50), a row of first plated through-holes (40, 80), a row of second plated through-holes (41, 81), and a row of third plated through-holes (42, 82) that are provided on the dielectric substrate (20, 50), and a coupling slot (31, 71) provided on the first metal covering layer (20, 60), wherein the first metal covering layer (20, 60) is in a shape of a right triangle; wherein the row of first plated through-holes (40, 80) is parallel to a hypotenuse of the first metal covering layer (20, 60), and the first plated through-holes (40, 80) run through the first metal covering layer (20, 60) and the second metal covering layer (30, 70); the filter unit further comprising metal sheets (33, 74) disposed on the second metal covering layer (30, 70), wherein the row of second plated through-holes (41, 81) is located outside the first metal covering layer (20, 60) such as not to run through the first metal covering layer (20, 60), the row of second plated through-holes (41, 81) is parallel to a cathetus of the first metal covering layer (20, 60), the row of second plated through-holes (41, 81) runs through the second metal covering layer (30, 70), each of the row of second plated through-holes (41, 81) is connected to one of said metal sheets (33, 74), there is a gap between neighboring metal sheets (33, 74), and wherein the row of second plated through-holes (41, 81) and the metal sheets (33, 74) form a magnetic wall structure; the row of third plated through-holes (42, 82) is located outside the first metal covering layer (20, 60) such as not to run through the first metal covering layer (20, 60), and the row of third plated through-holes (42, 82) is parallel to the other cathetus of the first metal covering layer (20, 60), the row of third plated through-holes (42, 82) runs through the second metal covering layer (30, 70), and the row of third plated through-holes (42, 82) forms an electric wall structure; the coupling slot (31, 71) is parallel to the row of first plated through-holes (40, 80), and one end of the coupling slot (31, 71) facing the magnetic wall structure runs through the first metal covering layer (20, 60), and one end of the coupling slot (31, 71) facing the electric wall structure is a closed end; and coupling slots (31, 71) between the two cavities are provided face to face, and the two cavities are coupled by using two coupling slots (31, 71).