mhurhangee/patent-ind-claim-en huggingface dataset:
Data-processing device , having at least one computing unit and at least one interface unit using a packet-based communication protocol, in particular PCI Express, wherein the data processing device designed as a one-chip-system has an attack detection unit particularly realised as hardware, which via at least one signal connection , in particular a hardware signal connection , is connected with a filtering means of the interface unit and/or a security unit , realised as a trusted execution environment, of an authentication arrangement related to the communication protocol and evaluates input signals received via the at least one signal connection in regard to a breach of rules, to be recorded and/or to be responded to with at least one measure, of an attack detection set of rules , wherein the filtering means formed at least partially as hardware is configured according to a data processing device side predetermined configuration information containing at least one admission condition, which evaluates at least one property of the useful data contained in communication data received by the interface unit , to forward only the communication data from the interface unit fulfilling the at least one admission condition to at least one further component of the data processing device , wherein at least one attack detection rule is related to the breach of at least one admission condition and/or to an authentication error.
An optical fiber cable comprising: (a) at least one optical fiber buffer encasement, the encasement comprising: i. at least two 50 micron multimode optical fibers encased in a polymer matrix , the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement , with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix , the acrylate polymer encasement and the polymer matrix having a round cross section, (b) a yarn wrap strength layer surrounding optical fiber buffer encasements , (c) a cable jacket surrounding the yarn wrap strength layer , the cable jacket consisting essentially of polymer material having: i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, (d) sufficient flame retardant to meet one or more industry fire protection standards. (a) at least one optical fiber buffer encasement, the encasement comprising: i. at least two 50 micron multimode optical fibers encased in a polymer matrix , the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement , with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix , the acrylate polymer encasement and the polymer matrix having a round cross section, i. at least two 50 micron multimode optical fibers encased in a polymer matrix , the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement , with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix , the acrylate polymer encasement and the polymer matrix having a round cross section, (b) a yarn wrap strength layer surrounding optical fiber buffer encasements , (c) a cable jacket surrounding the yarn wrap strength layer , the cable jacket consisting essentially of polymer material having: i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, (d) sufficient flame retardant to meet one or more industry fire protection standards.
A method of forming a multilayer structure comprising: shredding a polyolefin foam, agglomerating the shredded foam, and granulating the agglomerated foam to form a recycled, crosslinked polyolefin foam material; and coextruding: a first layer comprising: polypropylene, polyethylene, or a combination of polypropylene and polyethylene; a first chemical foaming agent; and a second layer on a side of the first layer, the second layer comprising: 2.5-25 wt.% the recycled, crosslinked polyolefin foam material; 75-97.5 wt.% polypropylene, polyethylene, or a combination of polypropylene and polyethylene; and a second chemical foaming agent. shredding a polyolefin foam, agglomerating the shredded foam, and granulating the agglomerated foam to form a recycled, crosslinked polyolefin foam material; and coextruding: a first layer comprising: polypropylene, polyethylene, or a combination of polypropylene and polyethylene; a first chemical foaming agent; and a second layer on a side of the first layer, the second layer comprising: 2.5-25 wt.% the recycled, crosslinked polyolefin foam material; 75-97.5 wt.% polypropylene, polyethylene, or a combination of polypropylene and polyethylene; and a second chemical foaming agent. a first layer comprising: polypropylene, polyethylene, or a combination of polypropylene and polyethylene; a first chemical foaming agent; and polypropylene, polyethylene, or a combination of polypropylene and polyethylene; a first chemical foaming agent; and a second layer on a side of the first layer, the second layer comprising: 2.5-25 wt.% the recycled, crosslinked polyolefin foam material; 75-97.5 wt.% polypropylene, polyethylene, or a combination of polypropylene and polyethylene; and a second chemical foaming agent. 2.5-25 wt.% the recycled, crosslinked polyolefin foam material; 75-97.5 wt.% polypropylene, polyethylene, or a combination of polypropylene and polyethylene; and a second chemical foaming agent.
A soft tissue cutting device , comprising: (a) a shaft having a top surface , two side surfaces and a bottom surface , the shaft housing a blade and a blade elevator balloon ; (b) a shaft opening that extends for a distance along the top surface of the shaft ; (c) the blade having a cutting edge ; (d) the blade elevator balloon coupled to the blade , wherein the blade elevator balloon inflates to extend the cutting edge through the shaft opening and deflates to retract the cutting edge through the shaft opening , and wherein the blade elevator balloon is configured to receive gas or fluid for inflating the blade elevator balloon so as to extend the cutting edge through the shaft opening ; and (e) one or more balloons coupled to the shaft that are configured to expand radially outwardly from the shaft . (a) a shaft having a top surface , two side surfaces and a bottom surface , the shaft housing a blade and a blade elevator balloon ; (b) a shaft opening that extends for a distance along the top surface of the shaft ; (c) the blade having a cutting edge ; (d) the blade elevator balloon coupled to the blade , wherein the blade elevator balloon inflates to extend the cutting edge through the shaft opening and deflates to retract the cutting edge through the shaft opening , and wherein the blade elevator balloon is configured to receive gas or fluid for inflating the blade elevator balloon so as to extend the cutting edge through the shaft opening ; and (e) one or more balloons coupled to the shaft that are configured to expand radially outwardly from the shaft .
A titanium-based alloy composition consisting in weight percent, of: 4.0 to 8.0% aluminium, 3.0 to 9.0% tin, 0.0 to 3.5% zirconium, 0.0 to 2.0% niobium, 0.0 to 2.0% vanadium, 0.0 to 0.5% iron, 0.0 to 1.75% chromium, 0.0 to 2.0% molybdenum, 0.0 to 2.0% tungsten, 0.0 to 0.5% nickel, 0.0 to 1.0% tantalum, 0.0 to 0.5% cobalt, 0.0 to 0.75% silicon, 0.0 to 0.5% boron, 0.0 to 0.5% carbon, 0.0 to 0.5% oxygen, 0.0 to 0.5% hydrogen, 0.0 to 0.5% nitrogen, 0.0 to 0.5% palladium, 0.0 to 0.5% lanthanum, 0.0 to 0.5% manganese, 0.0 to 0.5 hafnium, the balance being titanium and incidental impurities which satisfies the following relationships: 0.107 Al + 0.075 V + 0.4 Fe + 0.112 Cr + 0.025 Zr + 0.05 Mo + 0.5 W + 0.082 Nb + Ta + 0.027 Sn > 1.0 and 0.076 Al + 0.0153 V − 1.53 Fe − 0.23 Cr + 0.025 Zr + 0.05 Mo + 0.028 Nb + 0.0538 Sn > 0.85 where Al, W, V, Fe, Cr, Zr, Mo, Nb, Ta and Sn represent the amounts of aluminium, tungsten, vanadium, iron, chromium, zirconium, molybdenum, niobium, tantalum and tin in wt.% respectively.
A mobile terminal comprising: a first frame ; a second frame movable with respect to the first frame in a first direction or a second direction opposite to the first direction; a slide frame movable with respect to the second frame in the first direction or the second direction; a flexible display comprising a first region coupled to the first frame , a second region coupled to the slide frame , and a third region disposed between the first region and the second region , wherein the third region is curved; and a first magnet positioned on a rear side of the second frame and configured to provide magnetic force to pull the slide frame or the flexible display while the slide frame is located at the rear side of the second frame and moves in the first direction or the second direction at the rear side of the second frame . a first frame ; a second frame movable with respect to the first frame in a first direction or a second direction opposite to the first direction; a slide frame movable with respect to the second frame in the first direction or the second direction; a flexible display comprising a first region coupled to the first frame , a second region coupled to the slide frame , and a third region disposed between the first region and the second region , wherein the third region is curved; and a first magnet positioned on a rear side of the second frame and configured to provide magnetic force to pull the slide frame or the flexible display while the slide frame is located at the rear side of the second frame and moves in the first direction or the second direction at the rear side of the second frame .
Method for predicting a motion vector of at least one partition (P1; MB N ) of a block of a current image with respect to a motion vector of at least one reference partition (Pr'1; MBr N-1 ) of a reference block corresponding to the current block, in a reference image which is different from the current image and which is partitioned into a plurality of n reference blocks (r'1, r'2, ..., r'n), said motion vector of said at least one partition of the block of the current image pointing, in the reference image, to said at least one reference partition which has the same shape as said at least one partition of the block of the current image, said method being characterized in that, in the case in which said at least one reference partition overlaps a set of k reference blocks from among said plurality of n reference blocks (r'1, r'2,...,r'n) of the reference image, with k≤n, said motion vector of said at least one partition of the block of the current image is determined on the basis of at least one reference motion vector belonging to a set of k reference motion vectors (MVr'1, MVr' 2, ..., MVr' k) associated respectively with the k overlapped reference blocks, the determination of the motion vector of said at least one partition of the block of the current image comprising the steps of: - selecting a particular point of the reference partition, said particular point being the centre of said reference partition, - selecting the reference motion vector associated with the overlapped reference block which contains the centre of said reference partition, the centre of said reference partition being calculated as the point which minimizes the sum of the distances with respect to all the points of said reference partition. said method being characterized in that, in the case in which said at least one reference partition overlaps a set of k reference blocks from among said plurality of n reference blocks (r'1, r'2,...,r'n) of the reference image, with k≤n, said motion vector of said at least one partition of the block of the current image is determined on the basis of at least one reference motion vector belonging to a set of k reference motion vectors (MVr'1, MVr' 2, ..., MVr' k) associated respectively with the k overlapped reference blocks, the determination of the motion vector of said at least one partition of the block of the current image comprising the steps of: - selecting a particular point of the reference partition, said particular point being the centre of said reference partition, - selecting the reference motion vector associated with the overlapped reference block which contains the centre of said reference partition, - selecting a particular point of the reference partition, said particular point being the centre of said reference partition, - selecting the reference motion vector associated with the overlapped reference block which contains the centre of said reference partition, the centre of said reference partition being calculated as the point which minimizes the sum of the distances with respect to all the points of said reference partition.
A method for wireless communications by a base station, BS, comprising: generating a primary synchronization signal, PSS, utilizing a binary code cover and at least one sequence applied to a number of symbols within one or more subframes of a frame, wherein the binary code cover comprises a length = 11 symbol sequence of [1 11 1 -1 -1 1 1 1 -1 1]; and transmitting the PSS and a secondary synchronization signal, SSS, to a first type of user equipment, UE, that communicates on one or more narrowband regions of a wider system bandwidth. generating a primary synchronization signal, PSS, utilizing a binary code cover and at least one sequence applied to a number of symbols within one or more subframes of a frame, wherein the binary code cover comprises a length = 11 symbol sequence of [1 11 1 -1 -1 1 1 1 -1 1]; and transmitting the PSS and a secondary synchronization signal, SSS, to a first type of user equipment, UE, that communicates on one or more narrowband regions of a wider system bandwidth.
A method for controlling a tool, characterized by the following method steps: - Providing a reference matrix of reference points, wherein the reference matrix is disposed as a regular pattern of reference points at precisely defined spacing in lines and columns disposed perpendicular to each other, and a centering matrix of centering points in a material processing plane, wherein the centering matrix is defined as a marking disposed at precisely defined spacing from two sides disposed perpendicular to each other on a stable support, and the centering points are applied for establishing the relationship of the tool to a camera, - imaging the material processing plane by means of a camera as a camera image the size of the camera image field , - equalizing the camera image of the material processing plane by comparing with the reference matrix , - scaling the pixel size of the camera image by comparing with the reference matrix , - centering the camera image by comparing with the centering points , - projecting a processing contour onto the equalized and scaled camera image of a workpiece , and - aligning the processing contour to the camera image of the workpiece and starting processing, wherein the processing of the workpiece by the tool occurs along the processing contour , wherein the tool is implemented as a laser processing head and the camera implements a separate beam path from the laser optics of the laser processing head . - Providing a reference matrix of reference points, wherein the reference matrix is disposed as a regular pattern of reference points at precisely defined spacing in lines and columns disposed perpendicular to each other, and a centering matrix of centering points in a material processing plane, wherein the centering matrix is defined as a marking disposed at precisely defined spacing from two sides disposed perpendicular to each other on a stable support, and the centering points are applied for establishing the relationship of the tool to a camera, - imaging the material processing plane by means of a camera as a camera image the size of the camera image field , - equalizing the camera image of the material processing plane by comparing with the reference matrix , - scaling the pixel size of the camera image by comparing with the reference matrix , - centering the camera image by comparing with the centering points , - projecting a processing contour onto the equalized and scaled camera image of a workpiece , and - aligning the processing contour to the camera image of the workpiece and starting processing, wherein the processing of the workpiece by the tool occurs along the processing contour ,
A vascular prosthesis delivery device comprising: an inner tube accommodating a guidewire ; a prosthesis having a length; a pusher element movable over the inner tube , the pusher element having recesses accommodating a proximal portion of a prosthesis ; characterized by a tip member movable over the inner tube, the tip member having recesses accommodating a distal portion of the prosthesis; and a sheath disposed over the inner tube and the pusher element ; wherein a stopper is fixed to the inner tube to limit displacement of the tip member ; wherein movement of the pusher element is configured to move the tip member from a first position abutting the sheath to a second position distal of and spaced apart from the sheath so as to create a gap between the sheath and the tip member ; said gap being smaller than the length of the prosthesis and configured to allow the prosthesis to be advanced out of the gap . an inner tube accommodating a guidewire ; a prosthesis having a length; a pusher element movable over the inner tube , the pusher element having recesses accommodating a proximal portion of a prosthesis ; characterized by a tip member movable over the inner tube, the tip member having recesses accommodating a distal portion of the prosthesis; and a sheath disposed over the inner tube and the pusher element ; wherein a stopper is fixed to the inner tube to limit displacement of the tip member ; wherein movement of the pusher element is configured to move the tip member from a first position abutting the sheath to a second position distal of and spaced apart from the sheath so as to create a gap between the sheath and the tip member ; said gap being smaller than the length of the prosthesis and configured to allow the prosthesis to be advanced out of the gap .
A computing device for customization of an audio system of a vehicle, the audio system including an amplifier and being coupled to the computing device, the amplifier including a communication interface, the computing device comprising: a display configured to present a user interface; a processor; and a storage device storing instructions executable by the processor; wherein the processor is configured to execute the instructions to: generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing (DSP) settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device. a display configured to present a user interface; a processor; and a storage device storing instructions executable by the processor; wherein the processor is configured to execute the instructions to: generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing (DSP) settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device. generate the user interface for presentation via the display; receive user input to the user interface requesting one or more adjustments to the audio system, the one or more requested adjustments including instructions to tune the amplifier of the vehicle by adjusting digital signal processing (DSP) settings of the amplifier; responsive to identifying an indication that one or more of the requested adjustments exceed a threshold for the amplifier, present a prompt for different adjustments; and transmit the one or more requested adjustments or the different adjustments to the communication interface of the amplifier of the vehicle, the adjusted DSP settings being stored in the amplifier and retrievable by the computing device.
An air-conditioning apparatus , comprising: an air temperature detection unit configured to detect air temperature in an air-conditioned space; an air volume adjustment unit configured to adjust a blowout air volume; an air direction adjustment unit configured to adjust a blowout air direction; a human body detection unit configured to detect human bodies and positions of the human bodies in the air-conditioned space; an estimation unit configured to estimate thermal sensation of persons detected by the human body detection unit; and a control unit configured to correct a value of the air temperature or set temperature based on the thermal sensation of all of the detected persons estimated by the estimation unit , and to control a refrigeration cycle by using the corrected value, characterized in that , the estimation unit is configured to calculate air speed of air blowing against each of all the detected persons from the positions, and the air direction and the air volume to each of the positions, and estimate the thermal sensation by using values of parameters including the calculated air speed. an air temperature detection unit configured to detect air temperature in an air-conditioned space; an air volume adjustment unit configured to adjust a blowout air volume; an air direction adjustment unit configured to adjust a blowout air direction; a human body detection unit configured to detect human bodies and positions of the human bodies in the air-conditioned space; an estimation unit configured to estimate thermal sensation of persons detected by the human body detection unit; and a control unit configured to correct a value of the air temperature or set temperature based on the thermal sensation of all of the detected persons estimated by the estimation unit , and to control a refrigeration cycle by using the corrected value, characterized in that , the estimation unit is configured to calculate air speed of air blowing against each of all the detected persons from the positions, and the air direction and the air volume to each of the positions, and estimate the thermal sensation by using values of parameters including the calculated air speed.