mhurhangee/ep-ind-claims huggingface dataset:
An implant configured for deployment between a femur and a tibia of a knee joint, the implant comprising a first surface that is configured to engage a medial condyle and a lateral condyle of the femur of the knee joint, a second surface that is configured to engage the tibia of the knee joint, a first appendage configured to couple the first surface to a first condyle of the femur of the knee joint, a second appendage configured to couple the first surface to a second condyle of the femur of the knee joint, and a slot between the first appendage and the second appendage, wherein the first appendage and the second appendage cushion the femur and tibia, characterized by the first surface, second surface, first appendage and second appendage together consisting of a single polymer sheet having essentially no separation between the first surface and the second surface. a first surface that is configured to engage a medial condyle and a lateral condyle of the femur of the knee joint, a second surface that is configured to engage the tibia of the knee joint, a first appendage configured to couple the first surface to a first condyle of the femur of the knee joint, a second appendage configured to couple the first surface to a second condyle of the femur of the knee joint, and a slot between the first appendage and the second appendage, wherein the first appendage and the second appendage cushion the femur and tibia,
A motor comprising a brake pull mechanism, a table whereon the brake pull mechanism is placed, a brake mechanism which is fixed onto the table so as to surround the brake pull mechanism placed onto the table, a mounting member which is positioned on the table so as to surround the brake mechanism and the brake pull mechanism from outside, which enables the brake mechanism and the brake pull mechanism to be guided to each other and which comprises a slit allowing the passage of the power cables of the brake mechanism characterized by the table comprising a circular base and a plurality of circular steps on the table, each having a smaller diameter than that of the one below.
A method for monitoring energy consumption in an electric vehicle EV charging network, wherein the EV charging network comprises multiple EV charging stations (102, 104, 106, 108) each equipped with an energy meter, characterized in that the method comprises: a) receiving a new message from at least one of the EV charging stations (102, 104, 106, 108), the new message comprising a timestamp, a station identifier, a charging session ID unique for each charging session, and an energy meter reading; b) storing the new message in a database comprising old messages from the EV charging stations (102, 104, 106, 108); c) checking whether the database comprises an older message comprising the same station ID and charging session ID as the new message; d) if the older message is present in the database, calculating a time difference and an energy difference between the new message and the older message; e) selecting a time granularity level based on the calculated time difference; f) obtaining an energy consumption distribution between the timestamps of the new message and the older message based on the time granularity level and the energy difference; and g) providing the energy consumption distribution to a station operator. a) receiving a new message from at least one of the EV charging stations (102, 104, 106, 108), the new message comprising a timestamp, a station identifier, a charging session ID unique for each charging session, and an energy meter reading; b) storing the new message in a database comprising old messages from the EV charging stations (102, 104, 106, 108); c) checking whether the database comprises an older message comprising the same station ID and charging session ID as the new message; d) if the older message is present in the database, calculating a time difference and an energy difference between the new message and the older message; e) selecting a time granularity level based on the calculated time difference; f) obtaining an energy consumption distribution between the timestamps of the new message and the older message based on the time granularity level and the energy difference; and g) providing the energy consumption distribution to a station operator.
An electronic device that is capable of receiving data according to a first communication scheme and a second communication scheme, the first communication scheme conforming to at least one of IEEE802.11n and IEEE802.11a, the second communication scheme conforming to next generation standard after IEEE802.11n, the electronic device comprising circuitry configured to: receive a packet including a first SIG field, a second SIG field, a third SIG field, and a fourth SIG field, wherein the third SIG field and the fourth SIG field conform to the second communication scheme, wherein the first SIG field is a legacy signaling field, the second SIG field is a High Throughput field, the third SIG field is a first Very High Throughput VHT, field and the fourth SIG field is a second VHT field; determine the signal arrangement of signal points of the third SIG field and the fourth SIG field in a signal space; and determine whether the packet conforms to the second communication scheme based on the determined signal arrangement, wherein the packet is determined to conform to the second communication scheme if the determined signal arrangement of the fourth SIG field is the 90-degree rotation of the determined signal arrangement of the third SIG field; wherein the third SIG field and the fourth SIG field are located between the second SIG field and a field of data in the packet. receive a packet including a first SIG field, a second SIG field, a third SIG field, and a fourth SIG field, wherein the third SIG field and the fourth SIG field conform to the second communication scheme, wherein the first SIG field is a legacy signaling field, the second SIG field is a High Throughput field, the third SIG field is a first Very High Throughput VHT, field and the fourth SIG field is a second VHT field; determine the signal arrangement of signal points of the third SIG field and the fourth SIG field in a signal space; and determine whether the packet conforms to the second communication scheme based on the determined signal arrangement, wherein the packet is determined to conform to the second communication scheme if the determined signal arrangement of the fourth SIG field is the 90-degree rotation of the determined signal arrangement of the third SIG field; wherein the third SIG field and the fourth SIG field are located between the second SIG field and a field of data in the packet.
Antenna arrangement having: - an electrant, which is arranged on a roof of a vehicle body of a rail vehicle, wherein on the side the electrant has at least one cut-out, which receives an interface, by means of which electric lines in the interior of the vehicle body are connected to electric lines on the roof of the vehicle body, characterised in that at the top the electrant has an antenna radiation baffle, upon which an antenna is arranged and is fixedly connected hereto, and wherein an antenna line for establishing an electrical connection is guided out of the interior of the vehicle body vertically through an inner region of the electrant and the antenna radiation baffle to the antenna. - an electrant, which is arranged on a roof of a vehicle body of a rail vehicle, wherein on the side the electrant has at least one cut-out, which receives an interface, by means of which electric lines in the interior of the vehicle body are connected to electric lines on the roof of the vehicle body,
A method of encoding video data comprising: performing a first prediction process for a first block of video data to produce a first residual; determining that a first transform process of a plurality of transform processes is to be applied to the first residual; applying the first transform process to the first residual to generate first transform coefficients for the first block of video data; encoding the first transform coefficients; performing a second prediction process for a second block of video data to produce a second residual; determining that a second transform process is to be applied to the second residual, wherein the second transform process comprises the first transform process and at least one of a first pre-adjustment operation or a first post-adjustment operation to apply to the second residual in addition to the first transform process, wherein the at least one of the first pre-adjustment operation or the first post-adjustment operation comprises a set of one or more Givens rotations; applying the first transform process and at least one of the first pre-adjustment operation or the first post-adjustment operation to the second residual to generate second transform coefficients for the second block of video data, wherein the first pre-adjustment operation, if applied, is applied prior to applying the first transform process, and wherein the first post-adjustment operation, if applied, is applied after applying the first transform process; and encoding the second transform coefficients. performing a first prediction process for a first block of video data to produce a first residual; determining that a first transform process of a plurality of transform processes is to be applied to the first residual; applying the first transform process to the first residual to generate first transform coefficients for the first block of video data; encoding the first transform coefficients; performing a second prediction process for a second block of video data to produce a second residual; determining that a second transform process is to be applied to the second residual, wherein the second transform process comprises the first transform process and at least one of a first pre-adjustment operation or a first post-adjustment operation to apply to the second residual in addition to the first transform process, wherein the at least one of the first pre-adjustment operation or the first post-adjustment operation comprises a set of one or more Givens rotations; applying the first transform process and at least one of the first pre-adjustment operation or the first post-adjustment operation to the second residual to generate second transform coefficients for the second block of video data, wherein the first pre-adjustment operation, if applied, is applied prior to applying the first transform process, and wherein the first post-adjustment operation, if applied, is applied after applying the first transform process; and encoding the second transform coefficients.
Device for the evaluation of signals originated by an OSSD output switching element ("OSSD", Output Signal Switching Device; 100) via a cabling, comprising: - a first circuit arrangement (220, 220'), the circuit input of which is to be connected to the output of the OSSD output switching element, wherein the first circuit arrangement (220, 220') has a first filter device for the signals, which is designed to detect static signal components and to filter out dynamic signal components, and - a second circuit arrangement (210, 210'), the circuit input of which is to be connected in parallel with the first circuit arrangement (220, 220') equally to the output of the OSSD output switching element, wherein the second circuit arrangement (210, 210') has a second filter device for the signals, which is designed to detect dynamic signal components and filter out static signal components, and - a logic device (230, 230', 213), wherein the circuit output of the first circuit arrangement and the circuit output of the second circuit arrangement are connected to the logic device, which is designed to evaluate the static signal components detected by the first circuit arrangement and the dynamic signal components detected by the second circuit arrangement for a diagnosis of the cabling, wherein the first circuit arrangement (220, 220') is part of an input device (200, 200') and the second circuit arrangement (210, 210') is part of a second device connected in parallel with the input device (200, 200') and has a capacitor for filtering out the static signal components and an optocoupler for the transmission of dynamic signal components in the direction of the logic device. - a first circuit arrangement (220, 220'), the circuit input of which is to be connected to the output of the OSSD output switching element, wherein the first circuit arrangement (220, 220') has a first filter device for the signals, which is designed to detect static signal components and to filter out dynamic signal components, and - a second circuit arrangement (210, 210'), the circuit input of which is to be connected in parallel with the first circuit arrangement (220, 220') equally to the output of the OSSD output switching element, wherein the second circuit arrangement (210, 210') has a second filter device for the signals, which is designed to detect dynamic signal components and filter out static signal components, and - a logic device (230, 230', 213), wherein the circuit output of the first circuit arrangement and the circuit output of the second circuit arrangement are connected to the logic device, which is designed to evaluate the static signal components detected by the first circuit arrangement and the dynamic signal components detected by the second circuit arrangement for a diagnosis of the cabling,
An adjusting method of an extrusion rate in which a perforated plate is superimposed on and attached to a forming die for use in extrusion of a honeycomb formed body, to achieve a uniformity of an extrusion rate of a forming material which passes through the forming die at a die surface, the perforated plate comprising a plurality of through hole portions bored at positions of a perforated plate surface which face back holes opened at a die back surface, to introduce the forming material into the forming die, the through hole portions being formed so that a hole diameter of the through hole portion decreases from a circumferential portion of the perforated plate toward a central portion thereof gradually or stepwisely, the adjusting method comprising: a perforated plate group preparation step preparing a plurality of perforated plates which are different in degree of diameter decrease of the hole diameter of the through hole portion, characterised in that the adjusting method further comprises: a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die, and forming a trial honeycomb formed body; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter in the perforated plate. a perforated plate group preparation step preparing a plurality of perforated plates which are different in degree of diameter decrease of the hole diameter of the through hole portion, characterised in that the adjusting method further comprises: a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die, and forming a trial honeycomb formed body; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter in the perforated plate. a trial extrusion step of using the forming die to which the perforated plate is not attached, extruding the forming material from the forming die, and forming a trial honeycomb formed body; a shape measuring step of measuring a shape of a formed body end face of the trial honeycomb formed body; and a perforated plate selecting step of selecting one perforated plate to be attached to the forming die from the perforated plate group on the basis of a matching relation between the measured shape of the formed body end face and the degree of the diameter decrease of the hole diameter in the perforated plate.
A method of decoding video data, the method comprising: decoding a syntax element poc_lsb_lt for a first long-term reference picture, LTRP, of the video data, wherein the syntax element specifies the value of the least significant bits, LSBs, of the picture order count, POC, value of the first LTRP; decoding a first value representative of a difference between a base most significant bits, MSBs, value of a POC value of a current picture of video data and a first MSBs value of a first POC value of the first LTRP of the video data; decoding a syntax element poc_lsb_lt for a second LTRP, wherein the syntax element specifies the value of the LSBs of the POC value of the second LTRP; decoding a second value representative of a difference between a second MSBs value of a second POC value of the second LTRP of the video data and the first MSBs value, wherein the first POC value and the second POC value have different least significant bits, LSBs, values, wherein the LTRPs are signaled in increasing order of their MSB cycle values relative to the current picture; and decoding at least a first portion of the current picture of the video data relative to the first long-term reference picture using the first value and decoding at least a second portion of the current picture relating to the second long-term reference picture using the first value and the second value. decoding a syntax element poc_lsb_lt for a first long-term reference picture, LTRP, of the video data, wherein the syntax element specifies the value of the least significant bits, LSBs, of the picture order count, POC, value of the first LTRP; decoding a first value representative of a difference between a base most significant bits, MSBs, value of a POC value of a current picture of video data and a first MSBs value of a first POC value of the first LTRP of the video data; decoding a syntax element poc_lsb_lt for a second LTRP, wherein the syntax element specifies the value of the LSBs of the POC value of the second LTRP; decoding a second value representative of a difference between a second MSBs value of a second POC value of the second LTRP of the video data and the first MSBs value, wherein the first POC value and the second POC value have different least significant bits, LSBs, values, wherein the LTRPs are signaled in increasing order of their MSB cycle values relative to the current picture; and decoding at least a first portion of the current picture of the video data relative to the first long-term reference picture using the first value and decoding at least a second portion of the current picture relating to the second long-term reference picture using the first value and the second value.
A memory fabrication method, comprising: forming a plurality of gate electrode lines (PL1;...; PL2m) to respectively form a plurality of gates (G1; G2) of a plurality of data storage cells, wherein the plurality of data storage cells are arranged in an array; and forming a plurality of conductive lines (M0, M5), wherein each of the plurality of conductive lines (M0, M5) is coupled to two adjacent ones of the plurality of gate electrode lines (PL1;...; PL2m), and each of the plurality of conductive lines (M0, M5) at least partially overlaps the two gate electrode lines (PL1;...; PL2m) of the plurality of gate electrode lines (PL1;...; PL2m), wherein the plurality of conductive lines (M0, M5) comprises a plurality of first conductive lines and a plurality of second conductive lines, the plurality of first conductive lines is perpendicular to the plurality of second conductive lines and one of the plurality of first conductive lines overlapping one of the plurality of second conductive lines is staggered and non-aligned with another of the plurality of first conductive lines overlapping another of the plurality of second conductive lines. forming a plurality of gate electrode lines (PL1;...; PL2m) to respectively form a plurality of gates (G1; G2) of a plurality of data storage cells, wherein the plurality of data storage cells are arranged in an array; and forming a plurality of conductive lines (M0, M5), wherein each of the plurality of conductive lines (M0, M5) is coupled to two adjacent ones of the plurality of gate electrode lines (PL1;...; PL2m), and each of the plurality of conductive lines (M0, M5) at least partially overlaps the two gate electrode lines (PL1;...; PL2m) of the plurality of gate electrode lines (PL1;...; PL2m), wherein the plurality of conductive lines (M0, M5) comprises a plurality of first conductive lines and a plurality of second conductive lines, the plurality of first conductive lines is perpendicular to the plurality of second conductive lines and one of the plurality of first conductive lines overlapping one of the plurality of second conductive lines is staggered and non-aligned with another of the plurality of first conductive lines overlapping another of the plurality of second conductive lines.
Equipment for transferring continuously cast slabs from parallel continuous casting strands arranged at the same spacing from one another to a single production line arranged in prolongation of one of the continuous casting strands, characterised by a ferry which is transversely movable in steps between the ends of the continuous casting strands and the start of the production line and which has three resting places, wherein the two outer resting places have the spacing of the continuous casting strands from one another and the third resting place lies therebetween, the ferry being transversely movable in each instance by half the spacing of the continuous casting strands.
A data carrier, especially a value or security document, having a substrate that comprises at least one paper layer, there being embedded in the substrate a window security thread that is visible, in certain window regions, at at least one surface of the substrate, the window regions comprising, produced with papermaking technology, microwindows that comprise, produced at paper manufacture, an edge having characteristic irregularities, characterized in that the width of the windows produced with papermaking technology, transverse to the thread direction, is less than 50% of the thread width and is between 0.2 mm and 4 mm, and the contours of the windows produced with papermaking technology constitute characters or a code, especially a letter or number string.