mhurhangee/ep-ind-claims huggingface dataset:
An attack defense method, comprising: monitoring a transmission control protocol, TCP, connection established between a client and a SSL server; counting (201, 301, 403) a number of renegotiations in the TCP connection, wherein the number of the renegotiations is a number of repeated negotiations between the client and the server in the TCP connection; when the number of the renegotiations in the TCP connection is greater than a preset threshold of the number of renegotiations, determining (202, 302, 405) that the TCP connection is an abnormal connection; and disconnecting (203, 303) the TCP connection; wherein the method further comprises: determining (300, 402) whether an IP address of the client in the TCP connection is in a set blacklist, wherein the blacklist comprises an IP address of a client which initiates an abnormal connection; when the IP address of the client is not in the blacklist, entering the step of counting (301, 403) the number of the renegotiations in the TCP connection; and when the IP address of the client is in the blacklist, disconnecting the TCP connection. monitoring a transmission control protocol, TCP, connection established between a client and a SSL server; counting (201, 301, 403) a number of renegotiations in the TCP connection, wherein the number of the renegotiations is a number of repeated negotiations between the client and the server in the TCP connection; when the number of the renegotiations in the TCP connection is greater than a preset threshold of the number of renegotiations, determining (202, 302, 405) that the TCP connection is an abnormal connection; and disconnecting (203, 303) the TCP connection; determining (300, 402) whether an IP address of the client in the TCP connection is in a set blacklist, wherein the blacklist comprises an IP address of a client which initiates an abnormal connection; when the IP address of the client is not in the blacklist, entering the step of counting (301, 403) the number of the renegotiations in the TCP connection; and when the IP address of the client is in the blacklist, disconnecting the TCP connection.
A seat comprising: a seat back, a walk-in lever that is configured to release the seat back so that the seat back is able to rotate around a transverse axis of the seat back, a slide mechanism having an upper rail and a lower rail (5, 6) which are configured to move the seat in the fore-aft direction when the upper rail is moved relative to the lower rail (5, 6), and a connection device between the seat back and the slide mechanism, wherein the connection device is configured to release the slide mechanism so that the seat is able to slide in a fore-aft direction, when the seat back has been rotated by a predetermined amount around the transverse axis, a lead screw nut, which is fixed to one of the upper rail and the lower rail (5, 6), and which is movable in the fore-aft direction relative to the other of the upper and the lower rail (5, 6), wherein the lead screw nut is configured to be locked in place by the lock lever, a lock lever which is configured to rotate between a locked position wherein the lock lever interlocks the lead screw nut, and an unlocked position wherein the lead screw nut is movable in the fore-aft direction relative to the other of the upper and the lower rail (5, 6), in response to a rotation of the seat back via the connection device, characterized in that the connection device is configured to rotate the lock lever between the locked position and the unlocked position around a longitudinal axis of a connection rod which is orthogonal to the upper rail and the lower rail (5, 6). a seat back, a walk-in lever that is configured to release the seat back so that the seat back is able to rotate around a transverse axis of the seat back, a slide mechanism having an upper rail and a lower rail (5, 6) which are configured to move the seat in the fore-aft direction when the upper rail is moved relative to the lower rail (5, 6), and a connection device between the seat back and the slide mechanism, wherein the connection device is configured to release the slide mechanism so that the seat is able to slide in a fore-aft direction, when the seat back has been rotated by a predetermined amount around the transverse axis, a lead screw nut, which is fixed to one of the upper rail and the lower rail (5, 6), and which is movable in the fore-aft direction relative to the other of the upper and the lower rail (5, 6), wherein the lead screw nut is configured to be locked in place by the lock lever, a lock lever which is configured to rotate between a locked position wherein the lock lever interlocks the lead screw nut, and an unlocked position wherein the lead screw nut is movable in the fore-aft direction relative to the other of the upper and the lower rail (5, 6), in response to a rotation of the seat back via the connection device, characterized in that the connection device is configured to rotate the lock lever between the locked position and the unlocked position around a longitudinal axis of a connection rod which is orthogonal to the upper rail and the lower rail (5, 6).
Independent suspension arrangement for vehicles, in particular for the transport of people and/or materials, comprising: - a hub defining a rotation axis of a vehicle wheel; - an electric motor, operatively connected to said hub and configured to put said hub in rotation, said electric motor extending along a development axis thereof, wherein said development axis of the electric motor is parallel to the rotation axis of the hub, characterized in that said electric motor extends towards said hub along said development axis from a starting point where the electric motor operatively connects to the hub, to a final point of the electric motor opposite the starting point, where said final point faces towards said hub. - a hub defining a rotation axis of a vehicle wheel; - an electric motor, operatively connected to said hub and configured to put said hub in rotation, said electric motor extending along a development axis thereof, wherein said development axis of the electric motor is parallel to the rotation axis of the hub, characterized in that said electric motor extends towards said hub along said development axis from a starting point where the electric motor operatively connects to the hub, to a final point of the electric motor opposite the starting point, where said final point faces towards said hub.
A method for notifying a terminal of an update on system information in a long term evolution system, to be performed by a network side to notify a terminal after the system information changes: after the system information changes, the network side notifying the terminal of the change of the system information within a system information modification period, characterized in that: the length of the system information modification period is an integer multiple of a discontinuous reception DRX period, and the DRX period is a period that the terminal receives a paging message in an idle state; the system information modification period is a system frame cycle period, and the system information modification period is 640ms, and a system frame number of the boundary of the system information modification period is exactly divisible by 64. the length of the system information modification period is an integer multiple of a discontinuous reception DRX period, and the DRX period is a period that the terminal receives a paging message in an idle state; the system information modification period is a system frame cycle period, and the system information modification period is 640ms, and a system frame number of the boundary of the system information modification period is exactly divisible by 64.
A method for igniting a plasma for material processing, the method comprising: providing (step 1010) a vessel (1110; 1510) defining an enclosed channel; providing (step 1020) a gas having a flow rate and a pressure outside of the channel; directing (step 1030) a portion of the flow rate of the gas into the channel; and igniting (step 1040) the gas in the channel, while directing a remaining portion of the flow rate away from the channel and into a bypass gas pipeline (1152; 1552) by means of a bypass valve (1171; 1571). providing (step 1010) a vessel (1110; 1510) defining an enclosed channel; providing (step 1020) a gas having a flow rate and a pressure outside of the channel; directing (step 1030) a portion of the flow rate of the gas into the channel; and igniting (step 1040) the gas in the channel, while directing a remaining portion of the flow rate away from the channel and into a bypass gas pipeline (1152; 1552) by means of a bypass valve (1171; 1571).
A method for obtaining a covalently functionalized graphene with an organic molecule comprising the following stages: a) bombarding the surface of a system formed by graphene and a non-metal substrate with a noble gas ion beam at a pressure between 1.10 -7 mbar and 1.10 -8 for a period of time between 30 s and 120 s, wherein the system is located in the interior of a chamber at an initial pressure below 1·10 -9 mbar, wherein the energy of the noble gas ions is between 100 eV and 140 eV, b) optionally, thermally treating the system obtained in stage (a) at a temperature between 450°C and 550°C for a period between 5 min and 10 min, and c) subjecting the graphene surface of stage (a) or of stage (b) to an exposure to organic molecules greater than 10 Langmuir, wherein the organic molecule is selected from p-aminophenol, aminothiophenol and aminobenzoic acid. a) bombarding the surface of a system formed by graphene and a non-metal substrate with a noble gas ion beam at a pressure between 1.10 -7 mbar and 1.10 -8 for a period of time between 30 s and 120 s, wherein the system is located in the interior of a chamber at an initial pressure below 1·10 -9 mbar, wherein the energy of the noble gas ions is between 100 eV and 140 eV, b) optionally, thermally treating the system obtained in stage (a) at a temperature between 450°C and 550°C for a period between 5 min and 10 min, and c) subjecting the graphene surface of stage (a) or of stage (b) to an exposure to organic molecules greater than 10 Langmuir, wherein the organic molecule is selected from p-aminophenol, aminothiophenol and aminobenzoic acid.
Conductor arrangement, which has a number of groupings, consisting of a plurality of stranded wires arranged in parallel, the stranded wires being formed by a plurality of conductor wires that are individually insulated from one another, characterized in that groups of groupings are mutually interwoven with one another to form braids and in that a plurality of braids are stranded together to form the conductor arrangement, the stranded braids forming in the finished conductor arrangement segments that extend into the centre of the cross-sectional area.
A compound represented by the following formula: wherein m is an integer of from 2 to 10, n is an integer of from 1 to 3, R 1 is, independently of each other, an alkyl group having 1 to 6 carbon atoms, R 2 is, independently of each other, an alkylene group having 1 to 6 carbon atoms or a fluoroalkylene group having 1 to 6 carbon atoms, R 3 is an alkyl group having 1 to 4 carbon atoms, R 6 is a substituted or unsubstituted monovalent hydrocarbon group which has no (meth) acryl group and has 1 to 20 carbon atoms, or an alkoxy group having 1 to 10 carbon atoms, and R 4, R 5, R 7 and R 8 are, independently of each other, a hydrogen atom or a methyl group.
A balloon catheter comprising: a high-pressure balloon component including, an inner balloon having proximal and distal neck segments (232, 236), tapered proximal and distal cone segments (234, 238) and a cylindrical body, the inner balloon defining an interior that is in fluid communication with a lumen of the catheter for receiving inflation fluid therefrom, and an outer balloon disposed about the inner balloon, the outer balloon having cylindrical proximal and distal neck segments (233, 237), tapered proximal and distal cone segments (235, 239) and a cylindrical body, the outer balloon defining an interior within which the inner balloon is disposed, wherein the outer balloon has a hole in a wall thereof for venting the interior of the outer balloon to ambient environment, wherein the proximal neck segments of the inner and outer balloons are bonded to an outer shaft component of the catheter, the distal neck segments of the inner and outer balloons are bonded to an inner shaft component of the catheter and the hole in the wall of the outer balloon is formed within a non-bonded area (A NB) of one of the proximal and distal neck segments of the outer balloon. a high-pressure balloon component including, an inner balloon having proximal and distal neck segments (232, 236), tapered proximal and distal cone segments (234, 238) and a cylindrical body, the inner balloon defining an interior that is in fluid communication with a lumen of the catheter for receiving inflation fluid therefrom, and an outer balloon disposed about the inner balloon, the outer balloon having cylindrical proximal and distal neck segments (233, 237), tapered proximal and distal cone segments (235, 239) and a cylindrical body, the outer balloon defining an interior within which the inner balloon is disposed, wherein the outer balloon has a hole in a wall thereof for venting the interior of the outer balloon to ambient environment, an inner balloon having proximal and distal neck segments (232, 236), tapered proximal and distal cone segments (234, 238) and a cylindrical body, the inner balloon defining an interior that is in fluid communication with a lumen of the catheter for receiving inflation fluid therefrom, and an outer balloon disposed about the inner balloon, the outer balloon having cylindrical proximal and distal neck segments (233, 237), tapered proximal and distal cone segments (235, 239) and a cylindrical body, the outer balloon defining an interior within which the inner balloon is disposed, wherein the outer balloon has a hole in a wall thereof for venting the interior of the outer balloon to ambient environment, wherein the proximal neck segments of the inner and outer balloons are bonded to an outer shaft component of the catheter, the distal neck segments of the inner and outer balloons are bonded to an inner shaft component of the catheter and the hole in the wall of the outer balloon is formed within a non-bonded area (A NB) of one of the proximal and distal neck segments of the outer balloon.
A device, comprising: a housing configured to receive an electrolyte and a biological sample comprising biomolecules; at least two electrodes comprising conductive redox polymers operationally coupled to the housing, and a biomolecule impermeable layer disposed on one of the electrodes to prevent contact between the conductive redox polymers and the biomolecules. a housing configured to receive an electrolyte and a biological sample comprising biomolecules; at least two electrodes comprising conductive redox polymers operationally coupled to the housing, and a biomolecule impermeable layer disposed on one of the electrodes to prevent contact between the conductive redox polymers and the biomolecules.
An analysis apparatus (33, 53, 63) for analyzing a measurement fluid which flows through a flow passage, said analysis apparatus (33, 53, 63) comprising an optical measurement unit which has at least one optical boundary surface for a technical measurement connection of the optical measurement unit to the flow passage; and a flushing apparatus (37, 37', 67) for flushing the at least one optical boundary surface with a flushing fluid, wherein the flushing apparatus (37, 37', 67) is configured to process measurement fluid and to introduce the processed measurement fluid as a flushing fluid into a flushing region adjoining the optical boundary surface, and wherein the flushing apparatus (37, 37', 67) is configured to collect a part flow of the measurement fluid flowing through the flow passage, to process it and to introduce it into the flushing region by utilizing the flow energy, characterized in that the flushing apparatus (37, 67) has an opening which collects the part flow and which is at least substantially oriented against a main flow direction of the flow passage.
A method of detennining copy number variation in a sample that includes cell-free polynucleotides, the method comprising: a. providing at least two sets of cell-free polynucleotides, which map to different mappable positions in a reference sequence in a genome, and, for the sets of cell-free polynucleotides; i. non-uniquely tagging the cell-free polynucleotides with a set of molecular barcodes; ii. amplifying the cell-free polynucleotides to produce amplified polynucleotides; iii. sequencing a subset of the set of amplified polynucleotides, to produce a set of sequencing reads; iv. grouping the set of sequencing reads sequenced from amplified polynucleotides into families which correspond to sequencing reads of polynucleotides amplified from the same cell-free polynucleotide; v. inferring a quantitative measure of families in the sets; and b. detennining copy number variation based on the quantitative measure of families in the sets. a. providing at least two sets of cell-free polynucleotides, which map to different mappable positions in a reference sequence in a genome, and, for the sets of cell-free polynucleotides; i. non-uniquely tagging the cell-free polynucleotides with a set of molecular barcodes; ii. amplifying the cell-free polynucleotides to produce amplified polynucleotides; iii. sequencing a subset of the set of amplified polynucleotides, to produce a set of sequencing reads; iv. grouping the set of sequencing reads sequenced from amplified polynucleotides into families which correspond to sequencing reads of polynucleotides amplified from the same cell-free polynucleotide; v. inferring a quantitative measure of families in the sets; and i. non-uniquely tagging the cell-free polynucleotides with a set of molecular barcodes; ii. amplifying the cell-free polynucleotides to produce amplified polynucleotides; iii. sequencing a subset of the set of amplified polynucleotides, to produce a set of sequencing reads; iv. grouping the set of sequencing reads sequenced from amplified polynucleotides into families which correspond to sequencing reads of polynucleotides amplified from the same cell-free polynucleotide; v. inferring a quantitative measure of families in the sets; and b. detennining copy number variation based on the quantitative measure of families in the sets.
A method for updating the S1 interface configuration of an evolved nodeB comprising the following steps, performed by the eNB, of: after S1 interface configuration information of an evolved nodeB, eNB, is updated, sending the updated S1 interface configuration information to all adjacent mobility management entities, MMEs, respectively; determining whether replies from the MMEs are all success responses, and if yes, notifying the MMEs to update their respective S1 interface configuration information using the received updated S1 interface configuration information; and otherwise, notifying the MMEs to discard the received updated S1 interface configuration information. after S1 interface configuration information of an evolved nodeB, eNB, is updated, sending the updated S1 interface configuration information to all adjacent mobility management entities, MMEs, respectively; determining whether replies from the MMEs are all success responses, and if yes, notifying the MMEs to update their respective S1 interface configuration information using the received updated S1 interface configuration information; and otherwise, notifying the MMEs to discard the received updated S1 interface configuration information.
A three dimensional printing device comprising: - a sterilizable printer assembly including • at least one printing head, • a printing platform, and • a driving mechanism adapted to achieve a relative displacement between the at least one printing head and the printing platform along two or three degrees of freedom; - a printer housing enclosing the printer assembly in a sterile manner, - at least one aseptic connector fluidly connected to a corresponding one of the at least one printing head; - a membrane dispenser for dispensing a membrane roll or sheets of membrane and which are printable on by means of the printer assembly; - a membrane cutter for cutting the membrane roll or sheets of membrane into strips, sections, shapes, or pieces; and - a collection tray for collecting the strips, sections, shapes, or pieces cut from the membrane, wherein the collection tray is moveable along a three axis framework to stack the strips, sections, shapes, or pieces as they fall into the collection tray. - a sterilizable printer assembly including • at least one printing head, • a printing platform, and • a driving mechanism adapted to achieve a relative displacement between the at least one printing head and the printing platform along two or three degrees of freedom; • at least one printing head, • a printing platform, and • a driving mechanism adapted to achieve a relative displacement between the at least one printing head and the printing platform along two or three degrees of freedom; - a printer housing enclosing the printer assembly in a sterile manner, - at least one aseptic connector fluidly connected to a corresponding one of the at least one printing head; - a membrane dispenser for dispensing a membrane roll or sheets of membrane and which are printable on by means of the printer assembly; - a membrane cutter for cutting the membrane roll or sheets of membrane into strips, sections, shapes, or pieces; and - a collection tray for collecting the strips, sections, shapes, or pieces cut from the membrane, wherein the collection tray is moveable along a three axis framework to stack the strips, sections, shapes, or pieces as they fall into the collection tray.