mhurhangee/ep-ind-claims huggingface dataset:
A routing control method performed by an OpenFlow controller, OFC, in software defined networking, the method comprising: receiving a data packet reported by an OpenFlow switch, OFS; determining that the data packet is a repeated packet; and determining that a routing policy of the data packet does not need to be calculated; wherein for repeated data packets the OFC calculates a routing policy only once; wherein determining that the data packet is a repeated packet comprises: determining, according to a key value stored in a cache of the controller, that the data packet is a repeated packet, wherein the key value comprises a data packet feature value and further comprises a processing moment; and wherein determining according to a key value, that the data packet is a repeated packet comprises: comparing a feature value of the data packet with the data packet feature value in the key value for determining that the data packet hits the cache; and if the data packet hits the cache, determining that the data packet is a repeated packet when a time interval between a current moment and the processing moment in the key value is less than or equal to a preset time value, wherein the preset time value is a time value less than or equal to a flow table valid time. receiving a data packet reported by an OpenFlow switch, OFS; determining that the data packet is a repeated packet; and determining that a routing policy of the data packet does not need to be calculated; wherein for repeated data packets the OFC calculates a routing policy only once; wherein determining that the data packet is a repeated packet comprises: determining, according to a key value stored in a cache of the controller, that the data packet is a repeated packet, wherein the key value comprises a data packet feature value and further comprises a processing moment; and wherein determining according to a key value, that the data packet is a repeated packet comprises: comparing a feature value of the data packet with the data packet feature value in the key value for determining that the data packet hits the cache; and if the data packet hits the cache, determining that the data packet is a repeated packet when a time interval between a current moment and the processing moment in the key value is less than or equal to a preset time value, wherein the preset time value is a time value less than or equal to a flow table valid time. comparing a feature value of the data packet with the data packet feature value in the key value for determining that the data packet hits the cache; and if the data packet hits the cache, determining that the data packet is a repeated packet when a time interval between a current moment and the processing moment in the key value is less than or equal to a preset time value, wherein the preset time value is a time value less than or equal to a flow table valid time.
Tripod head having a ball joint which comprises a joint ball and a joint socket arranged in a tripod head housing, wherein a connection piece having a fastening thread is arranged on a pole of the joint ball and a tripod thread is provided on the base section facing away from the joint ball, wherein three pivot axes form an x-y-z coordinate system in the tripod head, the centre point of which coincides with the centre point of the hollow ball-shaped inner wall of the joint socket, and the y-axis of which aligns with the longitudinal axis of the tripod thread, a switchable blocking device is arranged in the tripod head housing in the x-z plane, said blocking device being switchable from a release position into a blocking position and engaging with a blocking recess arranged on the equator of the joint ball in the blocking position, wherein the blocking device comprises a blocking pin impinged with a spring and a positive and/or friction-fit switching device having an actuation handle, characterised in that the blocking pin penetrates the tripod head housing and the joint socket and its longitudinal axis lies in the x-z plane, such that the blocking pin blocks the movement of the joint ball around the z-axis and the y-axis in the blocking position, such that the joint ball is only able to pivot around the x-axis.
A neodymium-iron-boron magnetic material, comprising, by mass percentage, the following components: 29.5-31.5 wt.% of R, with RH > 1.5 wt.%, 0.05-0.25 wt.% of Cu, 0.42-2.6 wt.% of Co, 0.20-0.3 wt.% of Ga, 0.25-0.3 wt.% of N, including one or more of Zr, and Ti, 0.46-0.6 wt.% of Al or Al ≤ 0.04 wt.%, exclusive of 0 wt.%, 0.98-1 wt.% of B, 64-68 wt.% of Fe, wherein R is a rare earth element and includes at least Nd and RH, and RH is a heavy rare earth element and includes Tb; the mass ratio of Tb to Co is less than or equal to 15, exclusive of 0. 0.05-0.25 wt.% of Cu, 0.42-2.6 wt.% of Co, 0.20-0.3 wt.% of Ga, 0.25-0.3 wt.% of N, including one or more of Zr, and Ti, 0.46-0.6 wt.% of Al or Al ≤ 0.04 wt.%, exclusive of 0 wt.%, 0.98-1 wt.% of B, 64-68 wt.% of Fe, wherein R is a rare earth element and includes at least Nd and RH, and RH is a heavy rare earth element and includes Tb; the mass ratio of Tb to Co is less than or equal to 15, exclusive of 0.
Nanoparticles containing i) a non-persistant inorganic support material, selected from the group consisting of calciumphosphates, ii) copper in oxidation state +/-0, +1 and/or +2 and iii)optionally further inorganic compounds, wherein at least 95%(w/w) of said nanoparticles have a hydrodynamic diameter <500nm, and wherein the water content of said nanoparticles is below <5%(w/w). i) a non-persistant inorganic support material, selected from the group consisting of calciumphosphates, ii) copper in oxidation state +/-0, +1 and/or +2 and iii)optionally further inorganic compounds,
A method for forming an anisotropic conducting polymer film comprising a mixture of a polymer matrix and conductive particles, whereby the conductive particles are formed into aligned conductive pathways in an alignment step by applying an electric field between alignment electrodes and thereafter stabilizing the mixture characterised by that the conductive particles have an aspect ratio from 1 to 20; the electric field applied over the mixture is an alternating field in the order of 1 - 20 kV/cm; and that the concentration of conductive particles in the mixture is in the range of 0.2 - 10 vol% and at the same time is below a percolation threshold.
Multistrand electrical conductor of AWG calibre between 16 and 30, comprising a single central strand in aluminium or aluminium alloy and a plurality of conducting strands arranged around this central strand, the diameter of all said peripheral conducting strands in contact in pairs being substantially identical, characterized in that the ratio between the diameter of said central strand in aluminium or aluminium alloy and the diameter of said peripheral conducting strands is 3, these peripheral conducting strands being twelve in number.
A method of producing an aluminum heat exchanger by brazing heating an aluminum alloy fin material having a high strength and heat transfer characteristic, erosion resistance, sag resistance, a sacrificial anode effect, and self corrosion prevention, having a chemical composition of Si: 0.7 to 1.4 wt%, Fe: 0.5 to 1.2 wt%, Mn: 0.7 to 1.4 wt%, Zn: 0.5 to 2.5 wt%, Mg as an impurity limited to 0.05 wt% or less, and the balance of unavoidable impurities and Al, and a tensile strength after brazing of 130 MPa or more, a yield strength after brazing of 45 MPa or more, a recrystallized grain size after brazing of 500 μm or more, and an electrical conductivity after brazing of 47% IACS or more, characterized by cooling in the temperature range from at least the brazing temperature after said brazing heating to 400°C at a cooling rate of 10 to 50°C/min.
A method implemented in a user terminal for requesting service from a base station having a cell area where the base station offers radio communications service, the method comprising: - determining (S1, S2) one of a first type of uplink scrambling sequences, wherein said first type of uplink scrambling sequences are cell-specific or random access channel-specific scrambling sequences, and - generating a random access message using the determined one of the first type of uplink scrambling sequence, and - transmitting the random access message to a radio base station, and - receiving from the base station an assignment of a second different type of uplink scrambling sequence, wherein said second different type of uplink scrambling sequence is a terminal-specific scrambling sequence, and - using the second different type of uplink scrambling sequence for subsequent communication with the radio base station. - determining (S1, S2) one of a first type of uplink scrambling sequences, wherein said first type of uplink scrambling sequences are cell-specific or random access channel-specific scrambling sequences, and - generating a random access message using the determined one of the first type of uplink scrambling sequence, and - transmitting the random access message to a radio base station, and - receiving from the base station an assignment of a second different type of uplink scrambling sequence, wherein said second different type of uplink scrambling sequence is a terminal-specific scrambling sequence, and - using the second different type of uplink scrambling sequence for subsequent communication with the radio base station.
Holding frame for plug-in connectors, for receiving identical and/or different plug-in connector modules, wherein the holding frame consists of two holding-frame modules and two PE walls with a protective earthing terminal and at least one fastening means for fastening the holding frame in a plug-in connector housing, characterized in that the holding frame modules can be latched to the PE walls and the holding frame modules each consist of at least two stamped or lasered, puzzle-piece-like wall elements. the holding frame consists of two holding-frame modules and two PE walls with a protective earthing terminal and at least one fastening means for fastening the holding frame in a plug-in connector housing, characterized in that the holding frame modules can be latched to the PE walls and the holding frame modules each consist of at least two stamped or lasered, puzzle-piece-like wall elements.
A method for diagnosing chronic obstructive pulmonary disorder (COPD) comprising detecting the level of an H3.3 protein having at least one post-translational modification from a test sample obtained from a patient; comparing said level of said H3.3 protein with said at least one post-translational modification to the level of said H3.3 protein with the at least one post-translational modification in a control sample; wherein an elevated level of the H3.3 protein with the at least one post-translational modification in said test sample as compared to the level in the control sample indicates that said patient suffers from COPD.
A method for evaluation of an interaction between an analyte in a fluid sample and a ligand immobilized on a sensor surface of a biosensor, comprising the steps of - providing a plurality of fluid samples, each containing known concentrations of analyte - providing a plurality of needles and a plurality of sensor surfaces or detection spots, at least some of the sensor surfaces or detection spots having a ligand immobilized thereon, and each needle being configured to inject a fluid sample to a sensor surface or detection spots - dividing said plurality of fluid samples into at least two groups, each group having a number of fluid samples corresponding to the number of needles - injecting the fluid samples of a first of said groups to the sensor surfaces or detection spots by means of the needles to permit association of the analyte to the ligand - monitoring each sensor surface or detection spot and collecting binding data, and - repeating the steps of injecting fluid samples to the sensor surfaces or detection spots and monitoring the detection spots and collecting binding data for each group of fluid samples, wherein the steps above are performed sequentially, without intermediate regeneration or renewal of the immobilized ligand. - providing a plurality of fluid samples, each containing known concentrations of analyte - providing a plurality of needles and a plurality of sensor surfaces or detection spots, at least some of the sensor surfaces or detection spots having a ligand immobilized thereon, and each needle being configured to inject a fluid sample to a sensor surface or detection spots - dividing said plurality of fluid samples into at least two groups, each group having a number of fluid samples corresponding to the number of needles - injecting the fluid samples of a first of said groups to the sensor surfaces or detection spots by means of the needles to permit association of the analyte to the ligand - monitoring each sensor surface or detection spot and collecting binding data, and - repeating the steps of injecting fluid samples to the sensor surfaces or detection spots and monitoring the detection spots and collecting binding data for each group of fluid samples,
A method for monitoring reactivity in reactions between a first and second material of interest, said method comprising the steps of: a) providing an osmotic reaction detector comprising a semi-permeable membrane and a pressure sensor; b) introducing one of a reaction mixture and a reference solution into said osmotic reaction detector, said reaction mixture comprising a carrier fluid, a first material of interest and a second material of interest and said reference solution comprising any one or combination of the first material, the second material, a surrogate reference material and a carrier fluid; c) positioning said osmotic reaction detector such that said semi-permeable membrane is in fluid contact with and positioned between said reaction mixture and said reference solution; and d) monitoring an output from said pressure sensor after the positioning of said osmotic reaction detector, wherein any changes in pressure occur as a result of a change in concentration in said reaction mixture of one or more of said first material, second material, surrogate reference material or reaction products formed from said first and second materials, wherein the pressure sensor comprises a flexible diaphragm covering an aperture of an interior chamber of the osmotic reaction detector, wherein a change in osmotic pressure in the chamber is measured by measuring the deflection of the flexible diaphragm covering the aperture, characterized in that the flexible diaphragm comprises an electroactive polymer having a Young's modulus in the range of 0.3 MPa to 10 MPa and a thickness in the range of 1 to 50 μm. a) providing an osmotic reaction detector comprising a semi-permeable membrane and a pressure sensor; b) introducing one of a reaction mixture and a reference solution into said osmotic reaction detector, said reaction mixture comprising a carrier fluid, a first material of interest and a second material of interest and said reference solution comprising any one or combination of the first material, the second material, a surrogate reference material and a carrier fluid; c) positioning said osmotic reaction detector such that said semi-permeable membrane is in fluid contact with and positioned between said reaction mixture and said reference solution; and d) monitoring an output from said pressure sensor after the positioning of said osmotic reaction detector, wherein any changes in pressure occur as a result of a change in concentration in said reaction mixture of one or more of said first material, second material, surrogate reference material or reaction products formed from said first and second materials,
A label system comprising: a first label assembly adapted for use in cold environments, the first label assembly comprising: an inner substrate; an outer substrate; a layer of adhesive disposed between the inner substrate and the outer substrate; and a layer of adhesive disposed along an underside of the inner substrate, the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate; and a supplemental label assembly configured for application to the first label assembly, the supplemental label assembly comprising: an outer substrate; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly; wherein the supplemental label assembly is configured for application to the layer of adhesive disposed between the inner substrate and the outer substrate of the first label assembly after removal of the outer substrate, in such a way that, after application, the layer of adhesive of the supplemental label assembly is in contact with the layer of adhesive of the first label assembly. a first label assembly adapted for use in cold environments, the first label assembly comprising: an inner substrate; an outer substrate; a layer of adhesive disposed between the inner substrate and the outer substrate; and a layer of adhesive disposed along an underside of the inner substrate, the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate; and a supplemental label assembly configured for application to the first label assembly, the supplemental label assembly comprising: an outer substrate; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly; an inner substrate; an outer substrate; a layer of adhesive disposed between the inner substrate and the outer substrate; and a layer of adhesive disposed along an underside of the inner substrate, the outer substrate of the first label assembly being removable to thereby expose the layer of adhesive disposed between the inner substrate and the outer substrate; and a supplemental label assembly configured for application to the first label assembly, the supplemental label assembly comprising: an outer substrate; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly; an outer substrate; and a layer of adhesive disposed along an underside of the outer substrate of the supplemental label assembly; wherein the supplemental label assembly is configured for application to the layer of adhesive disposed between the inner substrate and the outer substrate of the first label assembly after removal of the outer substrate, in such a way that, after application, the layer of adhesive of the supplemental label assembly is in contact with the layer of adhesive of the first label assembly.
A display device comprising a substrate with a matrix of pixels on the substrate, row electrodes, column electrodes crossing the row electrodes, switching elements which are selectable by means of the row electrodes for presenting data, which have been presented via the column electrodes, to the pixels, wherein parts of the column electrodes are arranged parallel to mutually separate strips of a conducting material, or parts of the row electrodes are arranged parallel to mutually separate strips of a conducting material characterized in that the substrate is flexible and that the mutually separate strips (15, 25) form shunts with the electrodes (6, 5 respectively) with respect to which they are arranged parallel.
Compact powertrain, comprising a first engine (8, 44) and a second engine (7, 45, 51) and means for rotationally connecting said engines to a common output shaft; the engines have drive shafts (MS, MD) with axles parallel to each other; connection means between said drive shafts and an output shaft, moreover, they comprise first coupling means on said first drive shaft for connecting said first drive shaft to the output shaft, and second coupling means for connecting said second drive shaft to said output shaft; the delivery of the rotational torque and power is controlled by the adjustment of each engine and said coupling means, being adapted to selectively connect/disconnect said drive shafts from said output shaft; the means for connecting the rotation of the two engines, left and right, to the output shaft comprise a clutch assembly and a gearbox (3, 26); the clutch assembly is provided with a single clutch (FS, FD) for the drive shaft which connects or disconnects the respective drive shaft with a corresponding input (ES, ED) and transmission shaft (TS, TD) inside the gearbox; the common output shaft, of the rotation from the compact powertrain, rotates receiving motion by means of pairs of gears present respectively on one said transmission shaft (TS, TD), inside the gearbox, and on the output shaft, with the selective insertion or disengagement of the clutches (FS, FD) and, depending on the rotational speed, of coupling engagements on the transmission shafts and of said gears present on said shafts (TS, TD); characterized in that it has one or more idle gears (A, P, R) on the output shaft controlled by the rotation with at least one coupling engagement (11a, 11p) to the output shaft to receive the rotation, with the engagement (11a - 11p) inserted, or, when disengaged, transmit the rotation from one transmission shaft (TD - TS) towards the other transmission shaft without any action on the output shaft.
A method for detecting DNA damage in a subject suspected of having DNA damage wherein the damage results in the formation of aldehyde moieties in DNA, comprising the steps of: a) combining a sample comprising DNA from the subject with an aromatic hydrazine compound, wherein the aromatic hydrazine compound reacts with an aromatic aldehyde moiety formed as a result of damage to the DNA to form a hydrazone covalently linked to the DNA, wherein the hydrazone covalently linked to the DNA has an emission frequency different than that of the aromatic hydrazine compound and a fluorescent signal greater than that of the aromatic hydrazine; b) detecting the fluorescent DNA by monitoring a fluorescent emission; and c) quantitating the fluorescent emission to determine the DNA damage. a) combining a sample comprising DNA from the subject with an aromatic hydrazine compound, wherein the aromatic hydrazine compound reacts with an aromatic aldehyde moiety formed as a result of damage to the DNA to form a hydrazone covalently linked to the DNA, wherein the hydrazone covalently linked to the DNA has an emission frequency different than that of the aromatic hydrazine compound and a fluorescent signal greater than that of the aromatic hydrazine; b) detecting the fluorescent DNA by monitoring a fluorescent emission; and c) quantitating the fluorescent emission to determine the DNA damage.