mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for dynamically offloading network traffic flows in one or more virtual networks, the computer-implemented method comprising: identifying a virtual router through which to route network traffic of a specific network flow, wherein the specific network flow has a source endpoint existing on a source host machine and a destination endpoint existing on a destination host machine; receiving flow statistics of network traffic transiting the virtual router including statistics about the specific network flow; determining whether current network traffic of the specific network flow meets an offload rule using the received flow statistics by: determining the number of network flows that have already been offloaded for the source host machine of the specific network flow; and determining whether the number of offloaded network flows exceeds a threshold amount for the source host machine; and in response to determining that the number of offloaded network flows does not exceed a threshold amount for the source host machine, dynamically offloading the specific network flow from the virtual router, wherein subsequent traffic of the network flow routes directly from the source host machine to the destination host machine without going through any virtual routers. identifying a virtual router through which to route network traffic of a specific network flow, wherein the specific network flow has a source endpoint existing on a source host machine and a destination endpoint existing on a destination host machine; receiving flow statistics of network traffic transiting the virtual router including statistics about the specific network flow; determining whether current network traffic of the specific network flow meets an offload rule using the received flow statistics by: determining the number of network flows that have already been offloaded for the source host machine of the specific network flow; and determining whether the number of offloaded network flows exceeds a threshold amount for the source host machine; and determining the number of network flows that have already been offloaded for the source host machine of the specific network flow; and determining whether the number of offloaded network flows exceeds a threshold amount for the source host machine; and in response to determining that the number of offloaded network flows does not exceed a threshold amount for the source host machine, dynamically offloading the specific network flow from the virtual router, wherein subsequent traffic of the network flow routes directly from the source host machine to the destination host machine without going through any virtual routers.
An apparatus comprising: a peak detector configured to receive an input signal, Vin, and provide an output signal, Vout, the peak detector comprising: a transistor having an input, at its gate, and being configured to receive the input signal, Vin, and provide a source current, the transistor also being configured to receive an adaptive bias voltage at the input; a current source (514,518) coupled to the transistor and arranged to provide a bias current; and a capacitor coupled to the transistor and the current source; wherein the capacitor is configured to be charged by the source current from the transistor and discharged by the bias current from the current source; wherein the adaptive bias voltage is generated based on the feedback of a detected signal from the capacitor; and wherein the output signal, Vout, is generated based on the detected signal from the capacitor, the output signal, Vout, being indicative of peaks of the input signal, Vin. a peak detector configured to receive an input signal, Vin, and provide an output signal, Vout, the peak detector comprising: a transistor having an input, at its gate, and being configured to receive the input signal, Vin, and provide a source current, the transistor also being configured to receive an adaptive bias voltage at the input; a current source (514,518) coupled to the transistor and arranged to provide a bias current; and a capacitor coupled to the transistor and the current source; a transistor having an input, at its gate, and being configured to receive the input signal, Vin, and provide a source current, the transistor also being configured to receive an adaptive bias voltage at the input; a current source (514,518) coupled to the transistor and arranged to provide a bias current; and a capacitor coupled to the transistor and the current source; wherein the capacitor is configured to be charged by the source current from the transistor and discharged by the bias current from the current source; wherein the adaptive bias voltage is generated based on the feedback of a detected signal from the capacitor; and wherein the output signal, Vout, is generated based on the detected signal from the capacitor, the output signal, Vout, being indicative of peaks of the input signal, Vin.
Process for the manufacture of a balloon catheter, on which a drug adheres, wherein the process comprises the following steps: a) providing a balloon catheter comprising a balloon; b) providing a solution consisting of paclitaxel and a solvent; c) applying the solution onto the surface of the balloon; and d) drying the balloon. a) providing a balloon catheter comprising a balloon; b) providing a solution consisting of paclitaxel and a solvent; c) applying the solution onto the surface of the balloon; and d) drying the balloon.
An oral care product comprising a first composition comprising from 25 to 80 wt% of the total first composition of a calcium salt which is calcium silicate, and a second aqueous composition comprising greater than 20 wt% of the total second composition of water and from 40 to 60 wt% of the total second composition of a potassium phosphate salt.
An isolated nucleic acid encoding a fusion protein of a hepatitis B virus core antigen (HBcAg) derived from an avian hepatitis virus joined to a hepatitis C virus antigen, wherein the nucleic acid is codon optimized for expression in humans.
An antifouling composition comprising Cu(ETFAA) 2 and one or more biocidal agent selected from the group consisting of copper 2-pyridinethiol-1-oxide (copper pyrithione, CuPT), zinc 2-pyridinethiol-1-oxide (zinc pyrithione, ZnPT), 4,5-dichloro-2-n-octyl-4-isothiazolin-3-one (DCOIT), cuprous oxide (Cu 2 O), zinc oxide (ZnO), 4-bromo-2-(4-chlorophenyl)-5-(trifluoromethyl)-1H-pyrrole-3-carbonitrile (tralopyril), zinc ethane-1,2-diylbis(dithiocarbamate) (zineb), zinc N,N-dimethylcarbamodithioate (ziram), 3-(3,4-dichlorophenyl)-1,1-dimethylurea (diuron), copper thiocyanate (CuSCN), 4-[1-(2,3-dimethylphenyl)ethyl]-1H-imidazole (medetomidine), triazines, fluanids and 2,4,5,6-tetrachloroisophthalonitrile (chlorothalonil).
A method for performing channel detection in a physical random access procedure, applied in shared spectrum, comprising: determining, by a terminal device, a target channel access type, wherein the target channel access type comprises a type 1 channel access or a type 2 channel access, further characterized by: determining, by the terminal device according to the target channel access type, a target time domain resource for the terminal device to perform transmission of a physical random access channel, PRACH; wherein the determining the target channel access type by the terminal device comprises: if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type. determining, by a terminal device, a target channel access type, wherein the target channel access type comprises a type 1 channel access or a type 2 channel access, further characterized by: determining, by the terminal device according to the target channel access type, a target time domain resource for the terminal device to perform transmission of a physical random access channel, PRACH; wherein the determining the target channel access type by the terminal device comprises: if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type. if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type.
Cosmetic or dermatological preparations having a content of 3-(4-hydroxy-3-methoxyphenyl)-1-(4-hydroxyphenyl)propan-1-one and ethylhexyl 2-cyano-3,3-diphenylacrylate.
A method of making a filler for dental material comprising: a) admixing a non-heavy metal oxide sol and a water-soluble thermally fugitive organic binder selected from a disaccharide, a trisaccharide, polyvinyl alcohol and polyethylene glycol; b) drying said mixed sol into a dried product containing at least a portion of the water-soluble thermally fugitive organic binder; and c) calcining said dried product; wherein said filler comprises an amorphous cluster of non-heavy metal oxide particles. a) admixing a non-heavy metal oxide sol and a water-soluble thermally fugitive organic binder selected from a disaccharide, a trisaccharide, polyvinyl alcohol and polyethylene glycol; b) drying said mixed sol into a dried product containing at least a portion of the water-soluble thermally fugitive organic binder; and c) calcining said dried product;
A refrigeration appliance, comprising: a fresh-food compartment configured for storing food items at a first target temperature above zero degrees Celsius; a freezer compartment configured for storing food items at a second target temperature below zero degrees Celsius; a cooling air channel formed between the freezer compartment and the fresh-food compartment a refrigeration circuit configured for cooling the freezer compartment, the circuit having a variable speed compressor, an evaporator, and a variable speed evaporator fan; and a controller operatively connected to the refrigeration circuit and configured to: operate the variable speed compressor and the variable speed evaporator fan at a calculated speed of the variable speed compressor and a calculated speed of the variable speed evaporator fan, respectively; wherein in a normal mode of operation, the controller operates the variable speed compressor at a first calculated compressor speed and the variable speed evaporator fan at a first calculated fan speed, and wherein in a freezer priority mode of operation, where cooling capacity is directed to the freezer compartment, the controller operates the variable speed compressor at a second calculated compressor speed and the variable speed evaporator fan at a second calculated fan speed, wherein the second calculated compressor speed is higher than the first calculated compressor speed and characterized in that the second calculated fan speed is lower than the first calculated fan speed. a fresh-food compartment configured for storing food items at a first target temperature above zero degrees Celsius; a freezer compartment configured for storing food items at a second target temperature below zero degrees Celsius; a cooling air channel formed between the freezer compartment and the fresh-food compartment a refrigeration circuit configured for cooling the freezer compartment, the circuit having a variable speed compressor, an evaporator, and a variable speed evaporator fan; and a controller operatively connected to the refrigeration circuit and configured to: operate the variable speed compressor and the variable speed evaporator fan at a calculated speed of the variable speed compressor and a calculated speed of the variable speed evaporator fan, respectively; wherein in a normal mode of operation, the controller operates the variable speed compressor at a first calculated compressor speed and the variable speed evaporator fan at a first calculated fan speed, and wherein in a freezer priority mode of operation, where cooling capacity is directed to the freezer compartment, the controller operates the variable speed compressor at a second calculated compressor speed and the variable speed evaporator fan at a second calculated fan speed, wherein the second calculated compressor speed is higher than the first calculated compressor speed and characterized in that the second calculated fan speed is lower than the first calculated fan speed.
A method of manufacturing an electrode for a gas-discharge lamp, which method comprises - forming an electrode shaft; - forming a coil over a winding length (Lw); - arranging the coil on the electrode shaft; - melting material of the coil such that, when the melted coil material has re-solidified, the solidified material (30, 31) comprises a one-piece shell, which one-piece shell comprises a fused portion over a fraction of the winding length (Lw) and a mantle portion over a remainder of the winding length (Lw), characterized in that the one-piece shell is formed around the entire circumference of the coil over essentially the entire winding length (Lw). - forming an electrode shaft; - forming a coil over a winding length (Lw); - arranging the coil on the electrode shaft; - melting material of the coil such that, when the melted coil material has re-solidified, the solidified material (30, 31) comprises a one-piece shell, which one-piece shell comprises a fused portion over a fraction of the winding length (Lw) and a mantle portion over a remainder of the winding length (Lw), characterized in that the one-piece shell is formed around the entire circumference of the coil over essentially the entire winding length (Lw).
A sampling system for collecting a fluid sample from an enclosed container comprising a sample-directing manifold and an aseptic sampling valve, wherein the sample-directing manifold comprises: (a) a plurality of sample inlets, wherein each sample inlet is in fluid communication with a respective sample outlet valve and a respective waste outlet valve; (b) a sample outlet path in fluid communication with each said respective sample outlet valve; and (c) a waste outlet path in fluid communication with each said respective waste outlet valve wherein each said respective waste outlet valve and each said respective sample outlet valves may be configured independently so that only one of said plurality of sample inlets may be in fluid communication with said sample outlet path. (a) a plurality of sample inlets, wherein each sample inlet is in fluid communication with a respective sample outlet valve and a respective waste outlet valve; (b) a sample outlet path in fluid communication with each said respective sample outlet valve; and (c) a waste outlet path in fluid communication with each said respective waste outlet valve
A maintenance device for determining a position of a blockage point of a tubular member, comprising a fiber-optic cable and a plurality of holding guides, each holding guide being attached to the fiber-optic cable and including an attachment means for attaching to an inner wall of the tubular member.
An agent for lightening keratin fibers, containing, based on its weight, a) from 20 to 75 wt.% oil(s); b) from 0.05 to 5 wt.% polymer(s) from the group comprising i. copolymers of ethylene/propylene/styrene, ii. copolymers of butylene/ethylene/styrene, iii. copolymers of butylene/propylene/styrene, c) from 1 to 70 wt.% peroxydisulfate(s), characterized in that, based on its weight, the agent contains - from 1 to 44 wt.% potassium peroxydisulfate - from 0 to < 5 wt.% sodium peroxydisulfate and - from 0 to < 5 wt.% ammonium peroxydisulfate. a) from 20 to 75 wt.% oil(s); b) from 0.05 to 5 wt.% polymer(s) from the group comprising i. copolymers of ethylene/propylene/styrene, ii. copolymers of butylene/ethylene/styrene, iii. copolymers of butylene/propylene/styrene, i. copolymers of ethylene/propylene/styrene, ii. copolymers of butylene/ethylene/styrene, iii. copolymers of butylene/propylene/styrene, c) from 1 to 70 wt.% peroxydisulfate(s), - from 1 to 44 wt.% potassium peroxydisulfate - from 0 to < 5 wt.% sodium peroxydisulfate and - from 0 to < 5 wt.% ammonium peroxydisulfate.
Combined machine for harvesting and shelling almonds, comprising a shelling machine combined with a harvesting machine, wherein said shelling machine is connected to said harvesting machine so that an outlet of the almonds harvested by the harvesting machine coincides with a loading area of said shelling machine, characterized in that it has a caisson wherein the almonds harvested by the harvesting machine are collected, said caisson coinciding with a loading hopper designed to continuously supply said shelling machine, in that said shelling machine is arranged transversally to the advancement direction of the harvesting machine; and in that said shelling machine is connected to a top part of the harvesting machine so that, while the harvesting machine harvests the almonds from a row, said shelling machine bestrides an adjacent row to said row treated by the harvesting machine in order to discharge the shelled almonds into a caisson towed in an adjacent inter-row. characterized in that it has a caisson wherein the almonds harvested by the harvesting machine are collected, said caisson coinciding with a loading hopper designed to continuously supply said shelling machine, in that said shelling machine is arranged transversally to the advancement direction of the harvesting machine; and in that said shelling machine is connected to a top part of the harvesting machine so that, while the harvesting machine harvests the almonds from a row, said shelling machine bestrides an adjacent row to said row treated by the harvesting machine in order to discharge the shelled almonds into a caisson towed in an adjacent inter-row.
A method for searching for a high-priority network by a terminal device, wherein the terminal device comprises a Wi-Fi module, wherein the terminal device is connected to a first hotspot by using Wi-Fi and performs a data service, and the method comprises: starting searching (120, 404) for, by the terminal device, a high-priority network when the terminal device is disconnected from the first hotspot, wherein the terminal device stores a high-priority network list, and searching is performed in descending order of priorities in the high-priority network list; characterized in that that the terminal device comprises an AI module and a modem module to determine a success probability of searching for a high-RAT network after Wi-Fi is disconnected; wherein each time a different Wi-Fi hotspot is disconnected, the terminal device searches for a high-priority network, and records the search result using the AI module; wherein the recording the search result includes a quantity of successful network searches, a quantity of failed network searches, and a network search success probability; wherein searching (120, 404) for a high-priority network is initiated based on the success probability, in a historical record, of successfully finding a high-priority network. starting searching (120, 404) for, by the terminal device, a high-priority network when the terminal device is disconnected from the first hotspot, wherein the terminal device stores a high-priority network list, and searching is performed in descending order of priorities in the high-priority network list; characterized in that that the terminal device comprises an AI module and a modem module to determine a success probability of searching for a high-RAT network after Wi-Fi is disconnected; wherein each time a different Wi-Fi hotspot is disconnected, the terminal device searches for a high-priority network, and records the search result using the AI module; wherein the recording the search result includes a quantity of successful network searches, a quantity of failed network searches, and a network search success probability; wherein searching (120, 404) for a high-priority network is initiated based on the success probability, in a historical record, of successfully finding a high-priority network.
Method for manufacturing a continuous semi-finished product to produce shaped parts, whereby the semi-finished product has at least one obliquely reinforced layer that has a polymer matrix and reinforcing fibers embedded therein, in which case the reinforcing fibers of the at least one obliquely reinforced layer run obliquely to the longitudinal direction of the semi-finished product, characterized in that the at least one obliquely reinforced layer is continuously manufactured through the following steps: a) Feeding many reinforcing fibers in their longitudinal direction to a hose former by means of a feeding device, b) Forming the reinforcing fibers that were fed to become a hose by means of the hose former, in such a way that the reinforcing fibers run in longitudinal direction of the hose, c) Solidifying the hose that contains the reinforcing fibers in its circumferential direction by means of a solidification machine, in a way to stabilize the form of the hose, d) Cutting up the stabilized hose containing the reinforcing fibers with a hose-cutting machine, in such a way that at least one endless cut is generated obliquely to the circumferential direction of the hose, so that the obliquely reinforced layer is supplied continuously. a) Feeding many reinforcing fibers in their longitudinal direction to a hose former by means of a feeding device, b) Forming the reinforcing fibers that were fed to become a hose by means of the hose former, in such a way that the reinforcing fibers run in longitudinal direction of the hose, c) Solidifying the hose that contains the reinforcing fibers in its circumferential direction by means of a solidification machine, in a way to stabilize the form of the hose, d) Cutting up the stabilized hose containing the reinforcing fibers with a hose-cutting machine, in such a way that at least one endless cut is generated obliquely to the circumferential direction of the hose, so that the obliquely reinforced layer is supplied continuously.