mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing mobile network congestion, the method comprising: determining cell metrics over a predetermined time interval for each cell of a plurality of cells of the mobile network; determining correlations between the cell metrics for each cell; determining whether any cell of the plurality of cells are congested based on the correlations; determining a type of congestion for any cell determined to be congested; and determining traffic actions based on the type of congestion and, if the type of congestion is backhaul congestion, the traffic action is to reprioritize a traffic flow accessing the backhaul; wherein the backhaul is considered congested if a Pearson correlation between Throughput and Loss is higher than a predetermined threshold. determining cell metrics over a predetermined time interval for each cell of a plurality of cells of the mobile network; determining correlations between the cell metrics for each cell; determining whether any cell of the plurality of cells are congested based on the correlations; determining a type of congestion for any cell determined to be congested; and determining traffic actions based on the type of congestion and, if the type of congestion is backhaul congestion, the traffic action is to reprioritize a traffic flow accessing the backhaul; wherein the backhaul is considered congested if a Pearson correlation between Throughput and Loss is higher than a predetermined threshold.
A vehicle control system configured to control an actuator in a vehicle , the vehicle control system comprising: a first controller including a plurality of computation units and a diagnosis unit ; and a second controller disposed on a signal path between the first controller and the actuator and including an output unit , wherein each of the plurality of computation units supplies a first control signal for controlling the actuator to the output unit , the diagnosis unit performs an abnormality diagnosis of each of the plurality of computation units , and the output unit outputs a second control signal for controlling the actuator based on the first control signals supplied from the plurality of computation units and the diagnosis results of the plurality of computation units obtained by the diagnosis unit wherein each of the first control signals supplied from the plurality of computation units shows a target output of the actuator , characterized in that the target outputs shown by the first control signals supplied from the plurality of computation units are different from one another in at least one of information used for deriving the target output and content of a deriving process of the target output. a first controller including a plurality of computation units and a diagnosis unit ; and a second controller disposed on a signal path between the first controller and the actuator and including an output unit , wherein each of the plurality of computation units supplies a first control signal for controlling the actuator to the output unit , the diagnosis unit performs an abnormality diagnosis of each of the plurality of computation units , and the output unit outputs a second control signal for controlling the actuator based on the first control signals supplied from the plurality of computation units and the diagnosis results of the plurality of computation units obtained by the diagnosis unit wherein each of the first control signals supplied from the plurality of computation units shows a target output of the actuator , characterized in that the target outputs shown by the first control signals supplied from the plurality of computation units are different from one another in at least one of information used for deriving the target output and content of a deriving process of the target output.
Device arrangement for separating cells from a culture medium in a bioprocess, in particular in a biopharmaceutical process, comprising a reservoir for the culture medium, in particular a bioreactor, a filtration module , in particular a hollow fiber module, having at least one membrane across which a flow can take place, a feed line , which connects the reservoir to an unfiltrate inlet of the filtration module , for feeding culture medium into the filtration module , a return line , which connects a retentate-side outlet of the filtration module to the reservoir , for returning retentate to the reservoir , a filtrate line , which is connected to a permeate-side outlet of the filtration module , for discharging filtrate, a first pump for maintaining a recirculation circuit, a back-flushing line , which leads to a permeate-side connection and/or to the permeate-side outlet of the filtration module , for feeding a flushing liquid into the filtration module , and a second pump for conveying the flushing liquid into the filtration module . a reservoir for the culture medium, in particular a bioreactor, a filtration module , in particular a hollow fiber module, having at least one membrane across which a flow can take place, a feed line , which connects the reservoir to an unfiltrate inlet of the filtration module , for feeding culture medium into the filtration module , a return line , which connects a retentate-side outlet of the filtration module to the reservoir , for returning retentate to the reservoir , a filtrate line , which is connected to a permeate-side outlet of the filtration module , for discharging filtrate, a first pump for maintaining a recirculation circuit, a back-flushing line , which leads to a permeate-side connection and/or to the permeate-side outlet of the filtration module , for feeding a flushing liquid into the filtration module , and a second pump for conveying the flushing liquid into the filtration module .
A method for operating an electronic device , the method comprising: detecting a first traffic corresponding to an application being executed in another electronic device (202-1, 202-2) and a second traffic corresponding to an application being executed in the electronic device , wherein the another electronic device (202-1, 202-2) communicates with a server via the electronic device ; acquiring application related information of the first traffic and application related information of the second traffic; determining a priority of the first traffic in a first path and in a second path based on the application related information of the first traffic, and a priority of the second traffic in a first path and a second path based on the application related information of the second traffic; transmitting downlink packets to the another electronic device (202-1, 202-2) based on a first parameter of the first path, wherein the first parameter comprises a medium access control, MAC, layer parameter determined based on the priority of the first traffic; and transmitting uplink packets to the server based on a second parameter of the second path, wherein the second parameter comprises a transport layer parameter determined based on the priority of the first traffic in the second path and the priority of the second traffic in the second path, wherein the first path is a communication path between the electronic device and the another electronic device (202-1, 202-2), and wherein the second path is a communication path between the electronic device and the server . detecting a first traffic corresponding to an application being executed in another electronic device (202-1, 202-2) and a second traffic corresponding to an application being executed in the electronic device , wherein the another electronic device (202-1, 202-2) communicates with a server via the electronic device ; acquiring application related information of the first traffic and application related information of the second traffic; determining a priority of the first traffic in a first path and in a second path based on the application related information of the first traffic, and a priority of the second traffic in a first path and a second path based on the application related information of the second traffic; transmitting downlink packets to the another electronic device (202-1, 202-2) based on a first parameter of the first path, wherein the first parameter comprises a medium access control, MAC, layer parameter determined based on the priority of the first traffic; and transmitting uplink packets to the server based on a second parameter of the second path, wherein the second parameter comprises a transport layer parameter determined based on the priority of the first traffic in the second path and the priority of the second traffic in the second path, wherein the first path is a communication path between the electronic device and the another electronic device (202-1, 202-2), and wherein the second path is a communication path between the electronic device and the server .
A process comprising: providing a blend comprising (A) a first powder comprising (i) a polyolefin having a density from 0.860 g/cc to 0.910 g/cc, and a melt index from 1.5 g/10 min to 1,000 g/10 min; wherein the polyolefin is an ethylene/α-olefin multi-block copolymer; (ii) from 1 wt% to 15 wt% of a dispersant selected from the group consisting of an acrylic dispersant, a poloxamer, and combinations thereof, (iii) optionally, a polyolefin wax; the first powder having a mean volume average particle size from 1 μm to 300 μm; (B) a second powder comprising an ethylene/α-olefin copolymer having (i) a density from 0.920 g/cc to 0.955 g/cc; (ii) a melt index from 1.0 g/10 min to 15 g/10 min; the second powder having a mean volume average particle size from 325 μm to 4,000 μm; and rotational molding the blend to form a rotational molded article. providing a blend comprising (A) a first powder comprising (i) a polyolefin having a density from 0.860 g/cc to 0.910 g/cc, and a melt index from 1.5 g/10 min to 1,000 g/10 min; wherein the polyolefin is an ethylene/α-olefin multi-block copolymer; (ii) from 1 wt% to 15 wt% of a dispersant selected from the group consisting of an acrylic dispersant, a poloxamer, and combinations thereof, (iii) optionally, a polyolefin wax; the first powder having a mean volume average particle size from 1 μm to 300 μm; (B) a second powder comprising an ethylene/α-olefin copolymer having (i) a density from 0.920 g/cc to 0.955 g/cc; (ii) a melt index from 1.0 g/10 min to 15 g/10 min; the second powder having a mean volume average particle size from 325 μm to 4,000 μm; and (A) a first powder comprising (i) a polyolefin having a density from 0.860 g/cc to 0.910 g/cc, and a melt index from 1.5 g/10 min to 1,000 g/10 min; wherein the polyolefin is an ethylene/α-olefin multi-block copolymer; (ii) from 1 wt% to 15 wt% of a dispersant selected from the group consisting of an acrylic dispersant, a poloxamer, and combinations thereof, (iii) optionally, a polyolefin wax; the first powder having a mean volume average particle size from 1 μm to 300 μm; (i) a polyolefin having a density from 0.860 g/cc to 0.910 g/cc, and a melt index from 1.5 g/10 min to 1,000 g/10 min; wherein the polyolefin is an ethylene/α-olefin multi-block copolymer; (ii) from 1 wt% to 15 wt% of a dispersant selected from the group consisting of an acrylic dispersant, a poloxamer, and combinations thereof, (iii) optionally, a polyolefin wax; (B) a second powder comprising an ethylene/α-olefin copolymer having (i) a density from 0.920 g/cc to 0.955 g/cc; (ii) a melt index from 1.0 g/10 min to 15 g/10 min; the second powder having a mean volume average particle size from 325 μm to 4,000 μm; and (i) a density from 0.920 g/cc to 0.955 g/cc; (ii) a melt index from 1.0 g/10 min to 15 g/10 min; rotational molding the blend to form a rotational molded article.
A securing mechanism for attaching the shaft of an implement to a tool, the mechanism comprising: a) a socket adapted to be secured to the tool, the socket including at least two grooves disposed on an interior surface of the socket and engageable with the shaft to maintain the alignment of the shaft with the mechanism; b) a locking sleeve including a central passage aligned with the socket and having a first taper and a second taper therein; c) a release collar aligned and inserted within the passage of the locking sleeve, the collar including a first bearing selectively engageable with the first taper and adapted to engage the shaft; d) a second bearing disposed within at least one opening in the socket positioned between the at least two grooves, the second bearing selectively engageable with the second taper and adapted to engage the shaft; e) a first biasing member disposed within the passage between the socket and the collar to bias the collar and the first bearing into engagement with the first taper; f)a positioning ring disposed around the socket within the passage of the locking sleeve and engaged between a second biasing member and the second bearing, the positioning ring engageable with the second bearing to bias the second bearing into engagement with the second taper; and g) a bushing disposed within the passage of the locking sleeve and engaged between the first biasing member and the release collar, the bushing engageable with the second bearing such that the first and second bearings can be released with a single action. a) a socket adapted to be secured to the tool, the socket including at least two grooves disposed on an interior surface of the socket and engageable with the shaft to maintain the alignment of the shaft with the mechanism; b) a locking sleeve including a central passage aligned with the socket and having a first taper and a second taper therein; c) a release collar aligned and inserted within the passage of the locking sleeve, the collar including a first bearing selectively engageable with the first taper and adapted to engage the shaft; d) a second bearing disposed within at least one opening in the socket positioned between the at least two grooves, the second bearing selectively engageable with the second taper and adapted to engage the shaft; e) a first biasing member disposed within the passage between the socket and the collar to bias the collar and the first bearing into engagement with the first taper; f)a positioning ring disposed around the socket within the passage of the locking sleeve and engaged between a second biasing member and the second bearing, the positioning ring engageable with the second bearing to bias the second bearing into engagement with the second taper; and g) a bushing disposed within the passage of the locking sleeve and engaged between the first biasing member and the release collar, the bushing engageable with the second bearing such that the first and second bearings can be released with a single action.
An exhaust gas inlet structure of an exhaust gas recirculation cooler comprising a water shell , a gas inlet pipe , an inlet chamber , a pre-cooling water chamber and a main board , the water shell is equipped with a water inlet pipe , whereby two ends of the pre-cooling water chamber are connected to the gas inlet pipe and the water shell , the inlet chamber is an one-grade reducing pipe including a large-bore end and a small-bore end , the large-bore end is connected with the main board to form a gas inlet cavity while leaving a space to form a coolant channel between the joint part and the water shell , an external surface of the small-bore end connects to the end of pre-cooling water chamber to form a pre-cooling cavity connected to the coolant channel . characterized in that the exhaust gas inlet structure comprises an insulated pipe placed within the pre-cooling water chamber and connected with the gas inlet pipe at one end while the other end is suspended.
An optical coherence tomography system , comprising: an interferometer that divides a swept optical signal between a reference arm and a sample arm and combines optical signals returning from the reference arm and the sample arm to generate an interference signal; an optical swept source system that generates the swept optical signal, which is controlled to frequency scan at at least two different sweep rates; a k-clock module that generates k-clock signals as the swept optical signal is scanned through intervals of optical frequency; a detection system that detects the interference signal at different optical frequency sampling intervals depending on the sweep rates by being triggered by the k-clock signals; characterized in that either the k-clock module comprises several reference clock modules (305-1, 305-2) and a clock selector for selecting among the reference clock signals depending upon the sweep rate selected for the optical swept source system to generate the k-clock signals, or the k-clock module comprises a k-clock multiplication module that multiplies a frequency of reference clock signals depending upon the sweep rate selected for the optical swept source system to generate the k-clock signals. an interferometer that divides a swept optical signal between a reference arm and a sample arm and combines optical signals returning from the reference arm and the sample arm to generate an interference signal; an optical swept source system that generates the swept optical signal, which is controlled to frequency scan at at least two different sweep rates; a k-clock module that generates k-clock signals as the swept optical signal is scanned through intervals of optical frequency; a detection system that detects the interference signal at different optical frequency sampling intervals depending on the sweep rates by being triggered by the k-clock signals; characterized in that either the k-clock module comprises several reference clock modules (305-1, 305-2) and a clock selector for selecting among the reference clock signals depending upon the sweep rate selected for the optical swept source system to generate the k-clock signals, or the k-clock module comprises a k-clock multiplication module that multiplies a frequency of reference clock signals depending upon the sweep rate selected for the optical swept source system to generate the k-clock signals.
Apparatus for producing three-dimensional work pieces, the apparatus comprising: - a carrier , - a powder application device for applying a raw material powder onto the carrier , - an irradiation device for selectively irradiating a laser beam onto the raw material powder applied onto the carrier , and - a control unit which is adapted to control the operation of the powder application device and the irradiation device in dependence on the crystallization behavior of the raw material powder, in order to tailor the microstructure of a work piece made of said raw material powder by an additive layer construction method, wherein the irradiation device comprises: - at least one radiation source and - at least one optical unit for guiding and/or processing the laser beam emitted by the radiation source , the optical unit comprising a scanner unit for changing and adapting a position of a focus of the laser beam both in a direction of a beam path of the laser beam and in a plane perpendicular to the beam path, wherein the control unit is adapted to control the radiation source and/or the optical unit so as to adjust the beam size of the laser beam irradiated onto the raw material powder applied onto the carrier so as to emit the laser beam having a diameter of more than 200 μm in order to obtain a substantially single crystalline or directionally/dendritically solidified microstructure in the generated work piece. - a carrier , - a powder application device for applying a raw material powder onto the carrier , - an irradiation device for selectively irradiating a laser beam onto the raw material powder applied onto the carrier , and - a control unit which is adapted to control the operation of the powder application device and the irradiation device in dependence on the crystallization behavior of the raw material powder, in order to tailor the microstructure of a work piece made of said raw material powder by an additive layer construction method, - at least one radiation source and - at least one optical unit for guiding and/or processing the laser beam emitted by the radiation source , the optical unit comprising a scanner unit for changing and adapting a position of a focus of the laser beam both in a direction of a beam path of the laser beam and in a plane perpendicular to the beam path,
Separator device for separating gas from a liquid flow, including: a housing having an inlet and an outlet for connecting to the liquid flow, a flow path extending from the inlet to the outlet for allowing liquid to flow through the housing; a valve arranged for allowing gas to escape from the housing; a float arranged for operating the valve; and a nozzle in communication with the liquid flow for spraying a part of the liquid of the liquid flow into the housing; characterized by a venturi in the liquid flow path for reducing a pressure inside the housing. a housing having an inlet and an outlet for connecting to the liquid flow, a flow path extending from the inlet to the outlet for allowing liquid to flow through the housing; a valve arranged for allowing gas to escape from the housing; a float arranged for operating the valve; and a nozzle in communication with the liquid flow for spraying a part of the liquid of the liquid flow into the housing; characterized by a venturi in the liquid flow path for reducing a pressure inside the housing.
Use of a composition comprising a hydrolyzed starch for reducing the stickiness, energy of grinding, yield stress and/or the viscosity of an aqueous mineral ore slurry during a grinding stage in a mineral ore recovery process, wherein the composition is added to the aqueous mineral ore slurry prior to or during the grinding stage.
An organic iodine trapping apparatus configured for trapping an organic iodine, comprising: a trapping vessel configured such, that a gas containing an organic iodine can be passed; an organic iodine remover that is disposed in or configured to be injected into the trapping vessel and adapted to decompose the organic iodine, the organic iodine remover being in liquid form; and a trapping material that is disposed in or configured to be injected into the trapping vessel , wherein the apparatus is adapted such, that said trapping material traps iodine ions generated by decomposition of the organic iodine, wherein the trapping material is a zero-valent metal composed of transition elements classified into one of the fourth period to the sixth period and one of the fourth group to the twelfth group, a metal-oxide catalyst composed of transition elements classified into one of said periods and groups, or a metal salt composed of transition elements classified into one of said periods and groups. a trapping vessel configured such, that a gas containing an organic iodine can be passed; an organic iodine remover that is disposed in or configured to be injected into the trapping vessel and adapted to decompose the organic iodine, the organic iodine remover being in liquid form; and a trapping material that is disposed in or configured to be injected into the trapping vessel , wherein the apparatus is adapted such, that said trapping material traps iodine ions generated by decomposition of the organic iodine, wherein the trapping material is a zero-valent metal composed of transition elements classified into one of the fourth period to the sixth period and one of the fourth group to the twelfth group, a metal-oxide catalyst composed of transition elements classified into one of said periods and groups, or a metal salt composed of transition elements classified into one of said periods and groups.
A GAD autoantigen for use in a method for treatment or prevention of autoimmune diabetes in an individual, comprising - Determining the HLA haplotype of the individual; and - Subjecting the individual to a treatment regimen based on said haplotype, wherein an individual having an HLA DR3-DQ2 haplotype is subjected to treatment with at least a GAD-autoantigen. - Determining the HLA haplotype of the individual; and - Subjecting the individual to a treatment regimen based on said haplotype,