mhurhangee/ep-ind-claims huggingface dataset:
A system that facilitates extracting data in connection with spam processing, comprising: a memory; a processor coupled to the memory; a component (120, 130, 220) adapted to receive an item (110, 210) and extract a set of features (232 - 236) associated with an origination of a message or part thereof and/or information that enables an intended recipient to contact a sender of the message, respond or receive in connection with the message, wherein the component that receives the item is further adapted to determine a last trusted server IP address to distinguish between legitimate and fake prepended server IP addresses and to extract the last trusted server IP address as a feature from the item, wherein a trusted server IP address refers to a server that is located inside of an organization; and a component adapted to employ a subset of the extracted features including the last trusted server IP address, in connection with building a filter (150, 270) by adding the subset of the extracted features to a training set of data utilized for training and updating the filter, wherein the filter determines a probability that the message is spam when the subset of extracted features passes through the filter, wherein the filter is a spam filter. a memory; a processor coupled to the memory; a component (120, 130, 220) adapted to receive an item (110, 210) and extract a set of features (232 - 236) associated with an origination of a message or part thereof and/or information that enables an intended recipient to contact a sender of the message, respond or receive in connection with the message, wherein the component that receives the item is further adapted to determine a last trusted server IP address to distinguish between legitimate and fake prepended server IP addresses and to extract the last trusted server IP address as a feature from the item, wherein a trusted server IP address refers to a server that is located inside of an organization; and a component adapted to employ a subset of the extracted features including the last trusted server IP address, in connection with building a filter (150, 270) by adding the subset of the extracted features to a training set of data utilized for training and updating the filter, wherein the filter determines a probability that the message is spam when the subset of extracted features passes through the filter, wherein the filter is a spam filter.
A method for the recovery of energy carriers from biomass in a fermentation process, characterised in that at least one isoquinoline alkaloid is added in order to promote the fermentation.
The use of N-methyl-N-acylglucamines as cold stabilizers in aqueous surfactant solutions comprising one or more anionic surfactants from the group consisting of alkyl sulfates and alkyl ether sulfates, and comprising betaine surfactants, where at least 90% by weight of the N-methyl-N-acylglucamines contain a C 8 -acyl or C 10 -acyl group.
A method for transmitting congestion information by a radio access network, RAN, node in a wireless communication system, the method comprising: detecting congestion based on monitoring of the RAN node; and transmitting the congestion information related to the detected congestion to a traffic control node in a core network, wherein the congestion information is used to control the congestion for a user equipment, UE, being served by the RAN node, and is included in an extension header of a uplink general packet radio service, GPRS, tunneling protocol-user plane, GTP-U, packet. detecting congestion based on monitoring of the RAN node; and transmitting the congestion information related to the detected congestion to a traffic control node in a core network, wherein the congestion information is used to control the congestion for a user equipment, UE, being served by the RAN node, and is included in an extension header of a uplink general packet radio service, GPRS, tunneling protocol-user plane, GTP-U, packet.
A method on a UE comprising: receiving, at the UE, a Reference Signal Time Difference, RSTD, measurement request from an entity in a wireless network, wherein the UE is one of a Bandwidth reduced-Low complexity, BL, UE, or an enhanced Machine Type Communication, eMTC, UE or a Further enhanced MTC, FeMTC, UE, and wherein the RSTD measurement request involves only one or more intra frequency measurements by the UE; transmitting, by the UE to a Base Station, BS, in response to the RSTD measurement request, a dedicated gap request comprising a requested configuration of one or more dedicated gaps, wherein the requested configuration of the one or more dedicated gaps comprises a gap duration that is at least 14ms or a gap periodicity that is greater than 80ms; wherein the requested configuration of the one or more dedicated gaps is based, at least in part, on a current operational mode of the UE, wherein the current operational mode of the UE is a Coverage Enhanced, CE, Mode in which a number of repetitions of messages is increased with respect to the number of repetitions used in a Normal Coverage, NC, mode to facilitate increased coverage; and receiving, at the UE, in response to the dedicated gap request, a message comprising a dedicated RSTD measurement gap configuration; and measuring a plurality of positioning reference signals, PRS, during a dedicated RSTD measurement gap. receiving, at the UE, a Reference Signal Time Difference, RSTD, measurement request from an entity in a wireless network, wherein the UE is one of a Bandwidth reduced-Low complexity, BL, UE, or an enhanced Machine Type Communication, eMTC, UE or a Further enhanced MTC, FeMTC, UE, and wherein the RSTD measurement request involves only one or more intra frequency measurements by the UE; transmitting, by the UE to a Base Station, BS, in response to the RSTD measurement request, a dedicated gap request comprising a requested configuration of one or more dedicated gaps, wherein the requested configuration of the one or more dedicated gaps comprises a gap duration that is at least 14ms or a gap periodicity that is greater than 80ms; wherein the requested configuration of the one or more dedicated gaps is based, at least in part, on a current operational mode of the UE, wherein the current operational mode of the UE is a Coverage Enhanced, CE, Mode in which a number of repetitions of messages is increased with respect to the number of repetitions used in a Normal Coverage, NC, mode to facilitate increased coverage; and receiving, at the UE, in response to the dedicated gap request, a message comprising a dedicated RSTD measurement gap configuration; and measuring a plurality of positioning reference signals, PRS, during a dedicated RSTD measurement gap.
A self-cleaning washing machine, comprising an outer tub and an inner tub, a chamber between the outer tub and the inner tub being provided with cleaning particles for cleaning an inner wall of the outer tub and an outer wall of the inner tub; wherein an accommodating chamber for collecting the cleaning particles is connected to a drainage outlet of the outer tub; characterized in that a shield cover is arranged at the drainage outlet, the shield cover rises or falls as a change of a water level in the washing machine or by a control of a control device to open or at least partially close the drainage outlet so that the cleaning particles are controllably flowed into the chamber or flowed back into the accommodating chamber.
A method for controlling the opening of at least some of the doors of a mass transit passenger vehicle for transporting passengers comprising a contactless detector adapted to send a door opening signal to a control unit which controls at least one door actuator of said some doors, the method being characterized in that it comprises at least the following steps: a) determining whether the vehicle is stopped or in motion, b) if the contactless detector is actuated when the vehicle is stopped, considering that opening of the doors has been requested and granting that request; c) if the contactless detector is actuated while the vehicle is in motion, comparing the actuation duration of the detector to a threshold value (ΔT) and, based on the results of the comparison, considering that opening of the doors has or has not been requested; d) if it is considered that opening of the doors has been requested in step c), granting that request the next time the vehicle is stopped. a) determining whether the vehicle is stopped or in motion, b) if the contactless detector is actuated when the vehicle is stopped, considering that opening of the doors has been requested and granting that request; c) if the contactless detector is actuated while the vehicle is in motion, comparing the actuation duration of the detector to a threshold value (ΔT) and, based on the results of the comparison, considering that opening of the doors has or has not been requested; d) if it is considered that opening of the doors has been requested in step c), granting that request the next time the vehicle is stopped.
Lactobacillus gasseri CP2305 strain (FERM BP-11331), a cold-tolerant derivative strain derived from Lactobacillus gasseri CP2305 strain (FERM BP-11331), a treated product thereof, or a mixture thereof for use in suppressing stress-induced diarrhea in a healthy subject, wherein the treated product thereof is dried cells, broken cells, disrupted cells, or in the form of fermented milk.
Method for providing a printing screen with a variety of area units, namely open areas to allow a printing medium to pass through and cover areas to prevent the printing medium from passing through, wherein the cover areas are connected by way of at least two connecting webs which have an area in a perpendicular projection, comprising the following steps: a) inserting a basic printing screen into a screenprinting apparatus, b) moving a doctor blade along a doctor blade path from a doctor blade starting area to a doctor blade turning area lying opposite thereto, c) simultaneously printing a printing medium through the open areas onto a substrate in the form of a printed layer, characterised by d) measuring the resulting thickness of the printed layer at a number of measuring points, e) ascertaining a target area size of the connecting webs which results in a smaller absolute thickness deviation of the layer f) changing the area of the connecting webs on the basis of the target area size ascertained, g) repeating steps a) to d). a) inserting a basic printing screen into a screenprinting apparatus, b) moving a doctor blade along a doctor blade path from a doctor blade starting area to a doctor blade turning area lying opposite thereto, c) simultaneously printing a printing medium through the open areas onto a substrate in the form of a printed layer, characterised by d) measuring the resulting thickness of the printed layer at a number of measuring points, e) ascertaining a target area size of the connecting webs which results in a smaller absolute thickness deviation of the layer f) changing the area of the connecting webs on the basis of the target area size ascertained, g) repeating steps a) to d).
A robot cleaner, comprising: a driving unit that moves a main body; a memory that stores driving state information of the driving unit recorded while performing a cleaning operation based on a first map; and a controller that finds a plurality of cleaning areas corresponding to the first map by dividing them into a first area and a second area based on the stored driving state information, wherein the controller generates a second map (801, 802) by removing either one of the first area and the second area from the first map, and performs a cleaning operation in a varied cleaning mode based on the generated second map; and wherein the controller sets at least part of the cleaning area of the first map that is not included in the second map as a cleaning attention area and adds it to the second map based on the stored driving state information; characterized in that wherein the controller increases the sensitivity level of at least one sensor provided in the main body than before while performing a cleaning operation in the cleaning attention area using the second map. a driving unit that moves a main body; a memory that stores driving state information of the driving unit recorded while performing a cleaning operation based on a first map; and a controller that finds a plurality of cleaning areas corresponding to the first map by dividing them into a first area and a second area based on the stored driving state information, wherein the controller generates a second map (801, 802) by removing either one of the first area and the second area from the first map, and performs a cleaning operation in a varied cleaning mode based on the generated second map; and wherein the controller sets at least part of the cleaning area of the first map that is not included in the second map as a cleaning attention area and adds it to the second map based on the stored driving state information; characterized in that wherein the controller increases the sensitivity level of at least one sensor provided in the main body than before while performing a cleaning operation in the cleaning attention area using the second map.
A method in a base station serving a cell, the base station using a frequency bandwidth and comprising an antenna arrangement (10, 20) and a controller, the antenna arrangement (10, 20) comprising a number of antenna devices and a beamformer (11, 21), the method comprising the steps of: - associating, in the beamformer (11, 21), at least a first and a second frequency band (f2, f3) with a respective first and a second beam (102, 103), each frequency band (f2, f3) comprising a part of the frequency bandwidth used by the base station, the at least first and second beam (102, 103) together covering the whole cell - dynamically determining, in the controller, a degree of utilization of the at least first and second frequency bands (f2, f3) within the at least first and second beam (102, 103), and - re-associating, in the beamformer (11, 21), the at least first and second frequency bands (f2, f3) with the first and second beam (102, 103), based on the determined degree of utilization of frequency bands (f2, f3), the step of re-associating comprises associating at least a part of un-used frequency spectrum in any of the at least first and second frequency bands (f2, f3) with a beam, the frequency band of which is fully utilized and de-associating the un-used frequency spectrum from the beam with which it is presently associated, and - wherein a part of the frequency band used by the base station is used for transmitting broadcast signals, this part of the frequency band covering the whole cell. - associating, in the beamformer (11, 21), at least a first and a second frequency band (f2, f3) with a respective first and a second beam (102, 103), each frequency band (f2, f3) comprising a part of the frequency bandwidth used by the base station, the at least first and second beam (102, 103) together covering the whole cell - dynamically determining, in the controller, a degree of utilization of the at least first and second frequency bands (f2, f3) within the at least first and second beam (102, 103), and - re-associating, in the beamformer (11, 21), the at least first and second frequency bands (f2, f3) with the first and second beam (102, 103), based on the determined degree of utilization of frequency bands (f2, f3), the step of re-associating comprises associating at least a part of un-used frequency spectrum in any of the at least first and second frequency bands (f2, f3) with a beam, the frequency band of which is fully utilized and de-associating the un-used frequency spectrum from the beam with which it is presently associated, and - wherein a part of the frequency band used by the base station is used for transmitting broadcast signals, this part of the frequency band covering the whole cell.
A gas-insulated line defining an axial direction and comprising an enclosure configured to surround a nominal conductor and a pressurized insulation gas in the enclosure, wherein the enclosure includes: - a first attachment point and a second attachment point, the first attachment point and the second attachment point being spaced apart from each other in the axial direction; - a rope element fixed between the first attachment point and the second attachment point and loaded with a pretension, wherein the rope element is a steel wire rope or carbon fiber rope or of any other suitable material; and - a flexible enclosure element arranged between the first attachment point and the second attachment point. - a first attachment point and a second attachment point, the first attachment point and the second attachment point being spaced apart from each other in the axial direction; - a rope element fixed between the first attachment point and the second attachment point and loaded with a pretension, wherein the rope element is a steel wire rope or carbon fiber rope or of any other suitable material; and - a flexible enclosure element arranged between the first attachment point and the second attachment point.
A recording medium, comprising: a base and an ink receiving layer, wherein the ink receiving layer contains a colloidal silica, a zirconium compound, an ammonium salt, and a hydroxycarboxylic acid, characterized in that 90% or more of the colloidal silica contained in the ink receiving layer exists in a region of 0 nm or more and 300 nm or less in a depth direction from an outermost surface of the recording medium.
An agricultural work machine, comprising: a communication system configured to receive a map that includes values of a biomass characteristic corresponding to different geographic locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of an agricultural characteristic corresponding to the geographic location; a predictive model generator configured to generate a predictive agricultural model that models a relationship between the biomass characteristic and the agricultural characteristic based on a value of the biomass characteristic in the map at the geographic location and the value of the agricultural characteristic detected by the in-situ sensor corresponding to the geographic location, a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive control values to the different geographic locations in the field based on the values of the biomass characteristic in the map and based on the value of the agricultural characteristic; wherein the predictive map generator is configured to generate the functional predictive agricultural map based on the values of the biomass characteristic in the map and based on the predictive agricultural model; a controllable subsystem; and a control system configured to generate a control signal to control the controllable subsystem based on the geographic location of the agricultural work machine and based on the control values in the functional predictive agricultural map. a communication system configured to receive a map that includes values of a biomass characteristic corresponding to different geographic locations in a field; a geographic position sensor configured to detect a geographic location of the agricultural work machine; an in-situ sensor configured to detect a value of an agricultural characteristic corresponding to the geographic location; a predictive model generator configured to generate a predictive agricultural model that models a relationship between the biomass characteristic and the agricultural characteristic based on a value of the biomass characteristic in the map at the geographic location and the value of the agricultural characteristic detected by the in-situ sensor corresponding to the geographic location, a predictive map generator configured to generate a functional predictive agricultural map of the field that maps predictive control values to the different geographic locations in the field based on the values of the biomass characteristic in the map and based on the value of the agricultural characteristic; wherein the predictive map generator is configured to generate the functional predictive agricultural map based on the values of the biomass characteristic in the map and based on the predictive agricultural model; a controllable subsystem; and a control system configured to generate a control signal to control the controllable subsystem based on the geographic location of the agricultural work machine and based on the control values in the functional predictive agricultural map.
A method for an interface element communicating between a Virtual Network Function pool and a control entity, the Virtual Network Function pool comprising a plurality of Virtual Network Function instances which include at least a first Virtual Network Function instance and a second Virtual Network Function instance, the plurality of Virtual Network Function instances registered with a Virtual Network Function pool registrar communicatively connected to the interface element, the Virtual Network Function pool registrar providing a handle to one of the Virtual Network Function instances to a pool user, the control entity controlling the Virtual Network Function instances of the Virtual Network Function pool by sending control messages, the interface element to assist in replicating a state of the first Virtual Network Function instance at least on the second Virtual Network Function instance, the method comprising steps of: - the interface element obtaining the control message from the control entity to the first Virtual Network Function instance, wherein the control message defines the state of the first Virtual Network Function instance; - the interface element providing the control message, or a derivation thereof, at least to the first Virtual Network Function instance and to the second Virtual Network Function instance; and - the interface element providing an acknowledgement of the control message to the control entity when the interface element has an acknowledgement of the control message or of the derivation thereof provided to the first Virtual Network Function instance and an acknowledgement of the control message or of the derivation thereof provided to the second Virtual Network Function instance. - the interface element obtaining the control message from the control entity to the first Virtual Network Function instance, wherein the control message defines the state of the first Virtual Network Function instance; - the interface element providing the control message, or a derivation thereof, at least to the first Virtual Network Function instance and to the second Virtual Network Function instance; and - the interface element providing an acknowledgement of the control message to the control entity when the interface element has an acknowledgement of the control message or of the derivation thereof provided to the first Virtual Network Function instance and an acknowledgement of the control message or of the derivation thereof provided to the second Virtual Network Function instance.