mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: establishing, at a base station, communication with a user equipment, UE; determining that the UE supports uplink communication over a plurality of services; configuring power control parameters for at least one service from the plurality of services supported by the UE, wherein configuring the power control parameters comprises correlating the power control parameters for the plurality of services with a single power control command; and transmitting the single power control command to the UE, to configure transmission power, based on the single power control command, for each of the plurality of services for the uplink communication establishing, at a base station, communication with a user equipment, UE; determining that the UE supports uplink communication over a plurality of services; configuring power control parameters for at least one service from the plurality of services supported by the UE, wherein configuring the power control parameters comprises correlating the power control parameters for the plurality of services with a single power control command; and transmitting the single power control command to the UE, to configure transmission power, based on the single power control command, for each of the plurality of services for the uplink communication
A method for configuring Impulse Noise Protection INP on a communication line, the method comprising: - configuring the communication line to use a retransmission mode for INP; - monitoring (101, 401) a first mean time between transmission errors in the retransmission mode; - if the first mean time between transmission errors is below a threshold, then determining parameters for a Forward Error Correction FEC and interleaving mode for INP, and reconfiguring the communication line to use the FEC and interleaving mode; - monitoring (104, 404) a second mean time between transmission errors in the FEC and interleaving mode; - if (105, 405) the second mean time between transmission errors is below the first mean time between transmission errors, then reconfiguring the communication line to use the retransmission mode. - configuring the communication line to use a retransmission mode for INP; - monitoring (101, 401) a first mean time between transmission errors in the retransmission mode; - if the first mean time between transmission errors is below a threshold, then determining parameters for a Forward Error Correction FEC and interleaving mode for INP, and reconfiguring the communication line to use the FEC and interleaving mode; - monitoring (104, 404) a second mean time between transmission errors in the FEC and interleaving mode; - if (105, 405) the second mean time between transmission errors is below the first mean time between transmission errors, then reconfiguring the communication line to use the retransmission mode.
A method implemented in a base station used in a wireless communications system, the method comprising: transmitting a first uplink, UL,-downlink, DL, configuration indicating a first downlink, DL, association set for long-term configuration of a first user equipment, UE; transmitting a reference configuration for short-term configuration of a second user equipment, UE, where the reference configuration corresponds to a second downlink, DL, association set; receiving from the second user equipment a HARQ-ACK, hybrid automatic repeat request-acknowledgement, signal according to a third DL association set determined by the first uplink, UL, -downlink, DL, configuration and the reference configuration; and performing physical uplink control channel, PUCCH, resource allocation for the third DL association set by using a specified PUCCH offset, wherein the third DL association set comprises: a first subset consisting of one or more fixed DL or special subframes; and a second subset consisting of one or more flexible subframes, and wherein, for subframes in the second subset, the PUCCH resource is allocated to flexible subframes with a higher probability of being used as DL subframes ahead of flexible subframes with lower probability of being used as DL subframes. transmitting a first uplink, UL,-downlink, DL, configuration indicating a first downlink, DL, association set for long-term configuration of a first user equipment, UE; transmitting a reference configuration for short-term configuration of a second user equipment, UE, where the reference configuration corresponds to a second downlink, DL, association set; receiving from the second user equipment a HARQ-ACK, hybrid automatic repeat request-acknowledgement, signal according to a third DL association set determined by the first uplink, UL, -downlink, DL, configuration and the reference configuration; and performing physical uplink control channel, PUCCH, resource allocation for the third DL association set by using a specified PUCCH offset, wherein the third DL association set comprises: a first subset consisting of one or more fixed DL or special subframes; and a second subset consisting of one or more flexible subframes, and a first subset consisting of one or more fixed DL or special subframes; and a second subset consisting of one or more flexible subframes, and wherein, for subframes in the second subset, the PUCCH resource is allocated to flexible subframes with a higher probability of being used as DL subframes ahead of flexible subframes with lower probability of being used as DL subframes.
Device for detecting and identifying play and checking the attachment of wheel, steering-assembly and suspension parts of vehicles, comprising a linearly displaceable carriage and a rotatable supporting plate which is configured to support a wheel of a vehicle, wherein said carriage is displaceable with respect to the supporting plate in a direction corresponding to the transverse direction of the vehicle, wherein the carriage comprises a rotatable structure (8, 9, 10) which is provided to rotate the supporting plate about an axis of rotation, characterized in that the rotatable structure comprises a rotatable axle and a transmission mechanism (8; 10) configured to transmit the rotating movement of the axle to the supporting plate, the device furthermore comprises first and second guide means in which said carriage is linearly displaceable, wherein the first guide means are provided on a structure situated underneath and wherein the second guide means are provided on the underside of the supporting plate, wherein the transmission mechanism comprises a transmission element connected to the rotatable axle and at least one guide element which is provided on the transmission element and which is displaceable in the second guide means, and in that the device comprises a first and second drive means, wherein the first drive means is configured to displace said carriage with respect to the supporting plate and wherein the second drive means is configured to rotate the rotatable axle in a clockwise and/or counterclockwise direction.
A subsea preloaded connector comprising a male component and a female component, the connector comprising engagement means to engage the male component with the female component and securement means to secure the male component to the female component, wherein the engagement means comprises an engagement means on one component (1, 2) which is arranged to move radially into an engagement with an engagement surface on the other component (1, 2) to initially engage the male component to the female component and wherein the connector comprises actuating means to actuate the securement means once the components (1, 2) are engaged, the securement means comprising a securement means on one component (1, 2) which moves radially into securement with a securement surface on the other component (1, 2) and wherein the securement means and the securement surface comprise cooperating securement surfaces which cause the connector to be preloaded on securement of the male and female components (1, 2), characterized in that the engagement is an automatic latching mechanism.
A sliding door system for a cabinet having at least one centre beam dividing the cabinet in at least two vertically extending compartments, said sliding door system comprising: a guide rail (200, 250) for supporting a sliding door, wherein the guide rail (200, 250) has at least one cut out at a position corresponding to the centre beam; at least a first bracket (100a, 100d) and a second bracket (100b, 100c) for securing the guide rail (200, 250) in front of the cabinet; wherein the first bracket (100a, 100d) is mountable on a side wall of the cabinet and the second bracket (100b, 100c) is mountable on a side of the centre beam that faces away from the side wall with the mounted first bracket (100a, 100d); whereby a force acting on the guide rail (200, 250) from an associated sliding door in a direction from the second bracket (100b, 100c) towards the first bracket (100a, 100d) is absorbed by the second bracket (100b, 100c) and the centre beam. a guide rail (200, 250) for supporting a sliding door, wherein the guide rail (200, 250) has at least one cut out at a position corresponding to the centre beam; at least a first bracket (100a, 100d) and a second bracket (100b, 100c) for securing the guide rail (200, 250) in front of the cabinet; wherein the first bracket (100a, 100d) is mountable on a side wall of the cabinet and the second bracket (100b, 100c) is mountable on a side of the centre beam that faces away from the side wall with the mounted first bracket (100a, 100d); whereby a force acting on the guide rail (200, 250) from an associated sliding door in a direction from the second bracket (100b, 100c) towards the first bracket (100a, 100d) is absorbed by the second bracket (100b, 100c) and the centre beam.
A method performed by a base unit, the method comprising: transmitting a broadcast signal on an anchor carrier, wherein the anchor carrier is within a guard band associated with a Long-Term Evolution, LTE, carrier, and the broadcast signal is a narrowband master information block, NB-MIB, which includes bandwidth information of the LTE carrier selected from the group comprising 5MHz, 10MHz, 15MHz, and 20MHz; and transmitting a narrowband system information, NB-SIB1, on a non-anchor carrier, wherein the non-anchor carrier is within the guard band associated with the LTE carrier, wherein the broadcast signal indicates: a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted. transmitting a broadcast signal on an anchor carrier, wherein the anchor carrier is within a guard band associated with a Long-Term Evolution, LTE, carrier, and the broadcast signal is a narrowband master information block, NB-MIB, which includes bandwidth information of the LTE carrier selected from the group comprising 5MHz, 10MHz, 15MHz, and 20MHz; and transmitting a narrowband system information, NB-SIB1, on a non-anchor carrier, wherein the non-anchor carrier is within the guard band associated with the LTE carrier, wherein the broadcast signal indicates: a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted. a frequency offset between the anchor carrier and the LTE carrier, and a frequency offset between the non-anchor carrier and the anchor carrier, wherein the frequency offset between the non-anchor carrier and the anchor carrier indicates an absolute frequency offset value of the non-anchor carrier and the anchor carrier and whether the non-anchor carrier on which the system information is transmitted has a higher or lower frequency than the anchor carrier on which the NB-MIB is transmitted.
A method for filtering a liquid/solid mixture of the type comprising the following steps: - a) a porous wall (18; 118) delimiting two areas which are opposite to each other (26, 28; 126, 128) and another porous wall (36; 136) delimiting two other areas (44, 46; 135, 139), and a liquid/solid mixture comprising an aqueous liquid phase and a solid phase are provided; - b) said liquid/solid mixture is brought into one of said two areas (26; 126), while a pressure lower than atmospheric pressure is applied in the other of said two areas (28; 128) so as to cause a flow of liquid phase through said porous wall (18; 118), to be able to obtain a residue in said one of said two areas; - c) said residue is brought into one of said two other areas (44; 135); and, - d) a pressure greater than atmospheric pressure is applied in said one of said two other areas (44; 135) so as to cause another flow of liquid phase through said other porous wall (36; 136), and to obtain another residue in said one of said two other areas; characterised in that calcium oxide with delayed reactivity is further provided in step a), while said other porous wall is closed on itself to form a filtration bag, said calcium oxide with delayed reactivity being dispersed in said liquid/solid mixture before step b); and in that in step d) said residue is injected under pressure inside said filtration bag, while steps b) to d) are implemented over a period of time less than the reaction time between said calcium oxide with delayed reactivity and the aqueous phase of said liquid/solid mixture. - a) a porous wall (18; 118) delimiting two areas which are opposite to each other (26, 28; 126, 128) and another porous wall (36; 136) delimiting two other areas (44, 46; 135, 139), and a liquid/solid mixture comprising an aqueous liquid phase and a solid phase are provided; - b) said liquid/solid mixture is brought into one of said two areas (26; 126), while a pressure lower than atmospheric pressure is applied in the other of said two areas (28; 128) so as to cause a flow of liquid phase through said porous wall (18; 118), to be able to obtain a residue in said one of said two areas; - c) said residue is brought into one of said two other areas (44; 135); and, - d) a pressure greater than atmospheric pressure is applied in said one of said two other areas (44; 135) so as to cause another flow of liquid phase through said other porous wall (36; 136), and to obtain another residue in said one of said two other areas;
A charging device for an image forming apparatus of the electrophotographic type, the charging device comprising: a discharging electrode; a casing surrounding said discharging electrode and being provided with an opening in a side of a member-to-be-charged; a grid electrode provided in the opening and provided with a mesh portion having a plurality of through holes; a cleaning brush, including a base material and a plurality of fibers held on the base material, for cleaning said grid electrode by entrance of a part of the fibers into the through holes while contacting a surface of said grid electrode in the discharging electrode side; a shutter capable of shielding between said member-to-be-charged and said grid electrode; and a moving mechanism for moving said cleaning brush and said shutter along a longitudinal direction of said grid electrode, characterized in that in case said shutter is moved by said moving mechanism in a closing direction for closing said opening of the casing along the longitudinal direction of said grid electrode, said cleaning brush is moved by said moving mechanism and is disposed in advance of a leading end portion of said shutter with respect to the closing direction by a predetermined interval or more. a discharging electrode; a casing surrounding said discharging electrode and being provided with an opening in a side of a member-to-be-charged; a grid electrode provided in the opening and provided with a mesh portion having a plurality of through holes; a cleaning brush, including a base material and a plurality of fibers held on the base material, for cleaning said grid electrode by entrance of a part of the fibers into the through holes while contacting a surface of said grid electrode in the discharging electrode side; a shutter capable of shielding between said member-to-be-charged and said grid electrode; and a moving mechanism for moving said cleaning brush and said shutter along a longitudinal direction of said grid electrode, characterized in that in case said shutter is moved by said moving mechanism in a closing direction for closing said opening of the casing along the longitudinal direction of said grid electrode, said cleaning brush is moved by said moving mechanism and is disposed in advance of a leading end portion of said shutter with respect to the closing direction by a predetermined interval or more.
A computer-implemented method comprising: determining a center of gravity of an aircraft during flight based on modelling flight performance of the aircraft; determining a position of the center of gravity as compared to a center of gravity margin of the aircraft; and automatically optimizing the position of the center of gravity by fuel transfer between fuel tanks and to optimize fuel efficiency in flight by considering location, size, and shape of the fuel tanks throughout the aircraft, wherein the automatically optimizing is based on the determining the position of the center of gravity compared to the center of gravity margin, and wherein the automatically optimizing further utilizes flight plan information to predict aircraft performance and to plan fuel transfer according to the predicted aircraft performance. determining a center of gravity of an aircraft during flight based on modelling flight performance of the aircraft; determining a position of the center of gravity as compared to a center of gravity margin of the aircraft; and automatically optimizing the position of the center of gravity by fuel transfer between fuel tanks and to optimize fuel efficiency in flight by considering location, size, and shape of the fuel tanks throughout the aircraft, wherein the automatically optimizing is based on the determining the position of the center of gravity compared to the center of gravity margin, and wherein the automatically optimizing further utilizes flight plan information to predict aircraft performance and to plan fuel transfer according to the predicted aircraft performance.
An access control device, wherein the access control device comprises: a restriction module, configured to restrict a rate at which the access control device receives an authentication packet; a detection module, configured to detect whether a packet that arrives at the access control device is an authentication start packet, wherein the authentication start packet is used to start an authentication process of a terminal that sends the authentication start packet and wherein the authentication packet is a packet used for access authentication of the terminal; and wherein the restriction module is further configured to restrict a rate at which the access control device receives the authentication start packet. a restriction module, configured to restrict a rate at which the access control device receives an authentication packet; a detection module, configured to detect whether a packet that arrives at the access control device is an authentication start packet, wherein the authentication start packet is used to start an authentication process of a terminal that sends the authentication start packet and wherein the authentication packet is a packet used for access authentication of the terminal; and wherein the restriction module is further configured to restrict a rate at which the access control device receives the authentication start packet.
Method for catalytically purifying the exhaust gas of combustion engines by means of a catalyst system having a main exhaust tract containing at least a first catalyst arranged close to the engine and a secondary exhaust tract, as well as a switching device for switching the exhaust gas stream to the main exhaust tract and/or the secondary exhaust tract, characterized in that the exhaust gas is guided through the main exhaust tract when the engine performs positive work and through the secondary exhaust tract when the engine does not perform any positive work, wherein the exhaust gas is then conducted through the secondary exhaust tract only if the exhaust gas temperature falls below a certain point, which is less than or equal to the light-off temperature of the catalyst, or exceeds 600 °C, and the catalyst in the main exhaust tract is selected from the group consisting of TWC's, DOC's, and NSC's, and, in the secondary exhaust tract, another catalyst is arranged, which is selected from the group consisting of TWC's, NSC's, DOC's, and HC adsorbers.
An image forming apparatus, comprising: obtaining means (102, S1602) for obtaining image data of an original by reading the original and a number of read originals; and image forming means for forming an image on a sheet based on the image data of the original obtained by said obtaining means; characterized by presentation means (106, S1605) for, if designated to insert a paper-sheet into sheets each on which an image is to be formed by said image forming means, presenting a number based on the number of said read originals as an insertion position of the paper-sheet with respect to the sheets, wherein the presented insertion position can be changed by a user, and wherein, when a job designates copying of bundles of originals, said obtaining means obtains image data of the bundles of originals and numbers of originals of the bundles, and said presentation means presents, when a bundle of originals has been read, a number based on the number of said read originals of said read bundle as said insertion position. obtaining means (102, S1602) for obtaining image data of an original by reading the original and a number of read originals; and image forming means for forming an image on a sheet based on the image data of the original obtained by said obtaining means; characterized by presentation means (106, S1605) for, if designated to insert a paper-sheet into sheets each on which an image is to be formed by said image forming means, presenting a number based on the number of said read originals as an insertion position of the paper-sheet with respect to the sheets, wherein the presented insertion position can be changed by a user, and wherein, when a job designates copying of bundles of originals, said obtaining means obtains image data of the bundles of originals and numbers of originals of the bundles, and said presentation means presents, when a bundle of originals has been read, a number based on the number of said read originals of said read bundle as said insertion position.