mhurhangee/ep-ind-claims huggingface dataset:
A method for frequency and power resource allocation carried out by a self-organizing network, SON, in which subscribers (102, 104, 106) are segmented into a plurality of groups based on subscriber type, the method comprising: assigning a priority level to each group of subscribers (406, 408, 410); generating a quality of experience, QoE, objective function for each group of subscribers (406, 408, 410) based on a QoE of each subscriber (102, 104, 106) within the group of subscribers (406, 408, 410); generating a total throughput objective function for each group of subscribers (406, 408, 410) based on a total throughput of each group of subscribers (406, 408, 410); combining the total throughput objective function and the QoE objective function as an aggregate objective function, AOF, wherein the AOF is weighted based on parameters obtained from one or more group policies for each group of subscribers (406, 408, 410); optimizing resources of the SON based on the AOF and considering a group of subscribers with highest priority, and assigning the optimized resources to the group of subscribers having the highest priority; and optimizing and assigning remaining resources of the SON to one or more groups of subscribers (408, 410) with lower priorities than the group with the highest priority. assigning a priority level to each group of subscribers (406, 408, 410); generating a quality of experience, QoE, objective function for each group of subscribers (406, 408, 410) based on a QoE of each subscriber (102, 104, 106) within the group of subscribers (406, 408, 410); generating a total throughput objective function for each group of subscribers (406, 408, 410) based on a total throughput of each group of subscribers (406, 408, 410); combining the total throughput objective function and the QoE objective function as an aggregate objective function, AOF, wherein the AOF is weighted based on parameters obtained from one or more group policies for each group of subscribers (406, 408, 410); optimizing resources of the SON based on the AOF and considering a group of subscribers with highest priority, and assigning the optimized resources to the group of subscribers having the highest priority; and optimizing and assigning remaining resources of the SON to one or more groups of subscribers (408, 410) with lower priorities than the group with the highest priority.
A rear-mounted tiller for a snow groomer for snow surface preparation and grooming, with a carrier structure and with a tiller box mounted on the carrier structure and open towards a snow piste, and with a driven work shaft arrangement which is rotatably mounted in the tiller box, wherein the rear-mounted tiller has at least one adjustment unit, which is arranged on the tiller box, and one side finisher unit, wherein the adjustment unit is configured to set a position of the side finisher unit relative to the tiller box during movement of the snow groomer, and wherein the rear-mounted tiller is configured to set a tilling depth of the driven work shaft arrangement, characterized in that the adjustment unit is configured to set the position of the side finisher unit relative to the tiller box and dependent on the set tilling depth of the driven work shaft arrangement.
A method for resource scheduling of a network node (61, 63, 70), comprising: obtaining radio resources scheduled for user equipment, UE,; and transmitting to the UE scheduling information, wherein the scheduling information comprises the scheduled radio resources and is configured to indicate an activation time of the scheduled radio resources, wherein the scheduling information is further configured to instruct the UE to use the scheduled radio resources to transmit or receive data after a predetermined time or after the activation time indicated by the scheduling information, and characterized in that: a priority for a pre-scheduling scheme related to the scheduling information is predefined with respect to a priority of at least one of semi-persistent scheduling and dynamic scheduling. obtaining radio resources scheduled for user equipment, UE,; and transmitting to the UE scheduling information, wherein the scheduling information comprises the scheduled radio resources and is configured to indicate an activation time of the scheduled radio resources, wherein the scheduling information is further configured to instruct the UE to use the scheduled radio resources to transmit or receive data after a predetermined time or after the activation time indicated by the scheduling information, and characterized in that: a priority for a pre-scheduling scheme related to the scheduling information is predefined with respect to a priority of at least one of semi-persistent scheduling and dynamic scheduling.
A method on a roadside unit, RSU, comprising: receiving a point-to-multipoint broadcast including incident information, wherein the incident information is from a first vehicle-to-X, V2X, message; broadcasting the incident information received in the point-to-multipoint broadcast; receiving a second V2X message including information associated with the incident, the second V2X message received from a user equipment, UE, and occurring before the point-to-multipoint broadcast and the first V2X message; sending the information associated with the incident included in the second V2X message to a network entity, broadcasting the information associated with the incident included in the second V2X message; and refraining from broadcasting the information associated with the incident included in the second V2X message upon broadcasting the incident information received from the point-to-multipoint broadcast. receiving a point-to-multipoint broadcast including incident information, wherein the incident information is from a first vehicle-to-X, V2X, message; broadcasting the incident information received in the point-to-multipoint broadcast; receiving a second V2X message including information associated with the incident, the second V2X message received from a user equipment, UE, and occurring before the point-to-multipoint broadcast and the first V2X message; sending the information associated with the incident included in the second V2X message to a network entity, broadcasting the information associated with the incident included in the second V2X message; and refraining from broadcasting the information associated with the incident included in the second V2X message upon broadcasting the incident information received from the point-to-multipoint broadcast.
A process for the manufacture of a lactic acid oligomer consisting of the steps: contacting lactide in the presence of a catalyst with at least one compound, wherein said compound is a polymer selected from the group comprising polypropylene, polyethylene, poly lactic acid, poly lactic acid, poly (D,L) lactic acid, polysiloxane, polybutylene succinate, polytrimethylene carbonate, polyester, polyether, polystyrene, polyisoprene, polycarbonate, polyalkylenecarbonate, polyvinyl alcohol, polyurethane, and polyacrylate, and containing n number of OH and/or NH 2 group(s), where n is an integer greater than or equal to 1, and wherein M o l e s o f L a c t i d e M o l e s o f C o m p o u n d * n ≤ 70, and wherein the reaction is performed at a temperature of at least 70°C.
Method for transmitting a signal, the method comprising transforming a signal (a(n)) into a frequency domain to obtain a spectrum; mapping the spectrum comprising N symbols occupying a number of N subcarriers to a number of M subcarriers with M>N, wherein M denotes a number of symbols of the transmitted signal in the medium to accessed for transmission; repeating the obtained spectrum occupying the number of N subcarriers out of the number of M available subcarriers for a number of F times in the frequency domain to obtain a repeated spectrum b(k), wherein F denotes an upsampling factor; forming a filtered spectrum according to a filter spectrum; transforming a frequency domain representation of an Orthogonal Frequency Division Multiplex (OFDM) signal comprising the filtered spectrum in the frequency domain, into a time domain to obtain a temporary signal (c(k)); and subjecting the temporary signal to a phase modulation; wherein the method comprises repeating the spectrum for one or more times to obtain a repeated spectrum (b(k)), such that the filtered spectrum is formed based on the repeated spectrum (b(k)).
A method for cooling a forming and stamping mould, consisting of two mould halves and having an upper mould and a lower mould, of a thermoforming machine, the upper mould and the lower mould being supplied with a coolant by a central cooler, which is connected by its feed and its return to cooling circuits (28b, 28a) of the two mould halves (2, 3), there being a temperature sensor (29a, 29b; 30a, 30b) provided in the feed and in the return in each cooling circuit (28a, 28b) and connected to a controller which actuates a means for adjusting the coolant flow when a temperature difference is detected by the sensors (29a, 29b; 30a, 30b), characterised in that the temperature difference (Δt) of one mould half is adjusted depending on the temperature difference (Δt) of the other mould half until the temperature differences are the same in both mould halves (2, 3), wherein the Δt detected over the whole mould forming face by the temperature sensors (29a, 29b) of one mould half (2, 3) in the film movement direction is used as the target value for the difference adjustment.
Offshore construction with at least three supporting legs and a respective suction foot associated with each of the supporting legs in a longitudinal direction on a lower end, and a platform which is movable back and forth along the supporting legs and the suction feet between a transport position, in which the platform is arranged between the suction feet, and an operating position, in which the suction feet are arranged below the platform, wherein in a cross-section perpendicular to the longitudinal direction each of the supporting legs is arranged completely inside an outer circumference of the associated suction foot, characterised in that each of the supporting legs is connected by means of a connecting element to the platform and the platform is designed to be movable back and forth relative to the connecting element and the connecting element is designed to be movable back and forth relative to the supporting leg.
A hub apparatus (30, 200) for a distributed antenna system comprising: a band extractor configured to receive downlink mobile communication signals from different operators, wherein each of the downlink mobile communication signals includes a plurality of sub-band signals having different service bands each other, and extract sub-band signals corresponding to a same service band, with respect to each of the service bands, from the downlink mobile communication signals; and a signal summer configured to digitally sum the extracted sub-band signals with respect to each of the service bands. a band extractor configured to receive downlink mobile communication signals from different operators, wherein each of the downlink mobile communication signals includes a plurality of sub-band signals having different service bands each other, and extract sub-band signals corresponding to a same service band, with respect to each of the service bands, from the downlink mobile communication signals; and a signal summer configured to digitally sum the extracted sub-band signals with respect to each of the service bands.
A cationic polyoxometalate-coated alumina trihydrate dispersant (Cationic POM Dispersant), wherein the polyoxometalate is polyaluminum chloride, said Cationic POM Dispersant comprising a reaction product of: a. a polyaluminum chloride having a basicity of about 20 % to about 40 % and an Al 2 O 3 content of about 10 wt.% to about 17 wt.%; and b. crystalline alumina trihydrate particles; wherein the cationic POM dispersant has a pH of ≤ 2.5. a. a polyaluminum chloride having a basicity of about 20 % to about 40 % and an Al 2 O 3 content of about 10 wt.% to about 17 wt.%; and b. crystalline alumina trihydrate particles;
A recovery winch attachment, comprising: a base having a fairlead engagement surface and defining a void space in the fairlead engagement surface; a recovery line retention mechanism within the void space in the base and recessed from a plane established by the fairlead engagement surface; and characterised in that the the recovery winch attachment further comprises a shackle attachment tab connected to and extending outwardly from the base and configured to receive a shackle pin of a shackle through a mounting hole defined within and extending through a thickness of the shackle attachment tab; wherein an orientation the recovery line retention mechanism is transverse to a longitudinal axis of the mounting hole extending through the thickness of the shackle attachment tab. a base having a fairlead engagement surface and defining a void space in the fairlead engagement surface; a recovery line retention mechanism within the void space in the base and recessed from a plane established by the fairlead engagement surface; and characterised in that the the recovery winch attachment further comprises a shackle attachment tab connected to and extending outwardly from the base and configured to receive a shackle pin of a shackle through a mounting hole defined within and extending through a thickness of the shackle attachment tab; wherein an orientation the recovery line retention mechanism is transverse to a longitudinal axis of the mounting hole extending through the thickness of the shackle attachment tab.
A rotor blade for a gas turbine engine, comprising: an inner ply layer group that at least partially defines a base of a root region; a platform defined by at least two platform sections (90A, 90B) that surround the inner ply layer group and at least partially define the base; and a platform over-wrap around the platform, the platform over-wrap at least partially defines the base. an inner ply layer group that at least partially defines a base of a root region; a platform defined by at least two platform sections (90A, 90B) that surround the inner ply layer group and at least partially define the base; and a platform over-wrap around the platform, the platform over-wrap at least partially defines the base.
A communication method, comprising: receiving, by a security node network element, an uplink data packet from a terminal; determining, by the security node network element, that the uplink data packet is transmitted via a first security connection or a second security connection; wherein the first security connection is used to transmit a data packet carrying a user plane data, and the second security connection is used to transmit a data packet carrying a control signaling; and sending, by the security node network element, a first control signaling carried in the uplink data packet to a control plane function entity if the uplink data packet is transmitted via the second security connection; and sending, by the security node network element, a first user plane data carried in the uplink data packet to a user plane function entity if the uplink data packet is transmitted via the first security connection. receiving, by a security node network element, an uplink data packet from a terminal; determining, by the security node network element, that the uplink data packet is transmitted via a first security connection or a second security connection; wherein the first security connection is used to transmit a data packet carrying a user plane data, and the second security connection is used to transmit a data packet carrying a control signaling; and sending, by the security node network element, a first control signaling carried in the uplink data packet to a control plane function entity if the uplink data packet is transmitted via the second security connection; and sending, by the security node network element, a first user plane data carried in the uplink data packet to a user plane function entity if the uplink data packet is transmitted via the first security connection.
A method performed by a security system control device in a security system for automatically re-enabling monitoring of a security sensor that has been bypassed, comprising: placing the security system in a first mode of operation; receiving, by a processor, a command to bypass the security sensor, wherein bypassing the security sensor comprises ignoring, by the processor, future alarm signals received from the security sensor; receiving, by the processor, an indication from a user to change an operating mode of the security system from a first operating mode to a second operating mode; and in response to receiving the indication to change the operating mode of the security system, begin processing future alarm signals received from the security sensor via the receiver, wherein the first mode of operation is armed-home in which the security system control device monitors all barrier alarms but ignores signals transmitted by motion sensors used to detect motion and the second mode of operation is armed-away in which the security system control device monitors all of the barrier alarms and motion sensors. placing the security system in a first mode of operation; receiving, by a processor, a command to bypass the security sensor, wherein bypassing the security sensor comprises ignoring, by the processor, future alarm signals received from the security sensor; receiving, by the processor, an indication from a user to change an operating mode of the security system from a first operating mode to a second operating mode; and in response to receiving the indication to change the operating mode of the security system, begin processing future alarm signals received from the security sensor via the receiver, wherein the first mode of operation is armed-home in which the security system control device monitors all barrier alarms but ignores signals transmitted by motion sensors used to detect motion and the second mode of operation is armed-away in which the security system control device monitors all of the barrier alarms and motion sensors.
An insulating product comprising loose-fill glass wool in the form of down, characterized in that the mass distribution of the agglomerates which is obtained by screening 2 to 5 g of insulating product using a vibrating sieve shaker comprising a stack of screens and a maximum amplitude of oscillation of 3 mm set to between 1.5 and 2.5 mm, preferably to between 1.8 and 2.2 mm and better still to 2 mm for 5 minutes, exhibits: - a mass percentage of agglomerates passing through the 6 mm screen of less than 5 wt%, preferably less than 3 wt% and/or - a mass percentage of agglomerates passing through the 13 mm screen of less than 50 wt%, preferably less than 40 wt%, or even less than 35 wt%. - a mass percentage of agglomerates passing through the 6 mm screen of less than 5 wt%, preferably less than 3 wt% and/or - a mass percentage of agglomerates passing through the 13 mm screen of less than 50 wt%, preferably less than 40 wt%, or even less than 35 wt%.
Method for manufacture of a copper profile from a copper starting material, in particular of a copper wire, comprising the following steps - electrolytic purification of the copper starting material, whereby the copper starting material is introduced in a copper-containing electrolyte in an electrolytic bath (111, 113, 115) comprising at least one electrode (131, 133, 135), the electrode is polarised by means of a voltage supply (137, 139) and the copper starting material is polarised by way of the electrolyte, so that the copper starting material is free of any direct voltage supply, whereby the electrode or the electrodes is or are polarised cathodically, so that copper detaches itself from the copper starting material in the electrolytic bath, whereby a further electrolytic bath (111, 115) is connected upstream and/or downstream of the electrolytic bath, whereby the at least one electrode or the electrodes of the further electrolytic bath is or are polarised anodically, so that copper from the copper-containing electrolyte of the further electrolytic bath is deposited onto the copper starting material and - extrusion of the electrolytically purified copper starting material through a forming die, so that the copper profile is obtained. - electrolytic purification of the copper starting material, whereby the copper starting material is introduced in a copper-containing electrolyte in an electrolytic bath (111, 113, 115) comprising at least one electrode (131, 133, 135), the electrode is polarised by means of a voltage supply (137, 139) and the copper starting material is polarised by way of the electrolyte, so that the copper starting material is free of any direct voltage supply, whereby the electrode or the electrodes is or are polarised cathodically, so that copper detaches itself from the copper starting material in the electrolytic bath, whereby a further electrolytic bath (111, 115) is connected upstream and/or downstream of the electrolytic bath, whereby the at least one electrode or the electrodes of the further electrolytic bath is or are polarised anodically, so that copper from the copper-containing electrolyte of the further electrolytic bath is deposited onto the copper starting material and - extrusion of the electrolytically purified copper starting material through a forming die, so that the copper profile is obtained.
An overhung axial turbine, comprising: a housing defining a cavity; and a unitary cartridge releasably secured in the cavity, the unitary cartridge including: a rotor having a rotational axis, the rotor including a plurality of bladed rotor plates; and a stator, including a plurality of bladed stator plates and at least one stator spacer segment, the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment; wherein said rotor plates and stator plates are positioned in an alternating inter-digitated relationship, and said rotor plates and stator plates each have two substantially flat and substantially parallel contact surfaces (130, 132, 134, 136) which are arranged perpendicular to the rotational axis. a housing defining a cavity; and a unitary cartridge releasably secured in the cavity, the unitary cartridge including: a rotor having a rotational axis, the rotor including a plurality of bladed rotor plates; and a stator, including a plurality of bladed stator plates and at least one stator spacer segment, the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment; a rotor having a rotational axis, the rotor including a plurality of bladed rotor plates; and a stator, including a plurality of bladed stator plates and at least one stator spacer segment, the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment; wherein said rotor plates and stator plates are positioned in an alternating inter-digitated relationship, and said rotor plates and stator plates each have two substantially flat and substantially parallel contact surfaces (130, 132, 134, 136) which are arranged perpendicular to the rotational axis.