mhurhangee/ep-ind-claims huggingface dataset:
A method at a relay node for providing user agent, UA, encoded data to an access node in a wireless telecommunication system, the relay node and the access node being in communication with each other over a relay link, the method comprising: receiving the UA data from a UA, the relay node and the UA being in communication to each other over an access link; waiting to detect an acknowledgment, ACK, message from the access node to the UA indicating that the access node has successfully received the UA data, and in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node; characterized in that the method further comprises receiving, from the access node over the relay link, a request for retransmission of the received UA data in cases where the UA data has not been successfully decoded by the access node, the request being specifically directed to the relay node. receiving the UA data from a UA, the relay node and the UA being in communication to each other over an access link; waiting to detect an acknowledgment, ACK, message from the access node to the UA indicating that the access node has successfully received the UA data, and in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node; in an absence of detecting the ACK message: sending the received UA data to the access node and continuing to send the received UA data to the access node until detecting the ACK message from the access node to the UA indicating that the access node has successfully received the UA data; and after detecting the ACK message: stopping sending the received UA data to the access node; characterized in that the method further comprises receiving, from the access node over the relay link, a request for retransmission of the received UA data in cases where the UA data has not been successfully decoded by the access node, the request being specifically directed to the relay node.
Method for producing a hybrid component part assembled from at least one metal component (1; 1', 1") and at least one polymeric, preferably fibre-reinforced component, wherein the metal component (1; 1', 1") and the polymeric component are integrally joined under the influence of heat, characterised in that the metal component (1; 1', 1") is tubular or is formed as a C-profile, and comprises a cavity (1.1) for receiving a portion (2.1) of the polymeric component, and the metal component (1; 1', 1") and/or the polymeric component are selected or machined such that the inner width of the cavity (1.1) for receiving the portion (2.1) of the polymeric component before the integral joining process is smaller than the external dimensions of the cross section of the portion (2.1) of the polymeric component to be arranged in the cavity (1.1), in that the metal component (1; 1', 1") is heated such that the inner width of the cavity (1.1) increases and is then larger than or equal to the external dimensions of the cross section of the portion (2.1) of the polymeric component to be arranged in the cavity (1.1), in that said portion (2.1) of the polymeric component is arranged in the cavity (1.1) widened by the heating process, and in that the integral connection between the metal component (1; 1', 1") and the polymeric component is achieved by melting of at least the surface of said portion (2.1) of the polymeric component on account of the heat of the heated metal component (1; 1', 1"), by shrinking of the widened cavity (1.1) as a result of cooling of the heated metal component (1; 1', 1"), and by contact and/or pressure between the metal component (1; 1', 1") and the polymeric component caused by the shrinking.
A method for performance reporting in a wireless network, wherein at least one terminal is associated with multiple terminal report servers by a means of information in the at least one terminal, and wherein the multiple terminal report servers gather reports from the at least one terminal on perceived performance of a service, the method comprising, in the at least one terminal, the steps of: - retrieving an operator identity, wherein the operator identity is retrieved from subscriber identity information that comprises an International Mobile Subscriber Identity, IMSI, and wherein the IMSI comprises the operator identity in terms of a Mobile Country Code, MCC, and a Mobile Network Code, MNC; - retrieving information identifying the associated multiple terminal report servers, wherein the information identifying the associated multiple terminal report servers is stored as a terminal report server string; - retrieving a tracking area identity, wherein the tracking area identity comprises at least a tracking area code; - combining the operator identity, the information identifying the associated multiple terminal report servers, and a part of the tracking area identity to compile a fully qualified domain name of the multiple terminal report servers; - communicating the fully qualified domain name to a domain name server; - receiving connectivity information of the multiple terminal report servers, wherein the received connectivity information is based on the fully qualified domain name communicated to the domain name server; and - setting up performance report sessions to the associated multiple terminal report servers by means of the received connectivity information. - retrieving an operator identity, wherein the operator identity is retrieved from subscriber identity information that comprises an International Mobile Subscriber Identity, IMSI, and wherein the IMSI comprises the operator identity in terms of a Mobile Country Code, MCC, and a Mobile Network Code, MNC; - retrieving information identifying the associated multiple terminal report servers, wherein the information identifying the associated multiple terminal report servers is stored as a terminal report server string; - retrieving a tracking area identity, wherein the tracking area identity comprises at least a tracking area code; - combining the operator identity, the information identifying the associated multiple terminal report servers, and a part of the tracking area identity to compile a fully qualified domain name of the multiple terminal report servers; - communicating the fully qualified domain name to a domain name server; - receiving connectivity information of the multiple terminal report servers, wherein the received connectivity information is based on the fully qualified domain name communicated to the domain name server; and - setting up performance report sessions to the associated multiple terminal report servers by means of the received connectivity information.
Evaporator device comprising a basic body with at least one inlet line and at least one outlet line, in which basic body is provided at least one heating element and at least one duct for connecting the inlet line to the outlet line, with the at least one heating element being in heat-conducting contact with an evaporation section of the at least one duct, and with the at least one duct having a meandering profile in said evaporation section, with at least the evaporation section of the at least one duct at least partially comprising at least one pipe, with the pipe being cast integrally into the basic body such that the pipe is cohesively connected to the basic body.
An aqueous emulsion comprising at least a covalently bound vinyl oligomer and vinyl polymer, wherein said vinyl oligomer comprises 5 to 85 mol% of vinyl monomers bearing quaternary ammonium ion functional groups and/or quaternisable amine functional groups and is obtained by a controlled radical polymerisation of at least one vinyl monomer via a reversible addition-fragmentation chain transfer mechanism in solution in the presence of a control agent and a source of free radicals; wherein said vinyl polymer is obtained by radical emulsion polymerisation of vinyl monomers in the presence of the vinyl oligomer; wherein the weight % ratio of vinyl oligomer to vinyl polymer is in the range of from 0.5: 99.5 to 65: 35; and where, the vinyl oligomer has a number average molecular weight Mn ≤ 50,000 g /mol; and the vinyl polymer has a weight average molecular weight Mw ≥ 10,000 g/mol.
A method for selecting a routing serving GPRS support node, SGSN, wherein the method comprises: receiving a routing area update, RAU, message sent by a mobile station, MS; obtaining information of a circuit switched, CS, domain operator of the MS if a cell on which the MS camps is shared by at least two operators; and selecting an SGSN from SGSNs of the CS domain operator of the MS as a routing SGSN of the MS according to the information, wherein the MS simultaneously runs a CS service and a packet switched, PS, service, characterized in that the RAU message is carried on a dedicated control channel, DCCH, of the CS service. receiving a routing area update, RAU, message sent by a mobile station, MS; obtaining information of a circuit switched, CS, domain operator of the MS if a cell on which the MS camps is shared by at least two operators; and selecting an SGSN from SGSNs of the CS domain operator of the MS as a routing SGSN of the MS according to the information, wherein the MS simultaneously runs a CS service and a packet switched, PS, service, characterized in that the RAU message is carried on a dedicated control channel, DCCH, of the CS service.
System comprising a multimode optical fiber for continuous transmission of electromagnetic radiation at high power, said multimode optical fiber defining a fiber axis and comprising a core and a cladding surrounding the core, and wherein the multimode optical fiber is a multimode graded-index fiber, the refraction index profile in the fiber following the formula: n r = { n 1 1 − 2 r a g Δ 1 / 2, r < a n 2, r > a where Δ = n 1 2 − n 2 2 2 n 1 2, r is the distance from the fiber axis, n(r) is the nominal refractive index as a function of distance from the fiber axis, n 1 is the nominal refractive index on the axis of the fiber, n 2 is the refractive index of the cladding, a is the core radius, and g is a parameter that defines the shape of the profile, characterized in that the core diameter 2a is comprised between 90 μm and 190 μm, the parameter g is comprised between 1.2 and 1.8, and the numerical aperture of the fiber, where NA = n 1 2 − n 2 2, is comprised between 0.2 and 0.3, and in that the system comprises an electromagnetic radiation source configured to input continuous optical power into the multimode optical fiber, wherein the multimode optical fiber has a length above 500 meters and the input optical power is equal or greater than 1 W, wherein inputting said electromagnetic radiation includes inputting an electromagnetic radiation having an optical power below an input threshold value, wherein said input threshold value of said input optical power is equal to: P thr g = 10 log 3.6 π 10 13 a 2 A g V 2 / g + 2 + B g V 3 / 2 + C g V 6 2, where V = ( 2aπ / λ) NA, A g = 2 5 1 + 4 2 g 5 / 6 1 / 2, B g = e 0.298 / g − 1 + 1.478 1 − e − 0.077 g, and C g = 3.76 + exp 4.19 / g 0.418. r is the distance from the fiber axis, n(r) is the nominal refractive index as a function of distance from the fiber axis, n 1 is the nominal refractive index on the axis of the fiber, n 2 is the refractive index of the cladding, a is the core radius, and g is a parameter that defines the shape of the profile, the core diameter 2a is comprised between 90 μm and 190 μm, the parameter g is comprised between 1.2 and 1.8, and the numerical aperture of the fiber, where NA = n 1 2 − n 2 2, is comprised between 0.2 and 0.3,
Aqueous dispersion comprising particles of water-soluble polymer of average molecular weight greater than or equal to 0.5 million daltons, or of water-swellable polymer, and a mixture of at least one sulfate salt and at least one phosphate salt in weight proportions of between 25:75 and 75:25, the water-soluble or water-swellable polymer is a homopolymer of acrylamide or methacrylamide or a copolymer of acrylamide or methacrylamide and of an anionic monomer selected from among acrylic acid, methacrylic acid, 2-acrylamido-2-methylpropane sulfonic acid and the salts thereof, or is a copolymer of acrylamide or methacrylamide and of a cationic monomer selected from among quaternized dialkylaminoethyl acrylate (DAMEA), quaternized dialkylaminoethyl methacrylate (DAMEMA), diallyldimethylammonium chloride (DADMAC), acrylamido propyltrimethylammonium chloride (APTAC), and methacrylamido propyltrimethylammonium chloride (MAPTAC), the mixture of at least one sulfate salt and at least one phosphate salt being a mixture of ammonium sulfate and diammonium phosphate, the phosphate salt is not a polyphosphate salt. the mixture of at least one sulfate salt and at least one phosphate salt being a mixture of ammonium sulfate and diammonium phosphate, the phosphate salt is not a polyphosphate salt.
Method for building a high temperature thermal energy storage, wherein the method comprises the steps: to build a thermally insulated foundation for the storage, to build at least one self-supported cassette containing a number of concrete thermal energy storage elements, which cassette is a self-supporting frame or structure with respect to transport and installation, by building said frame or structure, by building a number of individual concrete thermal energy storage elements, some or all of said elements comprising heat exchangers embedded in said concrete, and by arranging said elements in said frame or structure, to arrange and/or build the at least one cassette on said foundation, to build and operatively connect a pipe system, the pipe system comprising an inlet and an outlet for thermal input to and output from the storage, respectively, and connections to the heat exchangers for circulating fluid through said heat exchangers for thermal energy input to or output from said thermal energy storage elements, and to arrange thermal insulation around and on top of the self-supporting cassettes containing concrete thermal energy storage elements. to build a thermally insulated foundation for the storage, to build at least one self-supported cassette containing a number of concrete thermal energy storage elements, which cassette is a self-supporting frame or structure with respect to transport and installation, by building said frame or structure, by building a number of individual concrete thermal energy storage elements, some or all of said elements comprising heat exchangers embedded in said concrete, and by arranging said elements in said frame or structure, by building said frame or structure, by building a number of individual concrete thermal energy storage elements, some or all of said elements comprising heat exchangers embedded in said concrete, and by arranging said elements in said frame or structure, to arrange and/or build the at least one cassette on said foundation, to build and operatively connect a pipe system, the pipe system comprising an inlet and an outlet for thermal input to and output from the storage, respectively, and connections to the heat exchangers for circulating fluid through said heat exchangers for thermal energy input to or output from said thermal energy storage elements, and to arrange thermal insulation around and on top of the self-supporting cassettes containing concrete thermal energy storage elements.
A coupling assembly for a drive shaft assembly, the coupling assembly comprising: a first portion and a second portion which are configured to couple to one another such that the second portion is capable of rotationally driving the first portion about an axis of rotation; wherein the first portion is provided with a first magnet and the second portion is provided with a second magnet; wherein the first and second magnets (111, 121) are arranged to repel each other such that the first and second portions (110, 120) are biased away from each other in an axial direction that is parallel to the axis of rotation; and characterised in that the first and second portions (110, 120) are operatively connected by means of a splined coupling. a first portion and a second portion which are configured to couple to one another such that the second portion is capable of rotationally driving the first portion about an axis of rotation; wherein the first portion is provided with a first magnet and the second portion is provided with a second magnet; wherein the first and second magnets (111, 121) are arranged to repel each other such that the first and second portions (110, 120) are biased away from each other in an axial direction that is parallel to the axis of rotation; and characterised in that the first and second portions (110, 120) are operatively connected by means of a splined coupling.
Vacuum cleaner filter bag (101; 201) with a bag wall, wherein the bag wall comprises at least one biodegradable nonwoven layer, wherein the biodegradable nonwoven is an extrusion nonwoven characterized in that the at least one biodegradable nonwoven layer comprises polylactide, PLA.
A method carried out by a network node of a wireless communication system, wherein the wireless communication system is adapted to operate in accordance with a first, system standard, latency requirement comprising a first latency, the method comprising: receiving a message from a wireless communication device, the message indicating that the wireless communication device is adapted to transmit data associated with a second latency requirement comprising a second latency which is lower than the first latency; selecting a first configuration for the wireless communication device from a plurality of configurations, wherein each configuration is associated with a respective group of wireless communication devices (201, 204, 205) adapted to transmit data associated with the second latency requirement, wherein each of the plurality of configurations comprises a respective radio resource for potential transmission by the wireless communication devices of the respective group, and wherein the selection is based on a probability of interference between the potential transmissions by the wireless communication devices of the group associated with the selected configuration; and transmitting configuration information to the wireless communication device regarding the radio resource of the selected configuration. receiving a message from a wireless communication device, the message indicating that the wireless communication device is adapted to transmit data associated with a second latency requirement comprising a second latency which is lower than the first latency; selecting a first configuration for the wireless communication device from a plurality of configurations, wherein each configuration is associated with a respective group of wireless communication devices (201, 204, 205) adapted to transmit data associated with the second latency requirement, wherein each of the plurality of configurations comprises a respective radio resource for potential transmission by the wireless communication devices of the respective group, and wherein the selection is based on a probability of interference between the potential transmissions by the wireless communication devices of the group associated with the selected configuration; and transmitting configuration information to the wireless communication device regarding the radio resource of the selected configuration.
Carrier body for a grinding or a cutting tool, comprising a central coupling area for connecting the grinding or cutting tool to a rotary drive for rotating the grinding or cutting tool about an axis of rotation passing through the coupling area, a carrier structure adjacent thereto in the radial direction, wherein the carrier structure has recesses (7, 8) separate from the coupling area, and two substantially annular side surfaces (9, 10) which are spaced apart from each other in the axial direction across the carrier structure, and wherein at least some, preferably all, of the recesses (7, 8) are open only to one of the side surfaces (9, 10) of the carrier body, characterized in that the recesses (7, 8) are covered on the side surface, to which the recesses (7, 8) are open, by a common, preferably annular, cover.
An optoelectronic sensor, in particular a laser scanner, for the detection of at least one object in a monitored zone, comprising a housing having a front screen; a measuring unit having at least one measurement light transmitter for transmitting measurement light through the front screen and at least one measurement light receiver for generating a received measurement signal from measurement light remitted by the object; a movable deflection unit (12, 50) for the periodic deflection of the measurement light (28, 30); a contamination test unit moved along with the deflection unit and having at least two contamination test light transmitters for transmitting contamination test light onto the front screen and at least two contamination test light receivers for generating a received contamination test signal from contamination test light remitted at the front screen; wherein the contamination test light transmitters and the contamination test light receivers form a plurality of contamination test channels; and a control and evaluation unit that is configured to detect the object by evaluating the received measurement signal and to evaluate the contamination of the front screen by evaluating the received contamination test signals of the plurality of contamination test channels; characterized in that the contamination test light transmitters and the contamination test light receivers form an alternating linear arrangement. comprising a housing having a front screen; a measuring unit having at least one measurement light transmitter for transmitting measurement light through the front screen and at least one measurement light receiver for generating a received measurement signal from measurement light remitted by the object; a movable deflection unit (12, 50) for the periodic deflection of the measurement light (28, 30); a contamination test unit moved along with the deflection unit and having at least two contamination test light transmitters for transmitting contamination test light onto the front screen and at least two contamination test light receivers for generating a received contamination test signal from contamination test light remitted at the front screen; wherein the contamination test light transmitters and the contamination test light receivers form a plurality of contamination test channels; and a control and evaluation unit that is configured to detect the object by evaluating the received measurement signal and to evaluate the contamination of the front screen by evaluating the received contamination test signals of the plurality of contamination test channels; characterized in that the contamination test light transmitters and the contamination test light receivers form an alternating linear arrangement.