mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: modifying, by a network device provided in a network, a forwarding table to include information associated with a plurality of egress line cards of the network device and information associated with masks for the plurality of egress line cards; receiving, by an ingress line card of the network device, a multicast packet that includes information identifying destinations for the multicast packet; identifying, by the network device, an egress line card, of the plurality of egress line cards, for receiving the multicast packet based on the information identifying the destinations and based on the modified forwarding table; causing, by the network device, the ingress line card to provide a single copy of the multicast packet to the identified egress line card; creating, by the identified egress line card, copies of the multicast packet; and forwarding, by the identified egress line card, the copies of the multicast packet toward some of the destinations. modifying, by a network device provided in a network, a forwarding table to include information associated with a plurality of egress line cards of the network device and information associated with masks for the plurality of egress line cards; receiving, by an ingress line card of the network device, a multicast packet that includes information identifying destinations for the multicast packet; identifying, by the network device, an egress line card, of the plurality of egress line cards, for receiving the multicast packet based on the information identifying the destinations and based on the modified forwarding table; causing, by the network device, the ingress line card to provide a single copy of the multicast packet to the identified egress line card; creating, by the identified egress line card, copies of the multicast packet; and forwarding, by the identified egress line card, the copies of the multicast packet toward some of the destinations.
A circuit configuration for generating a controllable output voltage, comprising: - a voltage pump which can be operated in a clocked fashion and comprises terminals to be supplied with a supply voltage (VSS, VINT) whose output side is provided with a terminal for providing an output voltage and whose input side is provided with a control terminal for controlling the output voltage, a comparator whose input side can be supplied with a reference signal (VREF) and a signal derived from the output voltage and whose output side is connected to the control terminal of the voltage pump, - respective transistors (13, 14) with respective controlled paths via which the terminals for the supply voltage (VSS, VINT) of the voltage pump are connected to a respective terminal (15, 16) for a reference potential (VSS, VINT), - wherein respective control terminals of the transistors (13, 14) can be driven by signals which are generated by a logic device, and - a switching network which can be supplied with at least a first and a second control signal (DISABLE, TRIM1, TRIM2) as a function of which the level of the signal derived from the output voltage can be changed. - a voltage pump which can be operated in a clocked fashion and comprises terminals to be supplied with a supply voltage (VSS, VINT) whose output side is provided with a terminal for providing an output voltage and whose input side is provided with a control terminal for controlling the output voltage, a comparator whose input side can be supplied with a reference signal (VREF) and a signal derived from the output voltage and whose output side is connected to the control terminal of the voltage pump, - respective transistors (13, 14) with respective controlled paths via which the terminals for the supply voltage (VSS, VINT) of the voltage pump are connected to a respective terminal (15, 16) for a reference potential (VSS, VINT), - wherein respective control terminals of the transistors (13, 14) can be driven by signals which are generated by a logic device, and - a switching network which can be supplied with at least a first and a second control signal (DISABLE, TRIM1, TRIM2) as a function of which the level of the signal derived from the output voltage can be changed.
A process for making a consumer goods product comprising a benefit delivery composition, wherein the process comprises the steps of: (a) contacting a surfactant and a fatty amphiphile to form a lamellar phase composition; (b) contacting the lamellar phase composition with silicone to form the benefit delivery composition, (c) contacting the benefit delivery composition with at least three different consumer goods products ingredients to form a consumer goods product, wherein the fatty amphiphile has a melting point of at least 40°C, wherein in step (a) the fatty amphiphile is at a temperature above its melting point when it is contacted with the surfactant, wherein the fatty amphiphile within the lamellar phase composition is subsequently cooled to a temperature below the melting point of the fatty amphiphile, wherein the benefit delivery composition comprises from 50wt% to less than 90wt% lamellar phase composition and from greater than 10wt% to 50wt% silicone, and wherein the fatty amphiphile is selected from fatty acid, fatty alcohol and mixtures thereof, wherein step (b) is carried out under conditions of low shear, having a maximum tip speed of 2.5ms -1, preferably 2.0ms -1, or even 1.5ms -1, and at maximum shear rate of 500s -1 (a) contacting a surfactant and a fatty amphiphile to form a lamellar phase composition; (b) contacting the lamellar phase composition with silicone to form the benefit delivery composition, (c) contacting the benefit delivery composition with at least three different consumer goods products ingredients to form a consumer goods product,
Composition comprising A) at least one non-silicone-containing quaternary ammonium compound selected from the group of the ester quats, B) at least one cosmetic oil comprising no silicone oils, C) at least one nonionic surfactant, D) at least one nonaqueous solvent, E) water, characterized in that it is a microemulsion. A) at least one non-silicone-containing quaternary ammonium compound selected from the group of the ester quats, B) at least one cosmetic oil comprising no silicone oils, C) at least one nonionic surfactant, D) at least one nonaqueous solvent, E) water,
An extract of lavender for use in masking the odor of a fish semiochemical in water, wherein the attraction between a parasite and a fish in said water is reduced, characterized in that said extract of lavender is added to said water or is administered to a fish in said water.
Method for automatic detection of defects in flexible bodies, in particular in animal hides, comprising the steps of - creating a photograph (15, 29) of at least one subregion of the body by way of a photography device, in particular having at least one CCD camera, - subdividing the photograph (15, 29) into sub-images, - automatically analysing the sub-images by evaluating the greyscale values or colour values of a sub-image while taking into account adjacency relationships between the individual image points of the sub-image, - characterised in that, for each sub-image, the automatic analysis of the sub-images determines a comparison value which takes into account the adjacency relationships between the individual image points of the sub-image, - in that the comparison value of a sub-image is compared with a threshold to establish whether the sub-image has a defect (23, 31, 32), - in that the threshold is determined on the basis of the comparison values of the sub-images, - in that, in a feedback step, an auxiliary threshold is determined on the basis of the comparison values of those sub-images for which no defect has been found, and - in that sub-images which are detected as containing a defect in the automatic analysis are automatically studied in a subsequent method step for the exact position of the defect in the sub-image, using discontinuity criteria or homogeneity criteria. - creating a photograph (15, 29) of at least one subregion of the body by way of a photography device, in particular having at least one CCD camera, - subdividing the photograph (15, 29) into sub-images, - automatically analysing the sub-images by evaluating the greyscale values or colour values of a sub-image while taking into account adjacency relationships between the individual image points of the sub-image, - characterised in that, for each sub-image, the automatic analysis of the sub-images determines a comparison value which takes into account the adjacency relationships between the individual image points of the sub-image, - in that the comparison value of a sub-image is compared with a threshold to establish whether the sub-image has a defect (23, 31, 32), - in that the threshold is determined on the basis of the comparison values of the sub-images, - in that, in a feedback step, an auxiliary threshold is determined on the basis of the comparison values of those sub-images for which no defect has been found, and - in that sub-images which are detected as containing a defect in the automatic analysis are automatically studied in a subsequent method step for the exact position of the defect in the sub-image, using discontinuity criteria or homogeneity criteria.
A method performed by a user equipment, UE, comprising: in a case that the UE enters a RRC inactive state, storing a Service Data Adaptation Protocol, SDAP, configuration; and entering the RRC inactive state, wherein the SDAP configuration includes i) a PDU session identifier associated to an SDAP entity and ii) QoS flow mapping rules to a DRB; and restoring an SDAP operation based on the stored SDAP configuration in response to a RRC resume message. in a case that the UE enters a RRC inactive state, storing a Service Data Adaptation Protocol, SDAP, configuration; and entering the RRC inactive state, wherein the SDAP configuration includes i) a PDU session identifier associated to an SDAP entity and ii) QoS flow mapping rules to a DRB; and restoring an SDAP operation based on the stored SDAP configuration in response to a RRC resume message.
Method of communication in a packet mode communication network between a user entity and a data network (30, 32), a session having been established between said user entity and a gateway (20, 22) for access to the data network by way of an access network, said method comprising: - a step (E11, E1) of detecting a request for access to a service on the basis of at least one packet transmitted by the user entity by means of the established session; - a first step (E12, E1) of determining as a function of at least one criterion that a new session has to be established; - a second step (E21, E2) of determining another access gateway, said other gateway being suitable for the service requested by the user entity; - a step (E22, E2) of triggering establishment of said new session between the user entity and said other access gateway, said establishment being initiated by an entity (10, 12, 24) of the packet mode communication network. - a step (E11, E1) of detecting a request for access to a service on the basis of at least one packet transmitted by the user entity by means of the established session; - a first step (E12, E1) of determining as a function of at least one criterion that a new session has to be established; - a second step (E21, E2) of determining another access gateway, said other gateway being suitable for the service requested by the user entity; - a step (E22, E2) of triggering establishment of said new session between the user entity and said other access gateway, said establishment being initiated by an entity (10, 12, 24) of the packet mode communication network.
A method of controlling a temperature differential between a first temperature and a second temperature in the generation of a three-dimensional object, the method comprising: heating a volume of liquid in a reservoir to the first temperature; transferring a portion of the volume of liquid from the reservoir to an object coater head; controlling a transfer time for transferring the portion of the volume of liquid to the object coater head to allow the portion of the volume of liquid to be cooled to the second temperature; cooling the portion of the volume of liquid to the second temperature; and depositing from the object coater head the portion of the volume of liquid at the second temperature on one of a building area support and an already formed part of the three-dimensional object, wherein the three-dimensional object is generated layer by layer by depositing successive layers of the liquid on one of the building area support and the already formed part of the three-dimensional object. heating a volume of liquid in a reservoir to the first temperature; transferring a portion of the volume of liquid from the reservoir to an object coater head; controlling a transfer time for transferring the portion of the volume of liquid to the object coater head to allow the portion of the volume of liquid to be cooled to the second temperature; cooling the portion of the volume of liquid to the second temperature; and depositing from the object coater head the portion of the volume of liquid at the second temperature on one of a building area support and an already formed part of the three-dimensional object, wherein the three-dimensional object is generated layer by layer by depositing successive layers of the liquid on one of the building area support and the already formed part of the three-dimensional object.
A base station comprising: a transceiver; and at least one processor operatively coupled to the transceiver; wherein the at least one processor is configured to control to the transceiver to transmit or receive a signal, by using a sub-band, SB, from N SBs in a transmission bandwidth that includes an even number of M resource blocks, RBs, indexed from 0 to M -1 in an ascending order, wherein N =└ M /6┘, wherein each of the N SBs includes six non-overlapping physical RBs, and wherein a first of RBs included in the N SBs is identified based on the M and a number of the RBs included the N SBs. a transceiver; and at least one processor operatively coupled to the transceiver; wherein the at least one processor is configured to control to the transceiver to transmit or receive a signal, by using a sub-band, SB, from N SBs in a transmission bandwidth that includes an even number of M resource blocks, RBs, indexed from 0 to M -1 in an ascending order, wherein N =└ M /6┘, wherein each of the N SBs includes six non-overlapping physical RBs, and wherein a first of RBs included in the N SBs is identified based on the M and a number of the RBs included the N SBs.
A method for producing a plastic component by additive manufacturing, comprising the following steps (a) and (b): (a) repeatedly depositing a meltable material M 1 formed from at least one thermoplastic K 1 for building up a plastic component having a predetermined geometry, wherein a support structure made of a meltable material M 2 is used during the build-up of the plastic component enabling overhangs and/or undercuts in the plastic component, and (b) removing the support structure from the plastic component built up in step (a) after its completion by bringing it into contact with an aqueous solvent, wherein the meltable material M 2 is formed from at least one thermoplastic K 2 compounded with at least a salt and a plasticizer, wherein in the meltable material M 2, 100 to 150 parts by mass of the salt and 10 to 50 parts by mass of the plasticizer are present based on 100 parts by mass of the total amount of the at least one thermoplastic K 2, and wherein the salt compounded with the at least one thermoplastic K 2 dissolves as soon as it comes into contact with the aqueous solvent, whereas the at least one thermoplastic K 2 does not dissolve and remains as a porous structure. (a) repeatedly depositing a meltable material M 1 formed from at least one thermoplastic K 1 for building up a plastic component having a predetermined geometry, wherein a support structure made of a meltable material M 2 is used during the build-up of the plastic component enabling overhangs and/or undercuts in the plastic component, and (b) removing the support structure from the plastic component built up in step (a) after its completion by bringing it into contact with an aqueous solvent, wherein the meltable material M 2 is formed from at least one thermoplastic K 2 compounded with at least a salt and a plasticizer, wherein in the meltable material M 2, 100 to 150 parts by mass of the salt and 10 to 50 parts by mass of the plasticizer are present based on 100 parts by mass of the total amount of the at least one thermoplastic K 2, and wherein the salt compounded with the at least one thermoplastic K 2 dissolves as soon as it comes into contact with the aqueous solvent, whereas the at least one thermoplastic K 2 does not dissolve and remains as a porous structure.
Bran granulates having an average area diameter D[4, 3] of from 200 to 1500 μm, a porosity of from 35% to 55%, a mean wall thickness of from 9 to 20 μm, the mean wall thickness being the average thickness of pores of granulates as measured using x-ray tomography, and having a viscosity ratio Visco10min/ Visco2min ≤ 1, said granulates comprising at least 50% by weight of bran, preferably at least 80% by weight of bran, and wherein the bran is cereal bran or pseudo-cereal bran, and wherein the granulates consist of 100% dry matter by weight of bran, wherein the Viscosity is measured in a mix of 20% by weight of said granulates in 80% by weight of water, at 50°C, at a shear rate of 50 rpm, after 2 minutes (Visco2min) and 10 minutes (Visco10min) at this shear rate, with a rheometer comprising a canister equipped with a standard paddle.
An isolated peptide of less than 15 amino acids and having cytotoxic T lymphocyte inducibility, wherein said peptide is an immunologically active fragment of a polypeptide consisting of the amino acid sequence of SEQ ID NO: 18 or a modified peptide thereof, and wherein said peptide comprises an amino acid sequence selected from the group consisting of: (a) SEQ ID NO: 4; and (b) SEQ ID NO: 4, in which 1 or 2 amino acids are substituted. (a) SEQ ID NO: 4; and (b) SEQ ID NO: 4, in which 1 or 2 amino acids are substituted.
Fluid-conducting device comprising a holding part and a fixed fluid-conducting part, wherein the holding part comprises at least two holding shells (111, 112), the fluid-conducting part is enclosed by the holding shells (111, 112), and the at least two holding shells (111, 112) are held mechanically together by means of at least two holding rings (141, 142, 143), characterized in that receptacles (115, 116, 117) which are able to receive the holding rings (141, 142, 143) are formed on the holding shells (111, 112), wherein, in the assembled state of the device, the receptacles (115, 116, 117) are arranged in the region of free ends (131a, 132a) of the fluid-conducting part, and wherein the holding rings (141, 142, 143) are pressable into the receptacles (115, 116, 117) in order to hold the holding part mechanically together.
An audio processing apparatus (200, 300, 400, 500, 600, 700), comprising: an acoustic echo canceller configured for suppressing acoustic echo in a microphone signal; a jitter buffer configured for reducing delay jitter of a received signal; and the apparatus being characterised by further comprising: a joint controller configured for controlling the acoustic echo canceller by referring to at least one future frame in the jitter buffer. an acoustic echo canceller configured for suppressing acoustic echo in a microphone signal; a jitter buffer configured for reducing delay jitter of a received signal; and the apparatus being characterised by further comprising: a joint controller configured for controlling the acoustic echo canceller by referring to at least one future frame in the jitter buffer. a joint controller configured for controlling the acoustic echo canceller by referring to at least one future frame in the jitter buffer.
Agglomerated welding flux comprising, expressed as a % by weight of flux: - 0.1 to 0.6% carbon, - 0.3 to 3% manganese (Mn), - less than 0.006% sulphur, - less than 0.015% lead (Pb), - less than 0.025% phosphorus, - 0.1 to 0.8% titanium (Ti), - less than 0.02% antimony (Sb), - and where: (% S) + (% Sb) + (% P) + (% Pb) < 0.040% where: (% S), (% Sb), (% P) and (% Pb) are quantities by weight (expressed as a % by weight of flux) of the elements S, Sb, P and Pb, respectively, in the flux. - 0.1 to 0.6% carbon, - 0.3 to 3% manganese (Mn), - less than 0.006% sulphur, - less than 0.015% lead (Pb), - less than 0.025% phosphorus, - 0.1 to 0.8% titanium (Ti), - less than 0.02% antimony (Sb), - and where: (% S) + (% Sb) + (% P) + (% Pb) < 0.040%
A method performed by a terminal (2f-01) in a communication system, the method comprising: receiving (2f-05; 2g-05; 2h-05), from a base station (2f-02), a radio resource control, RRC, release message including configuration information for measurements to be performed in a RRC idle state or a RRC inactive state, the configuration information including a list of at least one carrier frequency associated with new radio, NR, wherein the at least one carrier frequency corresponds to at least one subcarrier spacing, respectively; entering the RRC idle state or the RRC inactive state based on the RRC release message; in case that the terminal is in the RRC idle state or the RRC inactive state, identifying (2f-11; 2g-10) whether the terminal supports a carrier frequency among the at least one carrier frequency and a subcarrier spacing corresponding to the carrier frequency; in case that the terminal supports the carrier frequency and the subcarrier spacing, performing (2f-11; 2g-10) a measurement for the carrier frequency; and in case that the terminal is in a RRC connected state, transmitting (2f-55; 2g-30; 2h-25), to the base station, a measurement result performed in the RRC idle state or the RRC inactive state, wherein the measurement result includes a result of the measurement for the carrier frequency. receiving (2f-05; 2g-05; 2h-05), from a base station (2f-02), a radio resource control, RRC, release message including configuration information for measurements to be performed in a RRC idle state or a RRC inactive state, the configuration information including a list of at least one carrier frequency associated with new radio, NR, wherein the at least one carrier frequency corresponds to at least one subcarrier spacing, respectively; entering the RRC idle state or the RRC inactive state based on the RRC release message; in case that the terminal is in the RRC idle state or the RRC inactive state, identifying (2f-11; 2g-10) whether the terminal supports a carrier frequency among the at least one carrier frequency and a subcarrier spacing corresponding to the carrier frequency; in case that the terminal supports the carrier frequency and the subcarrier spacing, performing (2f-11; 2g-10) a measurement for the carrier frequency; and in case that the terminal is in a RRC connected state, transmitting (2f-55; 2g-30; 2h-25), to the base station, a measurement result performed in the RRC idle state or the RRC inactive state, wherein the measurement result includes a result of the measurement for the carrier frequency.