mhurhangee/ep-ind-claims huggingface dataset:
A method for providing to a user device location information of a data device that provides a specific asset, wherein the user device is present in a first network that includes at least a serving node and an address of the user device is indicative of a gateway node that is different from the serving node, wherein the serving node belongs to the first network, the gateway node belongs to a second network, different from the first network, the user device belongs to the second network but is located in the first network, a first data device belongs to the second network, and the second data device belongs to the first network, the method comprises: receiving at the serving node a first message from the user device, the first message including a request for the specific asset; sending the first message from the serving node to the gateway node; receiving at the serving node a second message from the gateway node, the second message including a first location of the first data device that provides the specific asset; modifying at the serving node the second message to include an indication about a second location of the second data device that provides the specific asset, wherein the first location is different from the second location; and sending the modified second message including the second location to the user device for accessing the specific asset. receiving at the serving node a first message from the user device, the first message including a request for the specific asset; sending the first message from the serving node to the gateway node; receiving at the serving node a second message from the gateway node, the second message including a first location of the first data device that provides the specific asset; modifying at the serving node the second message to include an indication about a second location of the second data device that provides the specific asset, wherein the first location is different from the second location; and sending the modified second message including the second location to the user device for accessing the specific asset.
An isolated peptide consisting of the amino acid sequence selected from the group consisting of DWLPKPNMS (SEQ ID NO: 12), CDWLPKPNM (SEQ ID NO: 13), TCDWLPKPN (SEQ ID NO: 14), KTCDWLPKP (SEQ ID NO: 15), EKTCDWLPK (SEQ ID NO: 16), LEKTCDWLP (SEQ ID NO: 17), or variants thereof having a conservative amino acid substitution for an amino acid flanking the DWLP sequence.
A cooktop power control system for a cooktop that has a plurality of burners, where the cooktop power control system controls the power delivered from two or more separate active burners to separate cookware items each of which is associated with an active burner, wherein there is a maximum limit of total power that is available for delivery from all of the burners together, where there is a heating control user interface associated with each of the burners, each heating control user interface constructed and arranged to be set by a user to a particular heating control user interface setting, where a desired cookware temperature is derived from the setting of each heating control user interface, and where the cooktop power control system is arranged so as to be responsive to measured temperatures of the cookware items, the cooktop power control system comprising: a controller that, when a plurality of burners are in sum calling for more than the maximum limit of total available power, automatically alters the power delivered from at least one of the active burners in comparison to the power called for by such burner, characterised in that: the alteration is based on: (i) the measured cookware temperatures of the cookware items that are associated with the active burners, (ii) the desired cookware temperatures derived from the heating control user interfaces that are associated with the active burners, and (iii) a rate of change of the measured cookware temperature of one or more of the cookware items. a controller that, when a plurality of burners are in sum calling for more than the maximum limit of total available power, automatically alters the power delivered from at least one of the active burners in comparison to the power called for by such burner, characterised in that: the alteration is based on: (i) the measured cookware temperatures of the cookware items that are associated with the active burners, (ii) the desired cookware temperatures derived from the heating control user interfaces that are associated with the active burners, and (iii) a rate of change of the measured cookware temperature of one or more of the cookware items.
A method of making molecular sieve catalyst particles, the method comprising the steps of: a) providing a solution or suspension of an aluminum-containing inorganic oxide precursor in a liquid medium, b) aging the solution or suspension of the inorganic oxide precursor at a temperature of from 30°C to 90 °C for a period of 4 hours up to 24 hours, the solution containing from 1% to 80% of the precursor; c) combining the solution or suspension of aluminum-containing inorganic oxide precursor with a molecular sieve, and optionally other formulating agents, to form a catalyst formulation slurry; d) forming molecular sieve catalyst particles from the catalyst formulation slurry, wherein the catalyst formulation slurry of step c) is not aged before forming the molecular sieve catalyst particles in step d), that is the catalyst formulation slurry of step c) is maintained at a temperature of 15 to 50°C for a period of not more than 8 hours. a) providing a solution or suspension of an aluminum-containing inorganic oxide precursor in a liquid medium, b) aging the solution or suspension of the inorganic oxide precursor at a temperature of from 30°C to 90 °C for a period of 4 hours up to 24 hours, the solution containing from 1% to 80% of the precursor; c) combining the solution or suspension of aluminum-containing inorganic oxide precursor with a molecular sieve, and optionally other formulating agents, to form a catalyst formulation slurry; d) forming molecular sieve catalyst particles from the catalyst formulation slurry, wherein the catalyst formulation slurry of step c) is not aged before forming the molecular sieve catalyst particles in step d), that is the catalyst formulation slurry of step c) is maintained at a temperature of 15 to 50°C for a period of not more than 8 hours.
An assembly comprising a first substrate and a second substrate, wherein a tie layer consisting of amorphous polyetherketoneketone is positioned between and in contact with said first substrate and said second substrate, wherein the amorphous polyetherketoneketone comprises repeating units represented by formulas I and II: -A-C(=O)-B-C(=O)- I -A-C(=O)-D-C(=O)- II where A is a p,p'-Ph-O-Ph- group, Ph is a phenylene radical, B is p-phenylene, and D is m-phenylene, wherein the amorphous polyetherketoneketone has a T:I ratio of from 65:35 to 55:45.
Process for the shaping of melts which comprise at least one salt of the general formula Ca x Al 2 2(x+3)-ny A y n- *mH 2 O, in which x is a number from 2 to 12, y is a number of 0 to (2x + 5)/2, m is a number from 0 to 12 and n is a number from 1 to 3, where a melt which comprises at least one salt of the general formula Ca x Al 2 2(x+3)-ny A y n- *mH 2 O, in which x is a number from 2 to 12, y is a number of 0 to (2x + 5)/2, m is a number from 0 to 12 and n is a number from 1 to 3, or which comprises a mixture of two or more such salts, and which comprises at least one organic compound or which comprises a mixture of two or more such compounds, with melting point below 200°C, is portioned to give portions, and the portions are then cooled to give a shaped melt product, where the content of organic compound with melting point below 200°C and of at least one salt of the general formula Ca x Al 2 2(x+3)-n A y n- *m H 2 O, in which x is a number from 2 to 12, y is a number of 0 to (2x + 5)/2, m is a number from 0 to 12 and n is a number from 1 to 3, in the melt is from 10 to 100% by weight.
A module operable to monitor at least a pressure within a tyre of a wheel, said module being operatively mounted to said wheel, said module includes: (a) a pressure sensor for measuring said pressure and generating a corresponding pressure signal; and b1) an associated data memory including a data field containing data relevant to the functional status of the tyre; characterised in that said module includes a flag which can be set by a data processor to represent "VALID" or "INVALID" for denoting validity or invalidity of said data relevant to the functional status of the tyre and that said flag is set to be changed from "VALID" to "INVALID" as soon as said pressure measured by said pressure sensor falls below a predetermined threshold value. (a) a pressure sensor for measuring said pressure and generating a corresponding pressure signal; and b1) an associated data memory including a data field containing data relevant to the functional status of the tyre; characterised in that said module includes a flag which can be set by a data processor to represent "VALID" or "INVALID" for denoting validity or invalidity of said data relevant to the functional status of the tyre and that said flag is set to be changed from "VALID" to "INVALID" as soon as said pressure measured by said pressure sensor falls below a predetermined threshold value.
A tyre comprising a carcass, a belt package, a tread and at least a reinforcement net made of a weaved textile material wherein the threads are oriented between 25° and 65° relative to a longitudinal axis of the tyre; said reinforcement net having a shorter transverse extension than the one of the belt package, being arranged at least in the area of a centre of the tread and being positioned inside the belt package or between the belt package and the tread; said tyre being characterized in that said weaved textile material has an elongation at break equal to or greater than 10% and a number of meshes per linear inch ranging from 8 to 16.
A retrofit LED lamp, which has an LED module and a cooling element arrangement, - wherein the LED module has: - at least one LED chip (20, 21) mounted on a substrate, - a first diffuser element, which scatters the light from the at least one LED chip (20, 21) diffusely, and - a second diffuser element, which when viewed in the light emission direction is outside the first diffuser element and is separated therefrom, preferably forming an air gap, wherein the first diffuser element forming an air gap is spaced apart from the at least one LED chip (20, 21), wherein the at least one LED chip (20, 21) is covered with a color-conversion means, - wherein the cooling element arrangement has: - an inner layer (4, 6), and - an outer layer (3, 8), wherein the second diffuser element corresponds to an upper part of the outer layer (3, 8); - wherein the LED module rests on the inner layer (4, 6) of the cooling element arrangement and is flatly connected with the latter; - wherein the inner layer (4, 6) and the outer layer (3, 8) at least partially abut flush against one another. - wherein the LED module has: - at least one LED chip (20, 21) mounted on a substrate, - at least one LED chip (20, 21) mounted on a substrate, - a first diffuser element, which scatters the light from the at least one LED chip (20, 21) diffusely, and - a second diffuser element, which when viewed in the light emission direction is outside the first diffuser element and is separated therefrom, preferably forming an air gap, wherein the first diffuser element forming an air gap is spaced apart from the at least one LED chip (20, 21), wherein the at least one LED chip (20, 21) is covered with a color-conversion means, - wherein the cooling element arrangement has: - an inner layer (4, 6), and - an inner layer (4, 6), and - an outer layer (3, 8), wherein the second diffuser element corresponds to an upper part of the outer layer (3, 8); - wherein the LED module rests on the inner layer (4, 6) of the cooling element arrangement and is flatly connected with the latter; - wherein the inner layer (4, 6) and the outer layer (3, 8) at least partially abut flush against one another.
A fluid ejection device comprising: a substrate; a number of rows of nozzles formed within the substrate to eject fluid; a number of bond pads disposed on the substrate and electrically coupled to the number of rows of nozzles; a termination ring disposed on the substrate that surrounds the rows of nozzles and the bond pads, wherein the termination ring comprises: a first metallic layer that is an enclosed shape; and a second metallic layer disposed on top of the first metallic layer, the second metallic layer comprising a gap positioned adjacent the number of bond pads. a substrate; a number of rows of nozzles formed within the substrate to eject fluid; a number of bond pads disposed on the substrate and electrically coupled to the number of rows of nozzles; a termination ring disposed on the substrate that surrounds the rows of nozzles and the bond pads, wherein the termination ring comprises: a first metallic layer that is an enclosed shape; and a second metallic layer disposed on top of the first metallic layer, the second metallic layer comprising a gap positioned adjacent the number of bond pads. a first metallic layer that is an enclosed shape; and a second metallic layer disposed on top of the first metallic layer, the second metallic layer comprising a gap positioned adjacent the number of bond pads.
A method for link aggregation of a plurality of communication links (120a, 120b, 120c, 120d) comprised in an Aggregation Group, AG,, performed in a communication arrangement (110, 130), the method comprising; obtaining a data segment to be transmitted, identifying a preferred communication link (LINK 1) out of the plurality of communication links (120a, 120b, 120c) for transmission of the data segment, and, if the preferred communication link is not available for transmission of the data segment within a current time period, identifying an alternative communication link (LINK 2) out of the plurality of communication links (120a, 120b, 120c) different from the preferred communication link, fragmenting the data segment into at least a first fragment and a second fragment, attaching a fragment header (220, 230) to each of the first and second fragments, each fragment header being configured to identify the respective fragment as a fragment belonging to a data segment, and transmitting the first fragment over the alternative communication link (LINK 2), transmitting the second fragment over the preferred communication link (LINK 1) in case the preferred link becomes available within a time period after transmitting the first fragment. obtaining a data segment to be transmitted, identifying a preferred communication link (LINK 1) out of the plurality of communication links (120a, 120b, 120c) for transmission of the data segment, and, if the preferred communication link is not available for transmission of the data segment within a current time period, identifying an alternative communication link (LINK 2) out of the plurality of communication links (120a, 120b, 120c) different from the preferred communication link, fragmenting the data segment into at least a first fragment and a second fragment, attaching a fragment header (220, 230) to each of the first and second fragments, each fragment header being configured to identify the respective fragment as a fragment belonging to a data segment, and transmitting the first fragment over the alternative communication link (LINK 2), transmitting the second fragment over the preferred communication link (LINK 1) in case the preferred link becomes available within a time period after transmitting the first fragment.
A method for a User Equipment, in the following also referred to as LTE, comprising: receiving a first Physical Downlink Control Channel, in the following also referred to as PDCCH, -related configuration in system information, wherein the first PDCCH-related configuration includes at least one of a first search space configuration or a first Control Resource Set, in the following also referred to as CORESET, configuration; initiating a Small Data Transmission, in the following also referred to as SDT, procedure in RRC_INACTIVE state, wherein the SDT procedure comprises a Random Access, in the following also referred to as RA, procedure and at least one subsequent transmission after the RA procedure; and monitoring PDCCH, based on the first PDCCH-related configuration, during the RA procedure in RRC_INACTIVE state; characterized by monitoring the PDCCH, based on a second PDCCH-related configuration, for the at least one subsequent transmission in RRC_INACTIVE state if the second PDCCH-related configuration is received by the UE in the system information, a Msg4, a MSGB, or a RRCRelease message, wherein the second PDCCH-related configuration includes at least one of a second search space configuration or a second CORESET configuration; and monitoring the PDCCH, based on the first PDCCH-related configuration, for the at least one subsequent transmission if the second PDCCH-related configuration is not received by the UE in the system information, the Msg4, the MSGB, or the RRCRelease message. receiving a first Physical Downlink Control Channel, in the following also referred to as PDCCH, -related configuration in system information, wherein the first PDCCH-related configuration includes at least one of a first search space configuration or a first Control Resource Set, in the following also referred to as CORESET, configuration; initiating a Small Data Transmission, in the following also referred to as SDT, procedure in RRC_INACTIVE state, wherein the SDT procedure comprises a Random Access, in the following also referred to as RA, procedure and at least one subsequent transmission after the RA procedure; and monitoring PDCCH, based on the first PDCCH-related configuration, during the RA procedure in RRC_INACTIVE state; characterized by monitoring the PDCCH, based on a second PDCCH-related configuration, for the at least one subsequent transmission in RRC_INACTIVE state if the second PDCCH-related configuration is received by the UE in the system information, a Msg4, a MSGB, or a RRCRelease message, wherein the second PDCCH-related configuration includes at least one of a second search space configuration or a second CORESET configuration; and monitoring the PDCCH, based on the first PDCCH-related configuration, for the at least one subsequent transmission if the second PDCCH-related configuration is not received by the UE in the system information, the Msg4, the MSGB, or the RRCRelease message.
Method for web threading in a slitter-winder comprising an unwinding section where a parent roll is unwound, a slitting section a full width web unwound from the parent roll is slitted longitudinally to partial webs (W1, W2) and a winding section where the partial webs (W1, W2) are wound around cores or corresponding spools to partial web rolls, which winding section comprises a multistation winder in which two winding rolls (11, 12) are used, each providing for winding of a set of partial web rolls, in which method web is threaded from the unwinding section via the slitting section to the winding section and in which method after the slitting section in threading the partial webs (W1, W2) for each winding station are separated so that each other partial webs i.e. the partial webs of the inner side are passed to one winding roll i.e. to a winding roll of the inner side and the other each other partial webs i.e. the partial webs of the outer side are passed to another winding roll i.e. a winding roll of the outer side, characterized in that, in the method for web threading the web is passed by passing a web tail wedge through the slitter-winder, that in the method at least one rope-like transfer means is used for passing the partial webs to the winding stations on the winding rolls and that in the method the partial webs are adhered on the surface of at least one of the winding rolls (11, 12) and that in the method the web tail wedge is lifted against a winding roll by rope-like transfer means, over which rope-like transfer means the web tail wedge falls downwards when the winding roll pulls more web from the unwinding section.
A process for the catalytic halogenation of an organic compound comprising at least one vicinal diol moiety, said process comprising a step of bringing the organic compound comprising at least one vicinal diol moiety into contact with a hydrogen halide in the presence of a catalyst, characterized in that the catalyst is an organic compound comprising a β-diketone moiety or a β-veto aldehyde moiety.
Points adjustment device, in particular ratchet locking device, having at least one movable component for adjusting a point tongue, wherein the at least one movable component is guided on and/or in immovable components (2, 12) with the aid of a number of contact friction surfaces, wherein at least one part of the number of contact friction surfaces is configured as a combination of a high-strength material and a material having very good sliding and emergency running properties, characterised in that the high-strength material is moulded in the material having very good sliding and emergency running properties in the form of inserts (16, 16', 20, 28).
A thermosetting resin composition comprising: a resin containing two or more carboxyl groups and having a polyurethane structure, a strongly basic nitrogen-containing heterocyclic compound having pKa of 12.0 to 13.5, as a curing accelerator, and an epoxy resin as a curing agent. a resin containing two or more carboxyl groups and having a polyurethane structure, a strongly basic nitrogen-containing heterocyclic compound having pKa of 12.0 to 13.5, as a curing accelerator, and an epoxy resin as a curing agent.
N -acetyl mannosamine or a derivative thereof for use in a method of treating a kidney disease involving proteinuria and/or hematuria in a mammal in need thereof comprising administering an effective amount of N -acetyl mannosamine or the derivative thereof to the mammal, wherein the derivative consists of Formula I; wherein: R 1, R 3, R 4, or R 5 is hydrogen, lower alkanoyl, carboxylate or lower alkyl; and R 2 is lower alkyl, lower alkanoylalkyl, or lower alkyl alkanoyloxy.