mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a load balancer, a packet comprising a request from a source device to an application associated with a virtual address in a network; mapping the request to a set of candidate servers hosting the application associated with the virtual address; encoding the set of candidate servers as a list of segments in a segment routing header associated with the packet, the list of segments in the segment routing header comprising one or more segment routing instructions for successively steering the packet through the set of candidate servers until one of the set of candidate servers accepts the request; determining that a first candidate server from the set of candidate servers is a next segment in the list of segments; encoding the first candidate server in a destination address field on an IPv6 header of the packet, the destination address field representing a next routing segment for the packet; and forwarding the packet to the first candidate server; wherein the segment routing header further comprises a first indication of a return address associated with the load balancer and a second indication of the virtual address associated with the application, wherein each of the segment routing instructions comprises an instruction to a respective segment in the list of segments for processing the packet, the instruction comprising at least one of a connect instruction, an end instruction, a data flag, a forward instruction, a stickiness instruction, and state information. receiving, by a load balancer, a packet comprising a request from a source device to an application associated with a virtual address in a network; mapping the request to a set of candidate servers hosting the application associated with the virtual address; encoding the set of candidate servers as a list of segments in a segment routing header associated with the packet, the list of segments in the segment routing header comprising one or more segment routing instructions for successively steering the packet through the set of candidate servers until one of the set of candidate servers accepts the request; determining that a first candidate server from the set of candidate servers is a next segment in the list of segments; encoding the first candidate server in a destination address field on an IPv6 header of the packet, the destination address field representing a next routing segment for the packet; and forwarding the packet to the first candidate server; wherein the segment routing header further comprises a first indication of a return address associated with the load balancer and a second indication of the virtual address associated with the application, wherein each of the segment routing instructions comprises an instruction to a respective segment in the list of segments for processing the packet, the instruction comprising at least one of a connect instruction, an end instruction, a data flag, a forward instruction, a stickiness instruction, and state information.
A communication device comprising a receiver configured to receive a plurality of first reference signal values in a first subframe of a radio frame structure and to receive a plurality of second reference signal values in a second subframe of the radio frame structure, wherein the first subframe and the second subframe are separated by one or more subframes of the radio frame structure; a first filter configured to filter the plurality of first reference signal values received in the first subframe to generate a first channel estimate; a second filter configured to filter the plurality of second reference signal values received in the second subframe based on the first channel estimate to generate a second channel estimate; and a processor configured to process received signals based on the second channel estimate.
A lint removing device comprising: a housing; a roller for holding a lint-removing material, wherein the roller and lint-removing material are dimensioned and configured to be housed by the housing, wherein the roller and housing are arranged such that the roller is deployable from the housing; and an actuator coupled with or formed by either the roller or the housing, the actuator being manipulable by a user to deploy the roller, characterised in that the actuator is arranged to transversely move the roller with respect to the housing. a housing; a roller for holding a lint-removing material, wherein the roller and lint-removing material are dimensioned and configured to be housed by the housing, wherein the roller and housing are arranged such that the roller is deployable from the housing; and an actuator coupled with or formed by either the roller or the housing, the actuator being manipulable by a user to deploy the roller, characterised in that the actuator is arranged to transversely move the roller with respect to the housing.
Floor treatment facility, comprising: - a chassis; - a running gear for guiding the chassis over a floor; - a treatment facility for treating the floor; - a guide for applying the treatment facility movably along a predefined path in relation to the chassis, - wherein the path extends in a vertical direction in relation to the floor; wherein the treatment facility comprises a suction mouth and wherein the path encloses a predefined angle with a plane parallel to the floor when the floor treatment facility is standing on an even floor, characterised in that the angle amounts to a maximum of around 45°. - a chassis; - a running gear for guiding the chassis over a floor; - a treatment facility for treating the floor; - a guide for applying the treatment facility movably along a predefined path in relation to the chassis, - wherein the path extends in a vertical direction in relation to the floor; wherein the treatment facility comprises a suction mouth and wherein the path encloses a predefined angle with a plane parallel to the floor when the floor treatment facility is standing on an even floor, characterised in that the angle amounts to a maximum of around 45°.
A polyester resin comprising a repeating unit derived from a diester component of a dicarboxylic acid; and a repeating unit derived from a diol component, wherein the diester component of the dicarboxylic acid comprises 0.1 to 14.5 mol% of a diester of an aliphatic dicarboxylic acid; and 85.5 to 99.9 mol% of a diester of an aromatic dicarboxylic acid, based on 100 mol% of the total diester component of the dicarboxylic acid, the diester of the aliphatic dicarboxylic acid comprises a succinic acid diester, the diol component comprises 50 to 100 mol% of an anhydrosugar alcohol, based on 100 mol% of the total diol component, and the number average molecular weight (Mn) of the polyester resin is 10,000 g/mol or more, determined as indicated in the specification. wherein the diester component of the dicarboxylic acid comprises 0.1 to 14.5 mol% of a diester of an aliphatic dicarboxylic acid; and 85.5 to 99.9 mol% of a diester of an aromatic dicarboxylic acid, based on 100 mol% of the total diester component of the dicarboxylic acid, the diester of the aliphatic dicarboxylic acid comprises a succinic acid diester, the diol component comprises 50 to 100 mol% of an anhydrosugar alcohol, based on 100 mol% of the total diol component, and the number average molecular weight (Mn) of the polyester resin is 10,000 g/mol or more, determined as indicated in the specification.
A rotary kiln for burning carbonate-containing material, in particular limestone or dolomite, comprising a rotary tube having an inlet end for feeding in the material to be burned and an outlet end for discharging the burned material, and a calciner unit which is arranged in the region of the outlet end, the rotary tube having an inlet zone at its inlet end and having an outlet zone at its outlet end, with a preheating zone and a burning zone being arranged between the inlet zone and the outlet zone in the transport direction of the material, characterized in that a plurality of projections are arranged in the preheating zone of the rotary tube, the projections being arranged as groups one behind the other and substantially in parallel with the longitudinal axis of the rotary tube, with projections of adjacent groups of projections that are adjacent in the circumferential direction of the rotary tube being offset relative to one another in the longitudinal direction of the rotary tube such that spiral transport paths for the material to be burned are formed in the preheating zone.
A microwave heating device comprising: a heating chamber for housing a to-be-heated object, and plural radiation portions (20, 21) for radiating microwaves within the heating chamber; wherein each of the plural radiation portions (20, 21) includes a first microwave feeding point (20a, 21a) and a second microwave feeding point (20b, 21b); the plural radiation portions (20, 21) are placed on the same wall surface of the heating chamber, the first microwave feeding point (20a or 21a) and the second microwave feeding point (20b or 21b) in each of the plural radiation portions (20, 21) are adapted such that lines connecting the respective microwave feeding points (20a, 20b, 21a or 21b) to a center point (C1 or C2) of this radiation portion (20 or 21) form an intersection angle of 90 degrees, and the microwaves radiated from the respective radiation portions (20, 21) are radiated within the heating chamber such that the electric powers of the microwaves are synthesized; characterized in that the first microwave feeding points (20a, 21a) of the plural radiation portions (20, 21) are placed on a line connecting the center points (C1, C2) of the plural radiation portions (20,21). a heating chamber for housing a to-be-heated object, and plural radiation portions (20, 21) for radiating microwaves within the heating chamber; wherein each of the plural radiation portions (20, 21) includes a first microwave feeding point (20a, 21a) and a second microwave feeding point (20b, 21b); the plural radiation portions (20, 21) are placed on the same wall surface of the heating chamber, the first microwave feeding point (20a or 21a) and the second microwave feeding point (20b or 21b) in each of the plural radiation portions (20, 21) are adapted such that lines connecting the respective microwave feeding points (20a, 20b, 21a or 21b) to a center point (C1 or C2) of this radiation portion (20 or 21) form an intersection angle of 90 degrees, and the microwaves radiated from the respective radiation portions (20, 21) are radiated within the heating chamber such that the electric powers of the microwaves are synthesized; characterized in that the first microwave feeding points (20a, 21a) of the plural radiation portions (20, 21) are placed on a line connecting the center points (C1, C2) of the plural radiation portions (20,21).
A multilayer film comprising at least one core layer comprising a polypropylene composition comprising: A) From 95 wt% to 60 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C greater than 90 wt%; B) From 5wt% to 40 wt%; of an heterophasic propylene ethylene copolymer having: i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%; the sum of the amounts of A) and B) being 100. A) From 95 wt% to 60 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25 °C greater than 90 wt%; B) From 5wt% to 40 wt%; of an heterophasic propylene ethylene copolymer having: i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%; the sum of the amounts of A) and B) being 100. i) xylene soluble fraction at 25 °C ranging from 52 wt% to 74 wt%; ii) intrinsic viscosity of the fraction soluble in xylene at 25 °C ranging from 2.5 to 5 dl/g; iii) melt flow rate, MFR, Measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 0.2 g/10 min to 1.5 g/10 min; iv) flexural modulus lower than 300 MPa; and v) an ethylene derived units content ranging from 10 wt% to 30 wt%;
A method of treating a nitrided/nitrocarburized steel workpiece, which method consists in: - subjecting at least a portion of the workpiece to a first step in which at least one laser beam is moved in at least one pass over said portion, until the surface layer of the considered portion is transformed in part or in full, and until the distribution of the nitrogen concentration in the diffusion zone is modified; and - subjecting the portion at least treated by laser for transforming the surface layer to a second step in which at least one laser beam is moved in at least one pass over said portion so as to enable the nitrogen concentration in the underlying diffusion layer to be reduced. - subjecting at least a portion of the workpiece to a first step in which at least one laser beam is moved in at least one pass over said portion, until the surface layer of the considered portion is transformed in part or in full, and until the distribution of the nitrogen concentration in the diffusion zone is modified; and - subjecting the portion at least treated by laser for transforming the surface layer to a second step in which at least one laser beam is moved in at least one pass over said portion so as to enable the nitrogen concentration in the underlying diffusion layer to be reduced.
A lighting apparatus comprising: a first light source comprising a first light emitting device and a first projection disposed on a first substrate; a second light source comprising a second light emitting device and a second projection disposed on a second substrate; a heat radiating body which radiates heat from the first and second light emitting sources, comprises a space for housing the first and the second light sources (120a,120b), and comprises an opening allowing light emitted from the first and the second light sources; and, a reflector being disposed inside the heat radiating body and comprising a reflective surface of reflecting the light emitted from the first and second light sources to the opening of the heat radiating body and a locking part (141a, 141b); wherein the reflective surface of the reflector comprises two surfaces, and wherein the ends of the two surfaces are in contact with each other; characterized in that the locking part of the reflector has a first locking part coupled to the first projection of the first light source and a second locking part coupled to the second projection of the second light source in order to fix the reflector inside the heat radiating body. a first light source comprising a first light emitting device and a first projection disposed on a first substrate; a second light source comprising a second light emitting device and a second projection disposed on a second substrate; a heat radiating body which radiates heat from the first and second light emitting sources, comprises a space for housing the first and the second light sources (120a,120b), and comprises an opening allowing light emitted from the first and the second light sources; and, a reflector being disposed inside the heat radiating body and comprising a reflective surface of reflecting the light emitted from the first and second light sources to the opening of the heat radiating body and a locking part (141a, 141b); wherein the reflective surface of the reflector comprises two surfaces, and wherein the ends of the two surfaces are in contact with each other; characterized in that the locking part of the reflector has a first locking part coupled to the first projection of the first light source and a second locking part coupled to the second projection of the second light source in order to fix the reflector inside the heat radiating body.
Monitoring system for monitoring operating states of a movable component made of metal for compensating for inherent movements of a pipe for fluids, comprising: - a movable component (1, 15, 24) made of metal, which is especially variable in length and/or angularly movable and/or axially movable and/or laterally movable, - at least one measuring element (2, 3, 4), which is assigned to the movable component (1, 15, 24), for detecting at least one state parameter of the movable component (1, 15, 24) and/or of the fluid and/or of the environment, insofar as the latter affects the movable component, - an analysis unit for collecting and analysing the state parameters that are detected by the measuring element (2, 3, 4) and are provided as measurement data, - a communication module for transmitting the measurement data to the analysis unit, - and a cloud platform with which the analysis unit is connectible as required, wherein the analysis unit is configured so that it compares the measurement data received from the communication module with data from the cloud platform or supplements the measurement data by such data, analyses it and outputs the results as information and/or it effects analysis of the measurement data in the cloud platform and outputs the results as information, wherein the at least one measuring element (2, 3, 4) is provided for detecting those state parameters which affect the service life of the movable component (1, 15, 24), such as load cycles completed by the movable component, other movements, pressure peaks, vibration loads, temperature loads and the like, and wherein the analysis unit converts the received measurement data into damage equivalents, adds them up and, by comparison with or supplementation by data from the cloud platform, especially using standard calculation data of relevant standards and/or empirical data collections, calculates a prognosis for the residual service life of the movable component and outputs that prognosis as result. - a movable component (1, 15, 24) made of metal, which is especially variable in length and/or angularly movable and/or axially movable and/or laterally movable, - at least one measuring element (2, 3, 4), which is assigned to the movable component (1, 15, 24), for detecting at least one state parameter of the movable component (1, 15, 24) and/or of the fluid and/or of the environment, insofar as the latter affects the movable component, - an analysis unit for collecting and analysing the state parameters that are detected by the measuring element (2, 3, 4) and are provided as measurement data, - a communication module for transmitting the measurement data to the analysis unit, - and a cloud platform with which the analysis unit is connectible as required,
A flexible sole for an article of footwear, the sole being designed to have flexibility such that it allows a foot to roll during walking; the sole having been manufactured from EVA by injection moulding to have an upper, ungrooved portion, and a lower, tread portion having a plurality of grooves (6, 8) extending therein which open in the bottom surface of the sole; the sole comprising: at least two, continuous, undulating grooves extending generally longitudinally of the tread portion between the toe and heel ends thereof, each end of each undulating groove being at a similar acute angle relative to a heel to toe line extending generally longitudinally of the sole wherein the at least two continuous undulating grooves extend the full length of the sole; and a plurality of grooves extending generally transversely of the tread portion from edge to edge thereof, each transverse groove intersecting the longitudinally extending undulating grooves; wherein the grooves (6, 8) in the sole have a minimum depth of about 5mm, and the upper, ungrooved portion of the sole has a minimum depth of 4 mm and a maximum depth of 6mm. at least two, continuous, undulating grooves extending generally longitudinally of the tread portion between the toe and heel ends thereof, each end of each undulating groove being at a similar acute angle relative to a heel to toe line extending generally longitudinally of the sole wherein the at least two continuous undulating grooves extend the full length of the sole; and a plurality of grooves extending generally transversely of the tread portion from edge to edge thereof, each transverse groove intersecting the longitudinally extending undulating grooves; wherein the grooves (6, 8) in the sole have a minimum depth of about 5mm, and the upper, ungrooved portion of the sole has a minimum depth of 4 mm and a maximum depth of 6mm.
A method for generating entropy in a computing device, the method comprising: setting a repeating first timer for a first frequency; setting a repeating second timer for a second frequency; collecting a predetermined number of first bits from a first entropy source at the first frequency, the predetermined number based on an amount of entropy per bit attributable to the first entropy source; presenting the first bits to a pseudo-random number generator; gathering a specified number of second bits from a second entropy source at the second frequency, the specified number based on an amount of entropy per bit attributable to the second entropy source; and presenting the second bits to the pseudo-random number generator, whereby the first and second bits can be used to seed the pseudo-random number generator. setting a repeating first timer for a first frequency; setting a repeating second timer for a second frequency; collecting a predetermined number of first bits from a first entropy source at the first frequency, the predetermined number based on an amount of entropy per bit attributable to the first entropy source; presenting the first bits to a pseudo-random number generator; gathering a specified number of second bits from a second entropy source at the second frequency, the specified number based on an amount of entropy per bit attributable to the second entropy source; and presenting the second bits to the pseudo-random number generator, whereby the first and second bits can be used to seed the pseudo-random number generator.
A vacuum flask assembly comprising: a vacuum flask with a push-button lid, the push-button lid being movable between an open condition in which a sealing actuator of the lid is elevated and a closed condition in which the sealing actuator is retracted, characterized in that a container cap which is locatable over the lid and, a container base disposed at the opposing end of the vacuum flask to the lid; wherein, when the sealing actuator is in its open condition and the container cap is mounted to the container base, the container cap acts on the sealing actuator to move it into its closed condition, the container cap extending over the vacuum flask to mount to the container base. a vacuum flask with a push-button lid, the push-button lid being movable between an open condition in which a sealing actuator of the lid is elevated and a closed condition in which the sealing actuator is retracted, characterized in that a container cap which is locatable over the lid and, a container base disposed at the opposing end of the vacuum flask to the lid; wherein, when the sealing actuator is in its open condition and the container cap is mounted to the container base, the container cap acts on the sealing actuator to move it into its closed condition, the container cap extending over the vacuum flask to mount to the container base.