mhurhangee/ep-ind-claims huggingface dataset:
Method for producing flatly-pressed supply rolls of a pre-compressed sealing tape, wherein an open-pore foam web is wound under compression onto a hollow core to form a parent roll and is retained by means of a sheath before the sheathed parent roll is subdivided into individual supply rolls and these supply rolls are each flatly pressed in their own right, characterised in that the supply rolls are each inserted into a gas-tight cover consisting of two tension-proof cover films (5, 6) which, with the exception of an insertion opening, are connected to one another on the edge side, and said supply rolls are introduced into a vacuum chamber and in that the insertion opening of the cover is closed in a gas-tight manner after evacuation of the vacuum chamber before the supply rolls are flatly pressed by means of ventilation of the vacuum chamber.
A packet forwarding method, comprising the steps of: receiving N Time-Sensitive Networking, TSN, packet flows, wherein each of the N TSN packet flows is corresponding to a constraint condition that defines duration of a single cycle, a maximum quantity of packets that are allowed to be transmitted in a single cycle, and a maximum length of a single packet, and N is a positive integer greater than or equal to 2; receiving information that is used to indicate a new constraint condition and that is sent by a network configuration device; determining the new constraint condition based on the information used to indicate the new constraint condition; and forwarding the N TSN packet flows based on the new constraint condition that defines duration of a single cycle, a maximum quantity of packets that are allowed to be transmitted in a single cycle, and a maximum length of a single packet, wherein each TSN packet flow is forwarded in a case in which a corresponding constraint condition is complied with, and the new constraint condition is determined based on the constraint condition corresponding to each of the N TSN packet flows. receiving N Time-Sensitive Networking, TSN, packet flows, wherein each of the N TSN packet flows is corresponding to a constraint condition that defines duration of a single cycle, a maximum quantity of packets that are allowed to be transmitted in a single cycle, and a maximum length of a single packet, and N is a positive integer greater than or equal to 2; receiving information that is used to indicate a new constraint condition and that is sent by a network configuration device; determining the new constraint condition based on the information used to indicate the new constraint condition; and forwarding the N TSN packet flows based on the new constraint condition that defines duration of a single cycle, a maximum quantity of packets that are allowed to be transmitted in a single cycle, and a maximum length of a single packet, wherein each TSN packet flow is forwarded in a case in which a corresponding constraint condition is complied with, and the new constraint condition is determined based on the constraint condition corresponding to each of the N TSN packet flows.
Support structure for a number of battery modules, having: a plurality of support elements (7a, 7b), which support elements (7a, 7b) are arranged spaced apart from one another and between them form a number of compartments, which compartments are intended to each receive a battery module; wherein at least a number of support elements are configured as fluid-conducting elements or comprise fluid-conducting elements, which fluid-conducting elements extend into the respective area of the compartments and via which fluid-conducting elements a temperature-controlling fluid for the battery modules can be fed into the area of the compartments and discharged again from there; characterized in that the fluid-conducting support elements are connected to one another detachably in pairs by at least one sealing element, preferably material-bonded, soldered or welded. a plurality of support elements (7a, 7b), which support elements (7a, 7b) are arranged spaced apart from one another and between them form a number of compartments, which compartments are intended to each receive a battery module; wherein at least a number of support elements are configured as fluid-conducting elements or comprise fluid-conducting elements, which fluid-conducting elements extend into the respective area of the compartments and via which fluid-conducting elements a temperature-controlling fluid for the battery modules can be fed into the area of the compartments and discharged again from there; characterized in that the fluid-conducting support elements are connected to one another detachably in pairs by at least one sealing element, preferably material-bonded, soldered or welded.
A packet processing method, wherein the method comprises: receiving, by a network node, a packet carrying a segment routing header SRH, wherein the SRH comprises one or more type-length-value TLV fields and a TLV processing attribute, and the TLV processing attribute indicates whether the network node needs to process the TLV fields comprised in the SRH; and determining, by the network node based on the TLV processing attribute, processing of the TLV fields comprised in the SRH, wherein the SRH further comprises a plurality of segment identifiers SIDs that are in a one-to-one correspondence with a plurality of segment endpoint nodes on a forwarding path of the packet, the plurality of segment endpoint nodes are nodes that have a segment routing function on the forwarding path of the packet, the network node is any one of the segment endpoint nodes, and the TLV processing attribute is set in a SID corresponding to the network node, characterized in that that the TLV processing attribute is set in the SID of the network node comprises: the TLV processing attribute is set through a function type of the SID corresponding to the network node; or the TLV processing attribute is set through a field in the SID corresponding to the network node. receiving, by a network node, a packet carrying a segment routing header SRH, wherein the SRH comprises one or more type-length-value TLV fields and a TLV processing attribute, and the TLV processing attribute indicates whether the network node needs to process the TLV fields comprised in the SRH; and determining, by the network node based on the TLV processing attribute, processing of the TLV fields comprised in the SRH, wherein the SRH further comprises a plurality of segment identifiers SIDs that are in a one-to-one correspondence with a plurality of segment endpoint nodes on a forwarding path of the packet, the plurality of segment endpoint nodes are nodes that have a segment routing function on the forwarding path of the packet, the network node is any one of the segment endpoint nodes, and the TLV processing attribute is set in a SID corresponding to the network node, characterized in that that the TLV processing attribute is set in the SID of the network node comprises: the TLV processing attribute is set through a function type of the SID corresponding to the network node; or the TLV processing attribute is set through a field in the SID corresponding to the network node.
An apparatus for encoding one or more audio objects to obtain an encoded signal, wherein the apparatus comprises: a downmixer for downmixing the one or more audio objects to obtain one or more unprocessed downmix signals, a processing module for processing the one or more unprocessed downmix signals to obtain one or more processed downmix signals, wherein the processing module is configured to process the one or more unprocessed downmix signals by encoding the one or more unprocessed downmix signals to obtain the one or more processed downmix signals, a signal calculator for calculating one or more additional signals, wherein the signal calculator comprises a decoding unit and a combiner, wherein the decoding unit is configured to decode the one or more processed downmix signals to obtain one or more decoded signals, and wherein the combiner is configured to generate each of the one or more additional signals by generating a difference signal between one of the one or more decoded signals and one of the one or more unprocessed downmix signals, an object information generator for generating parametric audio object information for the one or more audio objects and additional parametric information for the one or more additional signals, and an output interface for outputting the encoded signal, the encoded signal comprising the parametric audio object information for the one or more audio objects and the additional parametric information for the one or more additional signals. a downmixer for downmixing the one or more audio objects to obtain one or more unprocessed downmix signals, a processing module for processing the one or more unprocessed downmix signals to obtain one or more processed downmix signals, wherein the processing module is configured to process the one or more unprocessed downmix signals by encoding the one or more unprocessed downmix signals to obtain the one or more processed downmix signals, a signal calculator for calculating one or more additional signals, wherein the signal calculator comprises a decoding unit and a combiner, wherein the decoding unit is configured to decode the one or more processed downmix signals to obtain one or more decoded signals, and wherein the combiner is configured to generate each of the one or more additional signals by generating a difference signal between one of the one or more decoded signals and one of the one or more unprocessed downmix signals, an object information generator for generating parametric audio object information for the one or more audio objects and additional parametric information for the one or more additional signals, and an output interface for outputting the encoded signal, the encoded signal comprising the parametric audio object information for the one or more audio objects and the additional parametric information for the one or more additional signals.
Gluing nozzle for a gluing machine, adhesive cartridge or similar devices for use in the gluing of pane arrangements to a leaf or frame profile, preferably a window or door profile made of plastics material, wood, aluminium or at least one other material, having a gluing nozzle base body, which has at least one adhesive inlet and at least one adhesive outlet, and having a limiting surface, which is arranged spaced apart from the at least one adhesive outlet, for spatially limiting a flow of adhesive from the adhesive outlet, characterised in that the gluing nozzle base body, at least in the region of the adhesive outlet, is configured for introduction in an introduction direction, up to an introduction depth, into a gluing gap between an edge of the pane arrangement and the leaf or frame profile, and the gluing nozzle base body has, on the side of the adhesive inlet, at least one guide structure (12, 12') in the form of a guide surface for guiding the gluing nozzle along a side face of the profile during the gluing of a pane arrangement to the profile, wherein an oversizing of the gluing nozzle base body relative to the guide surface defines the introduction depth of the gluing nozzle into the gluing gap.
A spool brake device for a dual-bearing reel, the spool brake device configured to brake a spool capable of winding thereabout a fishing line having a terminal tackle attached to a tip thereof, the spool brake device comprising: a spool braking part configured to electrically brake the spool in releasing the fishing line; a spool controlling part (42, 72) configured to electrically control the spool braking part; and a rotational speed detecting part configured to detect a rotational speed of the spool; characterised in that the spool brake device comprises a water landing determining part configured to brake the spool in a predetermined timing after starting of casting with a braking force greater than a predetermined braking force, and to determine whether or not the terminal tackle is in a water landing state in accordance with a detection result of the rotational speed after releasing of braking, the water landing state indicating that the terminal tackle is in water. a spool braking part configured to electrically brake the spool in releasing the fishing line; a spool controlling part (42, 72) configured to electrically control the spool braking part; and a rotational speed detecting part configured to detect a rotational speed of the spool; characterised in that the spool brake device comprises a water landing determining part configured to brake the spool in a predetermined timing after starting of casting with a braking force greater than a predetermined braking force, and to determine whether or not the terminal tackle is in a water landing state in accordance with a detection result of the rotational speed after releasing of braking, the water landing state indicating that the terminal tackle is in water.
Vegetable protein hydrolyzate of broad bean and/or fava bean, characterized in that it comprises at least 85% protein, in that it comprises sodium at a concentration of less than 4.5% and in that it is obtained by a process comprising a step of solubilization of the proteins of broad bean and/or fava bean in an aqueous medium at a pH less than or equal to 8.5.
Vacuum box for a fiber web machine, the vacuum box including - a frame configured to be supported to the fiber web machine, and - a wearing construction adapted to the frame and arranged partially open on the surface by means of several openings for extending a vacuum effect out from within the frame and further to a fabric included in the fiber web machine, wherein the wearing construction of the vacuum box is configured to be in contact with the fabric, wherein the wearing construction is a hard-coated plate construction being hard-coated by preferably thermal spraying providing a ceramic or cera-metallic hard-coating to achieve a wear resistance, the material strength s of which is equal to or smaller than a distance x between opposite edges (18, 19) defining one opening of the several openings wherein the plate construction is made of sheet metal, the material strength of which is 2 - 10 mm, more advantageously 4 - 6 mm. - a frame configured to be supported to the fiber web machine, and - a wearing construction adapted to the frame and arranged partially open on the surface by means of several openings for extending a vacuum effect out from within the frame and further to a fabric included in the fiber web machine, wherein the wearing construction of the vacuum box is configured to be in contact with the fabric, wherein the wearing construction is a hard-coated plate construction being hard-coated by preferably thermal spraying providing a ceramic or cera-metallic hard-coating to achieve a wear resistance, the material strength s of which is equal to or smaller than a distance x between opposite edges (18, 19) defining one opening of the several openings wherein the plate construction is made of sheet metal, the material strength of which is 2 - 10 mm, more advantageously 4 - 6 mm.
An elongated post for securing fences thereon, having an essentially mushroom-shaped cross-section which is essentially symmetrical around a symmetry axis, comprising the following portions integrally ordered along the symmetry axis at each side of the symmetry axis: - a first portion having a mainly convex outer face and an essentially flat inner face; the first portion having a width parallel to the inner face, and a depth along the symmetry axis; - a second portion forming an essentially flat side surface along a depth (d) mainly perpendicular to said inner face and mainly parallel to the symmetry axis, where the inner face has a maximum distance to the symmetry axis which is mainly equal to a minimum distance of a distal end of the flat inner face to the symmetry axis; and - a third portion delimiting the depth (d) by having a support surface having a distal end with a distance to the symmetry axis which is greater than the maximum distance of the second portion at the end of the second portion distal to the first portion, characterized in that; said post further comprises at least one securing means having two flat surfaces, which are mainly perpendicular to each other and fixed on both the side surface of the second portion and the inner face of the first portion, for constraining a fence between said securing means and said inner face at various angles relative to the post, wherein said side surface and said inner face are adjacent to each other. - a first portion having a mainly convex outer face and an essentially flat inner face; the first portion having a width parallel to the inner face, and a depth along the symmetry axis; - a second portion forming an essentially flat side surface along a depth (d) mainly perpendicular to said inner face and mainly parallel to the symmetry axis, where the inner face has a maximum distance to the symmetry axis which is mainly equal to a minimum distance of a distal end of the flat inner face to the symmetry axis; and - a third portion delimiting the depth (d) by having a support surface having a distal end with a distance to the symmetry axis which is greater than the maximum distance of the second portion at the end of the second portion distal to the first portion,
A photosensitive insulating resin composition comprising: a copolymer obtained by copolymerizing monomer components containing a vinyl monomer having an epoxy group and a vinyl monomer having an oxetanyl group and another vinyl monomer, a photosensitive acid generator, and an organic solvent. a copolymer obtained by copolymerizing monomer components containing a vinyl monomer having an epoxy group and a vinyl monomer having an oxetanyl group and another vinyl monomer, a photosensitive acid generator, and an organic solvent.
A respiratory conduit suitable for use with a medical tube delivering gas from a source of gas flow to a patient, the respiratory conduit comprising: a lumen extending along a longitudinal axis and a wall surrounding the lumen, the lumen defining a gas-flow path when in use; and, an overmolded component (3003, 3301) securely connected to the wall and extending across the lumen, the overmolded component (3003, 3301) comprising: at least a Printed Circuit Board with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that, the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, the temperature sensor is positioned longitudinally upstream from a connection of the component (3003, 3301) to the wall along the gas-flow path adjacent an upstream leading edge of the sensor portion. a lumen extending along a longitudinal axis and a wall surrounding the lumen, the lumen defining a gas-flow path when in use; and, an overmolded component (3003, 3301) securely connected to the wall and extending across the lumen, the overmolded component (3003, 3301) comprising: at least a Printed Circuit Board with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that, the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, at least a Printed Circuit Board with a sensor portion disposed in the lumen; and, a temperature sensor provided on a surface of the sensor portion characterized in that, the sensor portion projects along the longitudinal axis and is configured to extend upstream along the gas-flow path towards the source of the gas flow in use; and, the temperature sensor is positioned longitudinally upstream from a connection of the component (3003, 3301) to the wall along the gas-flow path adjacent an upstream leading edge of the sensor portion.
Age hardenable steel comprising, by mass%, C: 0.09 to 0.20%, Si: 0.01 to 0.40%, Mn: 1.5 to 2.5%, S: 0.001 to 0.045%, Cr: over 1.00% to 2.00%, Al: 0.001 to 0.060%, V: 0.22 to 0.55%, N: over 0.0080 to 0.0170%, optionally Mo: 0.9% or less, further optionally one or more of Cu: 0.3% or less and Ni: 0.3% or less, and further optionally one or more of Ca: 0.005% or less and Bi: 0.4% or less, and a balance of Fe and impurities, the P and Ti in these impurities being P: 0.03% or less and Ti: less than 0.005%, wherein an area rate of bainite structures is 80% or more, an effective V ratio which is amount of dissolved V/total amount of V, is 0.9 or more, and a chemical composition is one where the F1 expressed by the following formula is 1.00 or less and the F2 expressed by the following formula is 0.30 or more: F 1 = C + 0.1 × Si + 0.2 × Mn + 0.15 × Cr + 0.35 × V + 0.2 × Mo F 2 = − 4.5 × C + Mn + Cr − 3.5 × V − 0.8 × Mo where, in the above formulas and, the element symbols mean the contents of the elements by mass%. an area rate of bainite structures is 80% or more, an effective V ratio which is amount of dissolved V/total amount of V, is 0.9 or more, and a chemical composition is one where the F1 expressed by the following formula is 1.00 or less and the F2 expressed by the following formula is 0.30 or more: F 1 = C + 0.1 × Si + 0.2 × Mn + 0.15 × Cr + 0.35 × V + 0.2 × Mo F 2 = − 4.5 × C + Mn + Cr − 3.5 × V − 0.8 × Mo where, in the above formulas and, the element symbols mean the contents of the elements by mass%.
Process for preparing primary amines comprising the process steps A) provision of a solution of a primary alcohol in a fluid, nongaseous phase, B) contacting of the phase with free ammonia and/or at least one ammonia-releasing compound and a homogeneous catalyst and optionally C) isolation of the primary amine formed in process step B), characterized in that the volume ratio of the volume of the liquid phase to the volume of the gas phase in process step B is greater than 0.05 and/or in that process step B is carried out at pressures greater than 10 bar. A) provision of a solution of a primary alcohol in a fluid, nongaseous phase, B) contacting of the phase with free ammonia and/or at least one ammonia-releasing compound and a homogeneous catalyst and optionally C) isolation of the primary amine formed in process step B), characterized in that the volume ratio of the volume of the liquid phase to the volume of the gas phase in process step B is greater than 0.05 and/or in that process step B is carried out at pressures greater than 10 bar.
A naphtha boiling range fuel composition having a research octane number of 80 to 105, and a sensitivity calculated as RON - MON of 8.0 to 18.0; wherein MON is the motor octane rating; the fuel composition comprising - a combined wt% of n-paraffins and isoparaffins that include a straight-chain propyl group that is less than (-1.273 x RON + 135.6) based on the total weight of the fuel composition; and - at least 10 wt% naphthenes; wherein the fuel composition has a T5 distillation point of at least 10°C and a T95 distillation point of 233°C or less; and wherein said n-paraffins and isoparaffins that include a straight-chain propyl group correspond to a formula R 1 -CH 2 -CH 2 -CH 2 -R 2, wherein - R 1 is hydrogen or any C x H y group that can appear in a paraffin or isoparaffin; and - R 2 is any C x H y group that can appear in a paraffin or isoparaffin. - a combined wt% of n-paraffins and isoparaffins that include a straight-chain propyl group that is less than (-1.273 x RON + 135.6) based on the total weight of the fuel composition; and - at least 10 wt% naphthenes; wherein the fuel composition has a T5 distillation point of at least 10°C and a T95 distillation point of 233°C or less; and wherein said n-paraffins and isoparaffins that include a straight-chain propyl group correspond to a formula R 1 -CH 2 -CH 2 -CH 2 -R 2, wherein - R 1 is hydrogen or any C x H y group that can appear in a paraffin or isoparaffin; and - R 2 is any C x H y group that can appear in a paraffin or isoparaffin. - R 1 is hydrogen or any C x H y group that can appear in a paraffin or isoparaffin; and - R 2 is any C x H y group that can appear in a paraffin or isoparaffin.