mhurhangee/ep-ind-claims huggingface dataset:
Device for providing compressed air, having at least two chambers (2, 3, 4) of constant cross section, the longitudinal axes of which extend vertically and which are connected to one another in an air-tight manner, in which chambers (2, 3, 4) pistons are provided so as to be movable in the longitudinal direction, which pistons seal off with respect to the chamber walls, wherein a first chamber is a pump chamber or working chamber in which, by insertion of the piston, arranged in this chamber, starting from an initial position of the piston, air is able to be compressed and is able to be transferred via a connecting line into a second chamber (3, 4), which second chamber (3, 4) serves as a storage chamber, wherein the piston is able to be inserted into the first chamber exclusively on account of its weight.
Method for configuring an electronic system, the electronic system being a configurable system for transferring data, the electronic system comprising: - at least one electronic module for processing data, and - a plurality of pairs of unidirectional links for transferring data, each unidirectional link comprising at least one controllable unidirectional component which is controllable between an activated configuration for transferring data and a deactivated configuration for blocking data, each respective pair of unidirectional links being connected to at least one electronic module and comprising two unidirectional links arranged in opposite directions, the electronic modules being arranged in the form of a matrix, at least one controllable unidirectional component being an optical component, the electronic system comprising at least six electronic modules, at least three electronic modules each being connectable to at least one element (130, 135, 142, 143, 144, 146, 147, 164, 166, 190, 192, 214, 220) external to the electronic system by at least one unidirectional link for transferring data from the external element to the module and at least one unidirectional link for transferring data from the module to the external element, the method comprising: - sending a deactivation command for each component, and - sending an activation command for a selection of components in order to define a data transfer path, during the step of sending an activation command, the selection of components being activated in order to permit the bidirectional transfer of data between three external elements (130, 135, 166) and the at least three electronic modules (14A, 14B, 14F) and to permit the unidirectional transfer of data between the at least three modules (14A, 14B, 14F) and the at least three other electronic modules (14C, 14D, 14E), the three external elements (130, 135, 166) being three networks (130, 135, 166), the electronic system then forming an asymmetric multilevel system. - at least one electronic module for processing data, and - a plurality of pairs of unidirectional links for transferring data, each unidirectional link comprising at least one controllable unidirectional component which is controllable between an activated configuration for transferring data and a deactivated configuration for blocking data, - sending a deactivation command for each component, and - sending an activation command for a selection of components in order to define a data transfer path,
A contact lens, having: a polyquaternium-1 uptake ("PU") of about 0.40 micrograms/lens or less (or about 0,30 micrograms/lens or less); a water-break-up time of at least 10 seconds after 30 cycles of digital rubbing treatment; wherein the contact lens comprises an anterior surface and an opposite posterior surface; and a layered structural configuration which comprises, in a direction from the anterior surface to the posterior surface, an anterior outer hydrogel layer, an inner layer of a lens material, and a posterior outer hydrogel layer, wherein the inner layer has a first equilibrium water content of about 70% by weight or less, wherein the anterior and posterior outer hydrogel layers independent of each other have a thickness of from about 0.25 μm to about 25 μm when being fully hydrated and a second equilibrium water content that is higher than the first equilibrium water content, wherein the anterior and posterior outer hydrogel layers independent of each other have a water-swelling ratio of at least 140%. a polyquaternium-1 uptake ("PU") of about 0.40 micrograms/lens or less (or about 0,30 micrograms/lens or less); a water-break-up time of at least 10 seconds after 30 cycles of digital rubbing treatment; wherein the contact lens comprises an anterior surface and an opposite posterior surface; and a layered structural configuration which comprises, in a direction from the anterior surface to the posterior surface, an anterior outer hydrogel layer, an inner layer of a lens material, and a posterior outer hydrogel layer, wherein the inner layer has a first equilibrium water content of about 70% by weight or less, wherein the anterior and posterior outer hydrogel layers independent of each other have a thickness of from about 0.25 μm to about 25 μm when being fully hydrated and a second equilibrium water content that is higher than the first equilibrium water content, wherein the anterior and posterior outer hydrogel layers independent of each other have a water-swelling ratio of at least 140%.
A process for forming a polymer crumb comprising residues of 2-(4-amino phenyl)-5 amino benzimidazole (DAPBI), paraphenylene diamine and terephthaloyl dichloride, comprising the steps of: i) forming a slurry of b mole percent DAPBI in a solvent system comprising organic solvent and c weight percent of an inorganic salt, wherein the inorganic salt is present in an amount of at least 5 weight percent of the organic solvent; ii) contacting the slurry with a less than stoichiometric amount of terephthaloyl dichloride, based on the amount of DAPBI in step i), to form an prepolymer solution; and iii) contacting the prepolymer solution with y mole percent of PPD and additional TCL to form a polymer solution; wherein the total amount of TCL added in steps ii) and iii) is a stoichiometric amount based on the total amount of DAPBI added in step i) and PPD added in step iii); wherein the DAPBI and PPD are added in an amount sufficient for providing a polymer solution having a weight percent solids of 12 percent or greater on a polymer basis; and wherein the sum of y+b is 100 and the product of (b x c) is 225 or greater. i) forming a slurry of b mole percent DAPBI in a solvent system comprising organic solvent and c weight percent of an inorganic salt, wherein the inorganic salt is present in an amount of at least 5 weight percent of the organic solvent; ii) contacting the slurry with a less than stoichiometric amount of terephthaloyl dichloride, based on the amount of DAPBI in step i), to form an prepolymer solution; and iii) contacting the prepolymer solution with y mole percent of PPD and additional TCL to form a polymer solution;
A neurostimulation device comprising at least three stimulation electrodes configured to deliver an electrical stimulus to neural tissue; characterised by a control unit configured to deliver a first stimulus phase in which a first stimulus electrode delivers a supra-threshold stimulus component, returned by at least two other of the stimulation electrodes, the control unit further configured to deliver at least a second stimulus phase in which at least two of the stimulus electrodes deliver a sub-threshold stimulus component, returned by the first stimulus electrode. at least three stimulation electrodes configured to deliver an electrical stimulus to neural tissue; characterised by a control unit configured to deliver a first stimulus phase in which a first stimulus electrode delivers a supra-threshold stimulus component, returned by at least two other of the stimulation electrodes, the control unit further configured to deliver at least a second stimulus phase in which at least two of the stimulus electrodes deliver a sub-threshold stimulus component, returned by the first stimulus electrode.
A method for a network node for discrete power allocation for a non-orthogonal multiple access, NOMA, system, the method comprising: determining a set of discrete power allocation values, each particular wireless device, WD, in a set of WDs being assigned to one of the set of discrete power allocation values, the determining including subjecting the power allocation values to at least one constraint to reduce a number of power allocation value combinations; transmitting to the WDs in the set, a plurality of superimposed data signals, each data signal intended for a different one of the WDs in the set and having a different power allocation value, each WD in the set receiving all the plurality of superimposed data signals; and transmitting to each WD in the set of WDs a different control signal, the control signal including an indication of the power level allocation values of the set of discrete power allocation values. determining a set of discrete power allocation values, each particular wireless device, WD, in a set of WDs being assigned to one of the set of discrete power allocation values, the determining including subjecting the power allocation values to at least one constraint to reduce a number of power allocation value combinations; transmitting to the WDs in the set, a plurality of superimposed data signals, each data signal intended for a different one of the WDs in the set and having a different power allocation value, each WD in the set receiving all the plurality of superimposed data signals; and transmitting to each WD in the set of WDs a different control signal, the control signal including an indication of the power level allocation values of the set of discrete power allocation values.
A work gondola apparatus comprising: a work cage into which a worker boards; equipment mounting parts disposed on both outer sides of the work cage; battery-driven elevating/lowering mechanisms which are mounted to the respective equipment mounting parts and which elevate/lower the work cage to a working location by means of cables that are being suspended; and batteries for driving the respective elevating/lowering mechanisms, wherein the battery is provided with an auxiliary battery and the auxiliary battery is configured to be capable of simultaneously driving the elevating/lowering mechanisms on both sides, and the equipment mounting parts are configured so as to substantially keep the weight balance between the right and left sides. a work cage into which a worker boards; equipment mounting parts disposed on both outer sides of the work cage; battery-driven elevating/lowering mechanisms which are mounted to the respective equipment mounting parts and which elevate/lower the work cage to a working location by means of cables that are being suspended; and batteries for driving the respective elevating/lowering mechanisms, wherein the battery is provided with an auxiliary battery and the auxiliary battery is configured to be capable of simultaneously driving the elevating/lowering mechanisms on both sides, and the equipment mounting parts are configured so as to substantially keep the weight balance between the right and left sides.
A wingtip torque box comprising: an upper monolithic clamshell comprising an upper front spar, an upper rear spar, and an upper skin portion extending between the upper front spar and the upper rear spar; a lower monolithic clamshell comprising a lower front spar, a lower rear spar, and a lower skin portion extending between the lower front spar and the lower rear spar, wherein the upper monolithic clamshell and the lower monolithic clamshell form a cavity, wherein the cavity is a continuous cavity that extends between a wing end and a tip end of the wingtip torque box; wherein the upper front spar is friction stir welded to the lower front spar at a front friction stir welded joint, and wherein the upper rear spar is friction stir welded to the lower rear spar at a rear friction stir welded joint, wherein the torque box includes internal grid stiffeners (350a, 350b), wherein upper internal grid stiffeners are parts of and monolithic with the upper clamshell and wherein lower internal grid stiffeners are parts of and monolithic with the lower clamshell. an upper monolithic clamshell comprising an upper front spar, an upper rear spar, and an upper skin portion extending between the upper front spar and the upper rear spar; a lower monolithic clamshell comprising a lower front spar, a lower rear spar, and a lower skin portion extending between the lower front spar and the lower rear spar, wherein the upper monolithic clamshell and the lower monolithic clamshell form a cavity, wherein the cavity is a continuous cavity that extends between a wing end and a tip end of the wingtip torque box; wherein the upper front spar is friction stir welded to the lower front spar at a front friction stir welded joint, and wherein the upper rear spar is friction stir welded to the lower rear spar at a rear friction stir welded joint, wherein the torque box includes internal grid stiffeners (350a, 350b), wherein upper internal grid stiffeners are parts of and monolithic with the upper clamshell and wherein lower internal grid stiffeners are parts of and monolithic with the lower clamshell.
An interior trim component, comprising: an aerated skin layer, a glass reinforced urethane substrate layer; an aerated in-mold-coating paint layer deposited over the aerated skin layer, characterized by the aerated in-mold-coating paint layer includes: a first paint portion defining a first color and a second paint portion defining a second color, wherein the first color is different from the second color. an aerated skin layer, a glass reinforced urethane substrate layer; an aerated in-mold-coating paint layer deposited over the aerated skin layer, a first paint portion defining a first color and a second paint portion defining a second color, wherein the first color is different from the second color.
A polymeric mesh, comprising: an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a glycolide-caprolactone-trimethylene carbonate copolymer. an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a glycolide-caprolactone-trimethylene carbonate copolymer.
A disconnector device for disconnecting an electrical circuit, wherein the electrical circuit is switched by a contactor between an open position and a closed position, the disconnector device using the contactor for disconnecting the electric circuit, the disconnector device comprising: - first means (7, 8) for mechanically locking the contactor in the open position, in which open position contacts of the contactor are in a first position disconnecting the electrical circuit, and characterized by further comprising: - second means (9, 10) for electrically preventing control circuitry of the contactor to operate, the second means (9, 10) being connected electrically to the control circuitry of the contactor. - first means (7, 8) for mechanically locking the contactor in the open position, in which open position contacts of the contactor are in a first position disconnecting the electrical circuit, and characterized by further comprising: - second means (9, 10) for electrically preventing control circuitry of the contactor to operate, the second means (9, 10) being connected electrically to the control circuitry of the contactor. - second means (9, 10) for electrically preventing control circuitry of the contactor to operate, the second means (9, 10) being connected electrically to the control circuitry of the contactor.
Measuring unit for a portable gas analysis device, in particular for highly volatile compounds, wherein the measuring unit comprises a separation column having a detector and a casing enclosing the separation column on the inside and outside, wherein the casing consists of a heat-conductive, in particular metallic material and has a thermal stabilization unit, which comprises a temperature sensor and a heating element on the casing, characterized in that the separation column is embodied as a multi-capillary unit made of capillaries arranged in parallel in bent form, and the casing is embodied as enclosing the multi-capillary unit and is provided with a common connector block (2, 2', 2'', 2*) also of heat-conductive material, in which connections of the capillaries and of supply/exhaust lines for the capillaries are combined.
A refrigerator comprising a fresh food compartment wherein objects to be cooled are placed, a freezing compartment wherein objects to be frozen are placed and a thawing compartment disposed inside the fresh food compartment, wherein the frozen objects are placed, a heater providing the interior of the thawing compartment to be heated, a sensor that detects the temperature inside the thawing compartment and a control unit that detects the operation time (t h) elapsing for reaching the upper limit temperature value (T upper) predetermined by the producer and recorded in its memory and that operates the heater by applying consecutive operation times (t h) and stopping times (t off), characterized by the control unit that - compares the last detected operation time (t h) with the previous operation time (t h-1) and continues the thawing process or stops the thawing process by either a) comparing the ratio (R= t h /t h-1) of the last detected operation time (t h), to the previous operation time (t n-1) with a limit ratio (R limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected ratio is smaller than the limit ratio (R limit) value, or b) comparing the difference (D=t h -t h-1) between the last detected operation time (t h) and the previous operation time (t h-1) with a limit value (D limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected difference is greater than the limit value (D limit). - compares the last detected operation time (t h) with the previous operation time (t h-1) and continues the thawing process or stops the thawing process by either a) comparing the ratio (R= t h /t h-1) of the last detected operation time (t h), to the previous operation time (t n-1) with a limit ratio (R limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected ratio is smaller than the limit ratio (R limit) value, or b) comparing the difference (D=t h -t h-1) between the last detected operation time (t h) and the previous operation time (t h-1) with a limit value (D limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected difference is greater than the limit value (D limit). a) comparing the ratio (R= t h /t h-1) of the last detected operation time (t h), to the previous operation time (t n-1) with a limit ratio (R limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected ratio is smaller than the limit ratio (R limit) value, or b) comparing the difference (D=t h -t h-1) between the last detected operation time (t h) and the previous operation time (t h-1) with a limit value (D limit) recorded in its memory, predetermined by the producer and ending the thawing process if the last detected difference is greater than the limit value (D limit).
A method performed by a network node, the method comprising: defining, one or more parameters of a Coverage Enhanced Physical random access channel Configuration Index, CE PCI, for one or more Physical Random Access Channel, PRACH, resource sets, each of the one or more PRACH resource sets is associated with a coverage level whereby a different CE PCI is defined for each coverage level, configuring the one or more PRACH resource sets in a broadcast message, wherein configuring comprises broadcasting one or more CE PCIs, receiving a random access preamble from the UE, assigning a starting subframe number to a PRACH resource set used by a User Equipment, UE, based on the PRACH resource set associated coverage level, calculating a Random Access Radio Network Temporary Identifier, RA-RNTI, using the assigned starting subframe number, and transmitting to the UE, a random access response identified by the calculated RA-RNTI, wherein the starting subframe number indicates one of X starting opportunities in a Y-ms period, where Y = X ∗ PRACH repetition level. defining, one or more parameters of a Coverage Enhanced Physical random access channel Configuration Index, CE PCI, for one or more Physical Random Access Channel, PRACH, resource sets, each of the one or more PRACH resource sets is associated with a coverage level whereby a different CE PCI is defined for each coverage level, configuring the one or more PRACH resource sets in a broadcast message, wherein configuring comprises broadcasting one or more CE PCIs, receiving a random access preamble from the UE, assigning a starting subframe number to a PRACH resource set used by a User Equipment, UE, based on the PRACH resource set associated coverage level, calculating a Random Access Radio Network Temporary Identifier, RA-RNTI, using the assigned starting subframe number, and transmitting to the UE, a random access response identified by the calculated RA-RNTI, wherein the starting subframe number indicates one of X starting opportunities in a Y-ms period, where Y = X ∗ PRACH repetition level.
A washer/dryer comprising at least two side walls covering the volume from sides wherein the drum, in which the laundry is emplaced, and other machine elements are located, a front wall mounted onto the side walls and covering the said volume from front up to a certain height, a bracket hung between the side walls from a point near the front edge of the side walls, a panel covering the space that remains above the front wall from front, a flange extending from the upper edge of the panel towards the back, an upper table seating onto the upper edges of the side walls, onto the bracket and flange and thus, covering the top of the side walls and of the panel, and at least one support member disposed between the bracket and/or the flange and the upper table, wherein the support member has at least one absorber which is produced from a material having absorbing feature, characterized in that - the support member comprises a receptacle having a housing the receptacle being mounted onto the bracket and/or the flange, the absorber being disposed in the housing of the receptacle and the receptacle being produced from a rigid material, and - the support member bears against the upper table from below and thus, supports the upper table. - the support member comprises a receptacle having a housing the receptacle being mounted onto the bracket and/or the flange, the absorber being disposed in the housing of the receptacle and the receptacle being produced from a rigid material, and - the support member bears against the upper table from below and thus, supports the upper table.