mhurhangee/ep-ind-claims huggingface dataset:
A suspension system for suspending an intra-ocular lens in the lens capsule of an eye, said suspension system comprising a support element, said support element comprising a surface for bearing against the inner surface of a lens capsule to thereby transmit ciliary force to said intra-ocular lens, and a collapsible cavity formed in said support element having at least one opening communicating the interior of said cavity with the adjacent space in the interior of the lens capsule to allow fluid to flow from the interior of the lens capsule into and out of said collapsible cavity, said collapsible cavity having walls lining said cavity, wherein said support element in the vicinity of said collapsible cavity is sufficiently elastic to permit said cavity to be deformed under compression from said ciliary force and to return to a rest configuration after said ciliary force is reduced and wherein the flow of fluid into and out of said collapsible cavity is regulated by a flap valve action of at least one of said walls lining said collapsible cavity, whereby compression of said cavity causes the distance separating said walls to be reduced to a greater extent in the vicinity of said opening than in a location in said cavity spaced from said opening to thereby restrict the flow of fluid back into said cavity after said ciliary force is reduced.
Process for producing a metal sheet or a sheet metal component composed of a magnesium-based alloy, comprising the following sequential steps: a) production of a melt containing, in percent by weight, from 0.35% to 0.95% of aluminium, from 0.1% to 0.6% of calcium, from 0.1% to 0.6% of manganese, and magnesium and production-related impurities as balance; b) production of a cast strip (10") by means of casting-rolling with rapid solidification; c) homogenization heat treatment of the cast strip (10") d) hot rolling of the cast strip (10") in a plurality of passes (I-IX) to final thickness to give a metal sheet. a) production of a melt containing, in percent by weight, from 0.35% to 0.95% of aluminium, from 0.1% to 0.6% of calcium, from 0.1% to 0.6% of manganese, and magnesium and production-related impurities as balance; b) production of a cast strip (10") by means of casting-rolling with rapid solidification; c) homogenization heat treatment of the cast strip (10") d) hot rolling of the cast strip (10") in a plurality of passes (I-IX) to final thickness to give a metal sheet.
Contact arrangement to be received in a connection terminal, comprising at least one current bar and comprising at least one contact spring arranged on the at least one current bar, wherein the at least one contact spring has at least one holding region (112, 113) for holding the contact spring on the at least one current bar, wherein the at least one holding region (112, 113) is formed in such a way that it forms a latching connection with the current bar, wherein the at least one contact spring has a first holding region and second holding region arranged spaced apart from the first holding region, wherein the first holding region has at least one holding tab (116, 117, 128), which engages into a fastening region formed on the current bar, characterized in that the first holding region has a first holding tab and at least a second holding tab arranged spaced apart from the first holding tab.
A recyclable cardboard pallet which comprises a top platform and a bottom platform, each platform (1a, 1b) made up of at least one layer of laminar elements, and the platforms (1a, 1b) being arranged in parallel planes, wherein at least one layer of laminar elements of each platform (1a, 1b) incorporates openings and wherein separators are inserted in said openings, said separators being formed by an outer tubular body and an inner tubular body concentric with the outer tubular body and of a length greater than the length of the outer tubular body, characterized in that: - the openings have a frustoconical configuration, such that the largest diameter of the openings is positioned towards the inside of the pallet where the separators are located, - the inner tubular body has an outer diameter of a dimension similar to the smallest diameter of the opening, fitting flush with the laminar elements between which it is located, - the outer tubular body has an inner diameter of a dimension that is greater than or equal to the largest diameter of the opening, such that the ends thereof rest completely on the laminar elements between which it is placed, - the gap formed by the frustoconical configuration of the opening comprises fastening elements which fill in said gap, providing the joint with a greater resistance. - the openings have a frustoconical configuration, such that the largest diameter of the openings is positioned towards the inside of the pallet where the separators are located, - the inner tubular body has an outer diameter of a dimension similar to the smallest diameter of the opening, fitting flush with the laminar elements between which it is located, - the outer tubular body has an inner diameter of a dimension that is greater than or equal to the largest diameter of the opening, such that the ends thereof rest completely on the laminar elements between which it is placed, - the gap formed by the frustoconical configuration of the opening comprises fastening elements which fill in said gap, providing the joint with a greater resistance.
A method for determining a phase to which a receiver device is connected in a polyphase electric power supply system, an alternating electrical signal being transmitted via the phases of the polyphase electric power supply system, a powerline communication being setup between a transmitter device and the receiver device via the polyphase electric power supply system, characterized in that the transmitter device performs: - detecting a first zero-crossing of the alternating electrical signal on a phase to which the transmitter device is connected; - determining an instant at which the transmitter device is expected to transmit a data set to the receiver device; - determining a first time difference from said first zero-crossing and said instant at which the transmitter device is expected to transmit the data set; - including in the data set to be transmitted information representative of the phase to which the transmitter device is connected, when said first time difference is below a first predefined threshold; and in that the receiver device performs: - detecting a second zero-crossing of the alternating electrical signal on the phase to which the receiver device is connected; - determining an instant at which the receiver device receives the data set; - determining a second time difference from said second zero-crossing and said instant at which the receiver device receives the data set; - determining the phase to which the receiver device is connected, on the basis of said second time difference and of said information representative of the phase to which the transmitter device is connected. - detecting a first zero-crossing of the alternating electrical signal on a phase to which the transmitter device is connected; - determining an instant at which the transmitter device is expected to transmit a data set to the receiver device; - determining a first time difference from said first zero-crossing and said instant at which the transmitter device is expected to transmit the data set; - including in the data set to be transmitted information representative of the phase to which the transmitter device is connected, when said first time difference is below a first predefined threshold; - detecting a second zero-crossing of the alternating electrical signal on the phase to which the receiver device is connected; - determining an instant at which the receiver device receives the data set; - determining a second time difference from said second zero-crossing and said instant at which the receiver device receives the data set; - determining the phase to which the receiver device is connected, on the basis of said second time difference and of said information representative of the phase to which the transmitter device is connected.
Computer process manager, comprising: - a process data memory, and - a process processing unit, able to cause a process code to be executed in interaction with a designated part of the process data memory, wherein the process processing unit is configured to establish a super-process associated with a designated address space of the memory, characterized in that it further comprises: - a pooling function organized to load incident processes each able to be executed as a process in a proper address space, in the address space of the super-process in response to a condition affecting at least in part these incident processes, such that the address space of the super-process houses data of the incident processes by including for each incident process a frame (50, 51) followed by a mapping group (52, 53) and a structure (54, 55) to store its data, and in that the process processing unit is able to cause the code of each of the incident processes to be executed in separate interaction with their data. - a process data memory, and - a process processing unit, able to cause a process code to be executed in interaction with a designated part of the process data memory, - a pooling function organized to load incident processes each able to be executed as a process in a proper address space, in the address space of the super-process in response to a condition affecting at least in part these incident processes, such that the address space of the super-process houses data of the incident processes by including for each incident process a frame (50, 51) followed by a mapping group (52, 53) and a structure (54, 55) to store its data,
A method for processing a soft buffer performed by a terminal in a 3 rd generation partnership project, 3GPP, wireless communication system, the method comprising: receiving a first data of a device-to-device, D2D, communication and a second data of a downlink transmission on a physical downlink shared channel, PDSCH, wherein the first data includes at least one of D2D discovery information, a scheduling assignment, SA, for D2D communication, a D2D data of public safety, and a D2D data of non-public safety; identifying whether soft bits to be stored of the first data and the second data exceed a size of a soft buffer of the terminal; and storing the first data and the second data in the soft buffer based on a determined priority, wherein the priority is determined from a highest priority to a lowest priority as following order of the D2D data of public safety, the second data, the SA for D2D communication, the D2D data of non-public safety, the D2D discovery information, and wherein the soft buffer is released starting from a lowest priority data to a highest priority data, until there is no soft bit of data in the soft buffer with a priority lower than a priority of the data to be stored or until the soft buffer, which is unoccupied, is larger than or equal to a soft bit to be stored. receiving a first data of a device-to-device, D2D, communication and a second data of a downlink transmission on a physical downlink shared channel, PDSCH, wherein the first data includes at least one of D2D discovery information, a scheduling assignment, SA, for D2D communication, a D2D data of public safety, and a D2D data of non-public safety; identifying whether soft bits to be stored of the first data and the second data exceed a size of a soft buffer of the terminal; and storing the first data and the second data in the soft buffer based on a determined priority, wherein the priority is determined from a highest priority to a lowest priority as following order of the D2D data of public safety, the second data, the SA for D2D communication, the D2D data of non-public safety, the D2D discovery information, and wherein the soft buffer is released starting from a lowest priority data to a highest priority data, until there is no soft bit of data in the soft buffer with a priority lower than a priority of the data to be stored or until the soft buffer, which is unoccupied, is larger than or equal to a soft bit to be stored.
A solid polymer electrolyte characterized by a compound having a redox cycle, where it acts as a reducing agent in a range of potentials lower than a redox potential of hydroxy radical, and as an oxidizing agent in a range of potentials higher than a redox potential where hydrogen peroxide acts as a reducing agent, and wherein the compound is one selected from the group consisting of N-hydroxyphthalimide, N-hydroxy maleic acid imide, N-hydroxy succinic acid imide, N-hydroxyglutaric acid imide, N,N',N"-trihydroxy isocyanuric acid, 4-hydroxy-TEMPO, 4-carboxy-TEMPO, TEMPO, 3-carbamoyl-PROXYL, 3-carboxy-PROXYL, 3-carbamoyl-2,2,5,5-tetramethylpyrroline-1-yloxy, di-t-butylnitroxide, N-hydroxytrimellitic acid imide, N'-dihydroxypyromellitic acid imide, N-hydroxy-1,8-naphthalenedicarboxylic acid imide, N-hydroxy-1,8-decalindicarboxylic acid imide, N,N'-dihydroxy-1,8; 4,5-naphthalenetetracarboxylic acid imide, N,N'-dihydroxy-1,8;4,5-decalintetracarboxylic acid imide.
Method for drilling the ground through an excavation equipment, in particular for the installation of foundation piles, said equipment comprising: • at least one drilling turret with a vertical guiding antenna, at least one rotary head for driving drilling batteries comprising at least one continuous ground drilling rotary propeller housed inside a covering tube, • first inner drive means adapted to drive said propeller, • second external drive means connected to the tube and allowing movement thereof, • the propeller and the tube being capable of rotating and moving axially relative to each other in a selective and independent manner, • a driving cab for an operator, including all the manipulators for operating the machine and the systems for displaying and controlling measured parameters, • sensors adapted to measure drilling parameters, said method being characterized in that it comprises the following steps: • drilling the ground at a predetermined depth with the drilling battery, by placing the propeller at a predetermined height advanced with respect to the tube and by rotating and advancing the inner propeller, • measuring said drilling parameters to determine the total energy required by the drilling process, in order to obtain information about the actual consistency of the ground. • at least one drilling turret with a vertical guiding antenna, at least one rotary head for driving drilling batteries comprising at least one continuous ground drilling rotary propeller housed inside a covering tube, • first inner drive means adapted to drive said propeller, • second external drive means connected to the tube and allowing movement thereof, • the propeller and the tube being capable of rotating and moving axially relative to each other in a selective and independent manner, • a driving cab for an operator, including all the manipulators for operating the machine and the systems for displaying and controlling measured parameters, • sensors adapted to measure drilling parameters, • drilling the ground at a predetermined depth with the drilling battery, by placing the propeller at a predetermined height advanced with respect to the tube and by rotating and advancing the inner propeller, • measuring said drilling parameters to determine the total energy required by the drilling process, in order to obtain information about the actual consistency of the ground.
A liquid laundry detergent composition comprising: (i) one or more anionic and /or non-ionic surfactants; and (ii) a sulphated ethoxylated C 10 Guerbet alcohol surfactant with a number average degree of ethoxylation in the range of 2.5 to 6, wherein the weight ratio of total anionic and/or non-ionic surfactants to sulphated ethoxylated C10 Guerbet alcohol surfactant is from 100:1 to 30:1. (i) one or more anionic and /or non-ionic surfactants; and (ii) a sulphated ethoxylated C 10 Guerbet alcohol surfactant with a number average degree of ethoxylation in the range of 2.5 to 6, wherein the weight ratio of total anionic and/or non-ionic surfactants to sulphated ethoxylated C10 Guerbet alcohol surfactant is from 100:1 to 30:1.
An organic electroluminescent device comprising: a pair of electrodes; and at least one organic layer between the pair of electrodes, the at least one organic layer including a luminescent layer, wherein the luminescent layer contains at least one phosphorescent material and at least one compound represented by the formula: wherein: R 41, R 42, R 43, R 44, R 45, R 46, R 47, and R 48 each represents a hydrogen atom or a substituent; M 4 represents Zn 2+, Al 3+, or Ga 3 +; n 4 represents an integer of from 1 to 3; L 4 represents alkoxy ion, an aryloxy ion or a silyloxy; and m 4 represents an integer of from 0 to 2. a pair of electrodes; and at least one organic layer between the pair of electrodes, the at least one organic layer including a luminescent layer, wherein the luminescent layer contains at least one phosphorescent material and at least one compound represented by the formula: R 41, R 42, R 43, R 44, R 45, R 46, R 47, and R 48 each represents a hydrogen atom or a substituent; M 4 represents Zn 2+, Al 3+, or Ga 3 +; n 4 represents an integer of from 1 to 3; L 4 represents alkoxy ion, an aryloxy ion or a silyloxy; and m 4 represents an integer of from 0 to 2.
Gas entry housing of an exhaust gas turbine, comprising a tubular outer housing wall with a circular outlet opening and, arranged inside the outer housing wall, a shroud-shaped inner housing wall with a circular base surface outer contour, wherein the inner housing wall with the circular base surface outer contour is arranged in the region of the circular outlet opening of the outer housing wall, concentrically with this circular outlet opening of the outer housing wall, and is attached to the outer housing wall by means of at least one stay; wherein a flow duct delimited by the outer housing wall transitions, along the inner housing wall, from the tubular shape into the annular tubular shape; wherein the outer housing wall is curved such that the flow duct delimited by the outer housing wall is redirected from a first direction, which deviates from the axial direction of the axis of the circle of the circular outlet opening, to the axial direction, characterized in that the at least one stay runs in the axial direction and is attached to the inner housing wall and to the outer housing wall at points which lie opposite each other in the axial direction.
Method for operating an inductive device 2. with a magnetic core, comprising the steps: Operating the inductive device by an electrical main operation signal with a main operation frequency (f m) producing a magnetic main operation field in the magnetic core; Providing an alternating electrical bias signal with a bias frequency (f b) higher than the main operation frequency (f m) producing a magnetic bias field in the magnetic core superimposed to the magnetic main operation field, such that non-linear and/or hysteresis effects in the magnetic core are shifted from the main operation frequency (f m) to the bias frequency (f b); wherein the magnetic bias field is simultaneously superimposing the magnetic main operation field. Operating the inductive device by an electrical main operation signal with a main operation frequency (f m) producing a magnetic main operation field in the magnetic core; Providing an alternating electrical bias signal with a bias frequency (f b) higher than the main operation frequency (f m) producing a magnetic bias field in the magnetic core superimposed to the magnetic main operation field, such that non-linear and/or hysteresis effects in the magnetic core are shifted from the main operation frequency (f m) to the bias frequency (f b); wherein the magnetic bias field is simultaneously superimposing the magnetic main operation field.
Process for preparing synthetic calcium fluoride (min 90% CaF2 by weight) from fluosilicic acid, comprising the following steps: (a) reacting fluosilicic acid (H 2 SiF 6) with ammonium hydroxide or ammonia in a first reactor, so as to obtain a first slurry; filtering said first slurry so as to obtain a filtrate containing a solution of ammonium fluoride; (b) precipitating the solution of ammonium fluoride obtained as a filtrate in step (a) with calcium carbonate as a dry form or as a suspension at a concentration ranging from 10 to 80% by weight in a second reactor so as to produce a second slurry containing calcium fluoride and ammonium carbonate; filtering said second slurry so as to obtain a filter cake containing calcium fluoride and a filtrate containing a solution of ammonium carbonate; washing and drying said filter cake so as to obtain calcium fluoride and a washing filter cake containing a solution of ammonium carbonate; wherein a portion of the second slurry ranging from 10 to 70% is recycled to the second reactor so as to enhance calcium fluoride crystallisation; (c) evolving the major part of ammonia from the second reactor in step (b) because of partial decomposition of ammonium carbonate under reactor conditions and then washing and returning said ammonia to the first reactor, and gathering and treating by distillation and condensation the ammonium carbonate solutions obtained as the filtrate and the washing filter cake in step (b) to recover liquid ammonia which is recycled to the first reactor. (a) reacting fluosilicic acid (H 2 SiF 6) with ammonium hydroxide or ammonia in a first reactor, so as to obtain a first slurry; filtering said first slurry so as to obtain a filtrate containing a solution of ammonium fluoride; (b) precipitating the solution of ammonium fluoride obtained as a filtrate in step (a) with calcium carbonate as a dry form or as a suspension at a concentration ranging from 10 to 80% by weight in a second reactor so as to produce a second slurry containing calcium fluoride and ammonium carbonate; filtering said second slurry so as to obtain a filter cake containing calcium fluoride and a filtrate containing a solution of ammonium carbonate; washing and drying said filter cake so as to obtain calcium fluoride and a washing filter cake containing a solution of ammonium carbonate; wherein a portion of the second slurry ranging from 10 to 70% is recycled to the second reactor so as to enhance calcium fluoride crystallisation; (c) evolving the major part of ammonia from the second reactor in step (b) because of partial decomposition of ammonium carbonate under reactor conditions and then washing and returning said ammonia to the first reactor, and gathering and treating by distillation and condensation the ammonium carbonate solutions obtained as the filtrate and the washing filter cake in step (b) to recover liquid ammonia which is recycled to the first reactor.