mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a data set comprising a plurality of data fields, wherein at least one data field comprises personal information, and further wherein at least one data field does not comprise personal information; reviewing meta-information for the data set, the meta-information comprising a categorization for the plurality of data fields, the categorization comprising, for each of the plurality of data fields: a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column. receiving a data set comprising a plurality of data fields, wherein at least one data field comprises personal information, and further wherein at least one data field does not comprise personal information; reviewing meta-information for the data set, the meta-information comprising a categorization for the plurality of data fields, the categorization comprising, for each of the plurality of data fields: a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column. a first parameter specifying field data type, and for data fields comprising personal information, a second parameter specifying personal data consent information; converting the data set into a columnar data storage format using the meta-information, wherein converting the data set further comprises storing the at least one data field comprising personal information in a column marked as comprising personal information; and applying at least one personal information privacy control to the at least one marked column.
An in vitro method for regulating prostasome secretion, the method comprising the step of treating a prostate cell with an intracellular calcium signaling second messenger or a regulator thereof, wherein the second messenger is one selected from the group consisting of cyclic ADP-ribose, inositol 1,4,5-trisphosphate and derivates thereof and wherein the regulator of intracellular calcium signaling second messenger is D-myo-Inositol 1,4,5-triphosphate (D-myo-IP3) or capsaicin..
Railing bar for scaffolding, the railing bar comprising the following features: a) a retaining bar extending in the direction of the longitudinal axis of the railing bar; b) two coupling pieces (40, 42) connected to the ends of the retaining bar that are spaced in the direction of the longitudinal axis of the railing bar, c) each coupling piece (40, 42) comprising a slot (50, 52), and scaffold pins (22, 26) of the scaffolding being movably guided in the slots (50, 52), characterized in that the coupling pieces (40, 42) are rigidly connected to the railing bar, and in that d) each slot (50, 52) comprises a first slot portion (58, 60), the longitudinal axis of which extends transversely to the longitudinal axis of the railing bar, and e) each slot (50, 52) comprises a second slot portion (62, 64), the longitudinal axis of which extends transversely to the longitudinal axis of the railing bar and transversely to the longitudinal axis of the first slot portion (58, 60), the first and the second slot portions (58, 60, 62, 64) being connected by means of a third slot portion (66, 68) that extends transversely to the first and to the second slot portions (58, 60, 62, 64), the slot portions (58, 60, 62, 64, 66, 68, 70, 72) being connected to a passage (54, 56) for introducing the scaffold pin (22, 26), a fourth slot portion (70, 72) being directly connected to a passage (54, 56) in each case, the fourth slot portion (70, 72) being a connecting channel between the passage (54, 56) and the third slot portion (66, 68), and the slots (50, 52) being Y-shaped and leading into the passage (54, 56) at the lower end of the Y-shape through the fourth slot portion (70, 72). a) a retaining bar extending in the direction of the longitudinal axis of the railing bar; b) two coupling pieces (40, 42) connected to the ends of the retaining bar that are spaced in the direction of the longitudinal axis of the railing bar, c) each coupling piece (40, 42) comprising a slot (50, 52), and scaffold pins (22, 26) of the scaffolding being movably guided in the slots (50, 52), d) each slot (50, 52) comprises a first slot portion (58, 60), the longitudinal axis of which extends transversely to the longitudinal axis of the railing bar, and e) each slot (50, 52) comprises a second slot portion (62, 64), the longitudinal axis of which extends transversely to the longitudinal axis of the railing bar and transversely to the longitudinal axis of the first slot portion (58, 60),
A central processing unit, CPU, hot-remove method, wherein the method is applicable to a single server that has a non-full mesh first CPU topology, the server comprises a controller, the currently running first CPU topology comprises multiple CPUs, wherein the method comprises: determining, by the controller, a first CPU from the multiple CPUs, wherein the first CPU is a CPU that is faulty or that needs to be removed according to first indication information, and the first indication information is from the first CPU topology or a user interface; determining, by the controller, at least one second CPU from the multiple CPUs, wherein the at least one second CPU and the first CPU meet a preset condition; and sending, by the controller, second indication information to the first CPU topology, wherein the second indication information is used to instruct to remove the first CPU and the at least one second CPU, so as to obtain a second CPU topology and run the second CPU topology; wherein the determining, by the controller, at least one second CPU from the multiple CPUs, wherein the at least one second CPU and the first CPU meet a preset condition comprises: determining, by the controller, at least one standby second CPU of the first CPU, wherein the at least one standby second CPU is the at least one second CPU. determining, by the controller, a first CPU from the multiple CPUs, wherein the first CPU is a CPU that is faulty or that needs to be removed according to first indication information, and the first indication information is from the first CPU topology or a user interface; determining, by the controller, at least one second CPU from the multiple CPUs, wherein the at least one second CPU and the first CPU meet a preset condition; and sending, by the controller, second indication information to the first CPU topology, wherein the second indication information is used to instruct to remove the first CPU and the at least one second CPU, so as to obtain a second CPU topology and run the second CPU topology; wherein the determining, by the controller, at least one second CPU from the multiple CPUs, wherein the at least one second CPU and the first CPU meet a preset condition comprises: determining, by the controller, at least one standby second CPU of the first CPU, wherein the at least one standby second CPU is the at least one second CPU.
A process for preparing 2,3,3,3-tetrafluoropropene, the process comprising: (a) converting 1,1,1-trifluoro-2,3-dichloropropane to 3,3,3-trifluoro-2-chloro-prop-1-ene (CF 3 CCl=CH 2, 1233xf) in the presence of a first catalyst in a first reactor; (b) contacting 1233xf with a fluorinating agent in the presence of a second catalyst in a second reactor separate from the first reactor to produce a compound of formula CF 3 CFXCH 3, wherein X = Cl or F; and (c) dehydrohalogenating the compound of formula CF 3 CFXCH 3 to produce 1234yf, wherein step (b) is conducted at a temperature of from -100 to 400 °C and a pressure of 0 to 50 bara. (a) converting 1,1,1-trifluoro-2,3-dichloropropane to 3,3,3-trifluoro-2-chloro-prop-1-ene (CF 3 CCl=CH 2, 1233xf) in the presence of a first catalyst in a first reactor; (b) contacting 1233xf with a fluorinating agent in the presence of a second catalyst in a second reactor separate from the first reactor to produce a compound of formula CF 3 CFXCH 3, wherein X = Cl or F; and (c) dehydrohalogenating the compound of formula CF 3 CFXCH 3 to produce 1234yf,
A method for removing volatiles occurred during degradation from environment in a controlled manner, increasing mass loss throughout pyrolysis cycle and accordingly achieving a higher cleaning efficiency in convectional ovens with pyrolytic cycle which comprises hotspot body resistant to pyrolysis temperatures, of which door is locked automatically during pyrolysis process and which can be applied to convectional ovens in which pyrolysis cycle is carried out through a capillary thermostat or electronic card and which has self-cleaning properties, comprising below process steps • increasing temperature of inside of hotspot up to 200-250°C, which is the temperature in which pyrolysis reactions are started, while oven is cool, characterized by that the method further comprises the steps of • increasing oven temperature gradually between 5-20°C starting from 200-250°C and keeping it at this temperature for at least 1 minute, • after gradual temperature increase, increasing temperature of inside of hotspot up to 350-500°C, • keeping the oven at this temperature such that the total pyrolytic cycle is at least 80 minutes. • increasing temperature of inside of hotspot up to 200-250°C, which is the temperature in which pyrolysis reactions are started, while oven is cool, characterized by that the method further comprises the steps of • increasing oven temperature gradually between 5-20°C starting from 200-250°C and keeping it at this temperature for at least 1 minute, • after gradual temperature increase, increasing temperature of inside of hotspot up to 350-500°C, • keeping the oven at this temperature such that the total pyrolytic cycle is at least 80 minutes.
Panel cutting machine comprising a support structure to support a main pushing system, in turn comprising pushing and/or clamping means, and a secondary pushing system, in turn comprising pushing and/or clamping means; the main pushing system and the secondary pushing system operating independently from each other and both acting on the same working area and on the same cutting line; panel sizing machine characterized by comprising that pushing and/or clamping means relative to said secondary pushing system are, at least partially, comprised sideways in a useful overall dimension (Lt) protruding beyond a square fence above and inside the working area of a portion of said support structure; said portion of said support structure acting as support and guide for said pushing systems,.
A cosmetic activator system for activating a cosmetic (240,250) comprising: an activator having an energy source configured to emit an energy pulse and a controller; characterised by an imprinter having an imprint pattern and at least one activation element (220,220a,220b,220c,222) configured to be in communication with the energy source, wherein the imprinter is configured to create an imprint on the cosmetic. an activator having an energy source configured to emit an energy pulse and a controller; characterised by an imprinter having an imprint pattern and at least one activation element (220,220a,220b,220c,222) configured to be in communication with the energy source, wherein the imprinter is configured to create an imprint on the cosmetic.
A method for processing policy control, comprising: receiving, by a policy enforcement function, first resource sharing indication information provided by a Policy and Charging Rules Function, PCRF, wherein first resource sharing indication information indicates that a second policy rule shares a resource with a first policy rule; and enforcing, by the policy enforcement function, a resource sharing operation for the second policy rule and the first policy rule according to the first resource sharing indication information; characterized in that enforcing, by the policy enforcement function, the resource sharing operation for the second policy rule and the first policy rule according to the first resource sharing indication information comprises: determining, by the policy enforcement function, that the second policy rule and the first policy rule are bound to a same bearer; and determining, by the policy enforcement function, that a Guaranteed Bit Rate, GBR, value occupied by the second policy rule and the first policy rule is a larger value between a GBR value occupied by the second policy rule and a GBR value occupied by the first policy rule. receiving, by a policy enforcement function, first resource sharing indication information provided by a Policy and Charging Rules Function, PCRF, wherein first resource sharing indication information indicates that a second policy rule shares a resource with a first policy rule; and enforcing, by the policy enforcement function, a resource sharing operation for the second policy rule and the first policy rule according to the first resource sharing indication information; characterized in that enforcing, by the policy enforcement function, the resource sharing operation for the second policy rule and the first policy rule according to the first resource sharing indication information comprises: determining, by the policy enforcement function, that the second policy rule and the first policy rule are bound to a same bearer; and determining, by the policy enforcement function, that a Guaranteed Bit Rate, GBR, value occupied by the second policy rule and the first policy rule is a larger value between a GBR value occupied by the second policy rule and a GBR value occupied by the first policy rule. determining, by the policy enforcement function, that the second policy rule and the first policy rule are bound to a same bearer; and determining, by the policy enforcement function, that a Guaranteed Bit Rate, GBR, value occupied by the second policy rule and the first policy rule is a larger value between a GBR value occupied by the second policy rule and a GBR value occupied by the first policy rule.
A surgical system, comprising: a cannula configured for positioning within an opening in tissue, the cannula including an elongated portion having a base and an elongated tubular member extending distally from the base, the elongated tubular member including an annular wall defining a longitudinal passageway that provides access to an internal surgical site through the opening in tissue, the elongated tubular member defining at least one slot (106, 206a, 206b) extending through the annular wall, the at least one slot (106, 206a, 206b) disposed in communication with the longitudinal passageway; and a guide member (300, 400, 500, 600) including a guide housing configured for releasably engaging the guide member (300, 400, 500, 600) with the cannula and an elongated guide shaft configured for insertion into the elongated tubular member of the cannula, the guide member (300, 400, 500, 600) defining at least one lumen extending therethrough and configured such that, upon engagement of the guide member (300, 400, 500, 600) with the cannula, the at least one lumen is aligned with the at least one slot of the cannula to define a guide passageway through the guide member (300, 400, 500, 600) and cannula, wherein the system further includes at least one sealing member disposed about at least a portion of the cannula, the system being characterized by the at least one sealing member sealing the at least one slot.. a cannula configured for positioning within an opening in tissue, the cannula including an elongated portion having a base and an elongated tubular member extending distally from the base, the elongated tubular member including an annular wall defining a longitudinal passageway that provides access to an internal surgical site through the opening in tissue, the elongated tubular member defining at least one slot (106, 206a, 206b) extending through the annular wall, the at least one slot (106, 206a, 206b) disposed in communication with the longitudinal passageway; and a guide member (300, 400, 500, 600) including a guide housing configured for releasably engaging the guide member (300, 400, 500, 600) with the cannula and an elongated guide shaft configured for insertion into the elongated tubular member of the cannula, the guide member (300, 400, 500, 600) defining at least one lumen extending therethrough and configured such that, upon engagement of the guide member (300, 400, 500, 600) with the cannula, the at least one lumen is aligned with the at least one slot of the cannula to define a guide passageway through the guide member (300, 400, 500, 600) and cannula, wherein the system further includes at least one sealing member disposed about at least a portion of the cannula, the system being characterized by the at least one sealing member sealing the at least one slot..
High-frequency cylinder having a piston and a cylinder tube whose inner diameter is larger than the maximum diameter of the piston, and a storage piston having an outer storage ring surface whose upper surface is acted upon by gas pressure, characterised in that the storage piston has an internal annular guide extension which is not acted upon on its upper surface by gas pressure but instead by pressure from a reverse control chamber and on its lower surface by pressure from a cylinder chamber, and in which a guide surface for the piston is present on the inside diameter.
A method for determining parameters of a fluid delivery program for a fluid delivery system, the method being performed by execution of computer instructions by one or more processors of the fluid delivery system, the method comprising: retrieving (400, 401), using one or more processors, data from a memory, the data corresponding to one or more time windows, and with the data including a first amount of fluid delivered via one or more correction boluses and a second amount of fluid not delivered due to one or more delivery suspensions; and assessing, using one or more processors, a correction delivery for the one or more time windows based on the data, with the correction delivery being based on, at least in part, a difference between the first amount and second amount of fluid; characterized: in that: the data includes meal times and a post-meal duration to define pre-meal time segments and post-meal time segments; and by: determining, using one or more processors, a new CIR value for the one or more time windows when the correction delivery is delivered regularly in a post-meal time segment; and determining, using one or more processors, a new basal delivery profile for the one or more time windows when the correction delivery is delivered regularly in a pre-meal time segment. retrieving (400, 401), using one or more processors, data from a memory, the data corresponding to one or more time windows, and with the data including a first amount of fluid delivered via one or more correction boluses and a second amount of fluid not delivered due to one or more delivery suspensions; and assessing, using one or more processors, a correction delivery for the one or more time windows based on the data, with the correction delivery being based on, at least in part, a difference between the first amount and second amount of fluid; in that: the data includes meal times and a post-meal duration to define pre-meal time segments and post-meal time segments; and by: determining, using one or more processors, a new CIR value for the one or more time windows when the correction delivery is delivered regularly in a post-meal time segment; and determining, using one or more processors, a new basal delivery profile for the one or more time windows when the correction delivery is delivered regularly in a pre-meal time segment. determining, using one or more processors, a new CIR value for the one or more time windows when the correction delivery is delivered regularly in a post-meal time segment; and determining, using one or more processors, a new basal delivery profile for the one or more time windows when the correction delivery is delivered regularly in a pre-meal time segment.
A regenerated cellulose fibre obtained by the viscose process, which contains a hydrophobic substance selected from the group consisting of alkyl ketene dimers, alkenyl ketene dimers, alkyl succinic anhydrides, alkenyl succinic anhydrides, alkyl glutaric acid anhydrides, alkenyl glutaric acid anhydrides, alkyl isocyanates, alkenyl isocyanates, fatty acid anhydrides as well as mixtures thereof incorporated in the cellulose matrix.
A method for managing a passive optical network, said passive optical network comprising at least one few-mode fiber to centralize connections relative to several optical network units to a central office, wherein said central office is provided with: - optical line terminations to at least emit multiple bandwidths (λ 1,λ 2), and - at least one mode converter acting as a power splitter to multiplex said multiple bandwidths to different power modes, said different power modes being then provided to said at least one few-mode fiber, and wherein said central office comprises further a channel engineering block being programmed for performing the method, the method comprising: • interpreting coupling losses received at least from said mode converter, • optimizing transmission parameters based on said coupling losses, and • controlling said optical line terminations so as to emit optical signals with respect to said optimized transmission parameters. - optical line terminations to at least emit multiple bandwidths (λ 1,λ 2), and - at least one mode converter acting as a power splitter to multiplex said multiple bandwidths to different power modes, said different power modes being then provided to said at least one few-mode fiber, • interpreting coupling losses received at least from said mode converter, • optimizing transmission parameters based on said coupling losses, and • controlling said optical line terminations so as to emit optical signals with respect to said optimized transmission parameters.