mhurhangee/ep-ind-claims huggingface dataset:
Method for dealing with write errors when writing information data into flash memory devices, wherein two or more flash memory devices (Device0, Device1, Device N -1) are assigned to a common data bus and in a bus write cycle two or more of these flash memory devices per bus are sequentially fed with said information data for storage therein, said method being characterised by: - in a current bus write cycle, at least one of said flash memory devices is not fed for storage with a current section of said information data; - in case an error is occurring while writing a current section of said information data into a page of a current one of said flash memory devices, writing said current section of said information data into a non-flash memory (SRAM); - during the following bus write cycle, while said current flash memory device containing that defective page is normally idle and said writing of said information data into other flash memory devices is ongoing, using that idle time period for copying the corresponding stored section of said information data from said non-flash memory (SRAM) to an assumed save or non-defect page of said current flash memory device. - in a current bus write cycle, at least one of said flash memory devices is not fed for storage with a current section of said information data; - in case an error is occurring while writing a current section of said information data into a page of a current one of said flash memory devices, writing said current section of said information data into a non-flash memory (SRAM); - during the following bus write cycle, while said current flash memory device containing that defective page is normally idle and said writing of said information data into other flash memory devices is ongoing, using that idle time period for copying the corresponding stored section of said information data from said non-flash memory (SRAM) to an assumed save or non-defect page of said current flash memory device.
Cosmetic or dermatological preparation comprising 1,2-decanediol, licochalcone A and carnitine, characterized in that the fraction of 1,2-decanediol is selected in the region of more than 0.1% by weight, based on the total mass of the preparation.
A composition comprising: (a) 62-97 percent by weight of hydrocarbon oil, (b) 1-40 percent by weight of emulsifier, and (c) 1-10 percent by weight of a non-curing hydrocarbon polymer, wherein the non-curing hydrocarbon polymer has the formula or hydrogenates thereof, wherein R 1 through R 5 are hydrogen or -CH 3, with at least one of R 1 through R 4 being -CH 3, and n is a number such that the number average molecular weight of the hydrocarbon polymer is from 50 to 3000. (a) 62-97 percent by weight of hydrocarbon oil, (b) 1-40 percent by weight of emulsifier, and (c) 1-10 percent by weight of a non-curing hydrocarbon polymer,
A pharmaceutical formulation comprising a core and a first coating, wherein the core comprises a hydrogel forming polymer matrix and a pharmaceutically active ingredient; wherein the hydrogel forming polymer matrix comprises a thermoreversible hydrogel forming polymer and the first coating comprises a water soluble cellulose ether, and the first coating is present in an amount corresponding to a weight gain due to the coating of from 1% to 15% by weight of the core, the pharmaceutical formulation optionally comprising a second coating on the first coating, the second coating comprising a delayed release polymer.
Mixing device comprising: - a whipper housing, a rotor and a back wall, the whipper housing and the back wall forming a whipper chamber in which is lodged the rotor, - the whipper housing comprising a beverage inlet and a beverage outlet, - a drive shaft for driving the rotor, said drive shaft being supported by the back wall, - the rotor presenting a radial back surface facing the whipper housing back wall and a radial front surface opposed to the radial back surface, - the whipper housing comprising a front wall, said front wall facing the radial front surface of the rotor, and wherein the whipper housing front wall presents bumps elevating from the surface of the front wall, the upper surface of each bump being flat and the edges of said upper surface being sharp, and characterized in that the upper surface of each bump is parallel to the front wall surface. - a whipper housing, a rotor and a back wall, the whipper housing and the back wall forming a whipper chamber in which is lodged the rotor, - the whipper housing comprising a beverage inlet and a beverage outlet, - a drive shaft for driving the rotor, said drive shaft being supported by the back wall, - the rotor presenting a radial back surface facing the whipper housing back wall and a radial front surface opposed to the radial back surface, - the whipper housing comprising a front wall, said front wall facing the radial front surface of the rotor, and
Cooking appliance comprising at least one cooking chamber and at least one cleaning device for cleaning the cooking chamber, the cleaning device comprising at least one conveying device and at least one distributor device, the conveying device comprising at least one pump assembly having at least one pump device and the distributor device comprising at least one rotatable distributor wheel and at least one motor device, and the cooking chamber having at least one cooking chamber floor and at least one cooking chamber ceiling, at least one outlet being provided in the cooking chamber floor, and in that at least one inlet is provided in the cooking chamber ceiling and the conveying device is suitable and designed for conveying at least one fluid from the outlet to the inlet, and in that the distributor wheel is arranged substantially below the inlet, such that the distributor wheel can be supplied with fluid through the inlet, characterised in that the distributor device of the cleaning device is provided adjacent to the inlet on the cooking chamber ceiling, the distributor wheel being rotatably received on the cooking chamber ceiling by means of the motor device.
A support device, intended to be hung to a hitch device of the lifting device or mass carrier type for a tractor, especially of the agricultural type, and constituted by a frame consisting in a mechanically welded metallic structure comprising means (20, 20') for securing it to the hitch device, said support device being characterized in that it also consists in a plate fixed to said securing means, that extends by overhanging relatively to said securing means, said plate having a upper face comprising a prepositioning and centering means for a box intended to be added on said upper face of said plate, and a lower face at the level of which is formed at least a receiving housing (191, 192) for an additional ballasting weight intended to be added at the level of said lower face of said plate, said receiving housing being adapted to cooperate with a corresponding protuberance (51, 52) of said additional weight, so as to form an anchoring in the shape of a connection of the "dovetail" type, whose longitudinal direction is substantially parallel to the traveling direction of the tractor.
A ferroelectric field-effect transistor device comprising: a semiconductor layer; a ferroelectric layer; and characterized by an ion conductor layer arranged between said semiconductor layer and said ferroelectric layer and in contact with the semiconductor layer. a semiconductor layer; a ferroelectric layer; and characterized by an ion conductor layer arranged between said semiconductor layer and said ferroelectric layer and in contact with the semiconductor layer.
A method for reading charges deriving from pixels of an image capture matrix, in which the pixels of one and the same row are addressed simultaneously for each to establish, on a respective column conductor linked to a read circuit, a potential level representing the charges generated by the lighting of this pixel, and in which a pixel is an active pixel comprising at least one photodiode, a charge storage node, and a row selection transistor for linking the storage node to the column conductor or isolating it from this conductor, the integration of charges in the photodiode and the reading of the charges being done according to the following sequence of operations: integration of charges in the photodiode during a first integration period Ti1, first transfer of the thus integrated charges from the photodiode to the storage node at the end of the first integration period, integration of charges in the photodiode during a second period Ti2 different from the first, refering the potential from the storage node to the column conductor, first sampling, in a capacitor of the read circuit, of a first potential level present at this moment on the column conductor and resulting from the first charge transfer, second charge transfer from the photodiode into the storage node, and, subsequently, an analog-digital conversion of the sampled potential level in the capacitor, the method being characterized in that the first integration period is shorter than the second and in that after the second charge transfer and before the analog-digital conversion, a second conditional sampling is performed, in the same capacitor, of a second potential level present on the column conductor and resulting from the second charge transfer, the second sampling being conditioned by the result of a comparison between the second potential level present on the column conductor and a predetermined threshold level, the result of the comparison being transmitted to determine a multiplying factor to be applied to the result of the analog-digital conversion.
A gas flare comprising: a supply pipe for directing a gas flow towards a head member; a slot located between the supply pipe and the head member for ejecting the gas flow; and a shroud spaced away from and surrounding the slot to form a passage between the shroud and the head member for directing the ejected gas flow therebetween, characterised in that the shroud has an airfoil-shaped longitudinal cross-section and is arranged in such a manner that a smooth and rounded proximate end and a sharp distal edge constitute a bottom end and a top edge, respectively. a supply pipe for directing a gas flow towards a head member; a slot located between the supply pipe and the head member for ejecting the gas flow; and a shroud spaced away from and surrounding the slot to form a passage between the shroud and the head member for directing the ejected gas flow therebetween, characterised in that the shroud has an airfoil-shaped longitudinal cross-section and is arranged in such a manner that a smooth and rounded proximate end and a sharp distal edge constitute a bottom end and a top edge, respectively.
A solar cell sealing film comprising ethylene-methyl methacrylate copolymer, a crosslinker and a silane coupling agent, wherein the crosslinker is contained in an amount of 0.05 to 0.7 part by weight based on 100 parts by weight of the ethylene-methyl methacrylate copolymer, and the silane coupling agent is contained in an amount of 0.1 to 0.7 part by weight based on 100 parts by weight of the ethylene-methyl methacrylate copolymer, and wherein the ethylene-methyl methacrylate copolymer has a methyl methacrylate content of 25 to 35% by weight.
A strain wave gear comprising: a wave generator; a flexspline that itself comprises a first set of gear teeth; and a circular spline that itself comprises a second set of gear teeth; characterised in that at least a portion of each of the wave generator, the flexspline, and the circular spline, comprises a bulk metallic glass-based material having an elastic limit as high as 2%. a wave generator; a flexspline that itself comprises a first set of gear teeth; and a circular spline that itself comprises a second set of gear teeth; characterised in that at least a portion of each of the wave generator, the flexspline, and the circular spline, comprises a bulk metallic glass-based material having an elastic limit as high as 2%.
A method performed by a base station for improving a communication quality of the base station, comprising: receiving a plurality of voice packets from a terminal; determining whether a packet loss occurs based on a packet data convergence protocol sequence number, PDCP SN, of the received voice packets; determining whether a size of a lost packet is smaller than a predetermined threshold value, in case that the packet loss has occurred; identifying a type of the lost packet based on an interval between the received packets, wherein the type of the lost packet is one of a sound packet or a silence packet; and generating compensation information on a comfort noise packet based on the type of the lost packet, in case that the size of the lost packet is smaller than the threshold value, wherein the comfort noise packet corresponds to the PDCP SN of the lost packet, and wherein the comfort noise packet is generated by an adaptive multi rate, AMR, codec or an AMR wideband, AMR-WB, codec. receiving a plurality of voice packets from a terminal; determining whether a packet loss occurs based on a packet data convergence protocol sequence number, PDCP SN, of the received voice packets; determining whether a size of a lost packet is smaller than a predetermined threshold value, in case that the packet loss has occurred; identifying a type of the lost packet based on an interval between the received packets, wherein the type of the lost packet is one of a sound packet or a silence packet; and generating compensation information on a comfort noise packet based on the type of the lost packet, in case that the size of the lost packet is smaller than the threshold value, wherein the comfort noise packet corresponds to the PDCP SN of the lost packet, and wherein the comfort noise packet is generated by an adaptive multi rate, AMR, codec or an AMR wideband, AMR-WB, codec.
Modular support column (1; 2) for data-processing devices associated with weighing scales and point-of-sale terminals, wherein said data-processing devices comprise at least a video display screen and/or a touchscreen panel and/or a keyboard and/or a printer, and wherein said modular support column (1; 2) comprises a foot module (5; 6), at least a primary pole module, at least one adapter module (20, 50) to connect one of said data processing devices to the modular support column (1; 2), mechanical connector elements (70, 80) and fasteners (55, 75) securing the modules to each other, as well as electrical signal- and power-transmitting lines to the data-processing devices, wherein the modular support column (1; 2) in its assembled state has a continuous central axis (a) defining an axial direction, the primary pole module has a first axial end connected to the foot module (5, 6) which, in turn, can be connected to a chassis base of a weighing scale, to a table, to a floor, or to a ceiling, and a second axial end connected to the at least one adapter module (20, 50), characterized in that said mechanical connector elements (70, 80) and fasteners (55, 75) as well as the electrical signal- and power-transmitting lines to the at least one data-processing device are completely enclosed inside the foot module (5, 6), the primary pole module, and the at least one adapter module (20, 50), that the modular support column (1; 2) can be extended with one or more extension pole modules and adapter modules (20, 50) carrying one or more further data processing devices, and that the connector elements (70, 80) and fasteners (55, 75) associated with the extension pole modules and further adapter modules (20, 50) as well as the electrical signal- and power-transmitting lines to the one or more further data processing devices are likewise completely enclosed in the one or more extension pole modules and adapter modules (20, 50).
An array substrate, comprising a pixel electrode (8, 108), including a portion in a display region and a portion in a non-display region; a first electrode formed on the non-display region of the pixel electrode (8, 108); a passivation layer (9, 109) formed on the pixel electrode (8, 108) and the first electrode, which includes a via hole (11, 111) located over the first electrode; and an active layer (4, 104) and a second electrode that are formed on the passivation layer (9, 109), the active layer (4, 104) being connected to the first electrode through the via hole (11, 111) of the passivation layer (9, 109), and the second electrode being formed on the active layer, characterized in that the first electrode is a source electrode (6, 106), the second electrode is a drain electrode (7, 107); or, the first electrode is a drain electrode (7, 107), and the second electrode is a source electrode (6, 106).
A method of manufacturing a lacrosse head comprising: mechanically manipulating, via an automated pocket assembly machine (1390, 1590), a plurality of strands (1593A, 1593B), utilizing lacrosse pocket data to form a first lacrosse pocket from the plurality of strands with the automated pocket assembly machine, the lacrosse pocket data pertaining to a three dimensional concave contour of the first lacrosse pocket and a location of an apex (31A, 345A, 1355A) of the first lacrosse pocket; placing a portion of the first lacrosse pocket in a mold cavity (1380FC, 1480FC) corresponding to a first lacrosse head; molding a polymeric material to the portion of the first lacrosse pocket so that the polymeric material is securely joined with the plurality of strands within the portion of the first lacrosse pocket; curing the polymeric material to form a cured first lacrosse head (20, 120, 420); and removing the cured first lacrosse head with the first lacrosse pocket attached thereto from the mold cavity. mechanically manipulating, via an automated pocket assembly machine (1390, 1590), a plurality of strands (1593A, 1593B), utilizing lacrosse pocket data to form a first lacrosse pocket from the plurality of strands with the automated pocket assembly machine, the lacrosse pocket data pertaining to a three dimensional concave contour of the first lacrosse pocket and a location of an apex (31A, 345A, 1355A) of the first lacrosse pocket; placing a portion of the first lacrosse pocket in a mold cavity (1380FC, 1480FC) corresponding to a first lacrosse head; molding a polymeric material to the portion of the first lacrosse pocket so that the polymeric material is securely joined with the plurality of strands within the portion of the first lacrosse pocket; curing the polymeric material to form a cured first lacrosse head (20, 120, 420); and removing the cured first lacrosse head with the first lacrosse pocket attached thereto from the mold cavity.
A fault management method comprising: acquiring, by a virtualized network functions manager, VNFM, fault information of a virtualized network function, VNF entity, wherein the fault information comprises a faulty entity identifier and a fault type, wherein the fault information is used to indicate that a fault occurs in the VNF entity having the faulty entity identifier, wherein the VNF entity is connected to the VNFM by using a Ve-Vnfm interface; generating, by the VNFM, comprehensive fault information according to the fault information; and performing, by the VNFM, fault repair or reporting processing according to the comprehensive fault information; wherein the generating, by the VNFM, comprehensive fault information according to the fault information comprises: determining, by the VNFM, another fault information is correlated fault information of the fault information, wherein the another fault information is sent by another VNF entity which is correlated with the VNF entity; and generating, by the VNFM, the comprehensive fault information which comprises the fault information and the correlated fault information. acquiring, by a virtualized network functions manager, VNFM, fault information of a virtualized network function, VNF entity, wherein the fault information comprises a faulty entity identifier and a fault type, wherein the fault information is used to indicate that a fault occurs in the VNF entity having the faulty entity identifier, wherein the VNF entity is connected to the VNFM by using a Ve-Vnfm interface; generating, by the VNFM, comprehensive fault information according to the fault information; and performing, by the VNFM, fault repair or reporting processing according to the comprehensive fault information; wherein the generating, by the VNFM, comprehensive fault information according to the fault information comprises: determining, by the VNFM, another fault information is correlated fault information of the fault information, wherein the another fault information is sent by another VNF entity which is correlated with the VNF entity; and generating, by the VNFM, the comprehensive fault information which comprises the fault information and the correlated fault information. determining, by the VNFM, another fault information is correlated fault information of the fault information, wherein the another fault information is sent by another VNF entity which is correlated with the VNF entity; and generating, by the VNFM, the comprehensive fault information which comprises the fault information and the correlated fault information.
A bicycle saddle, comprising a saddle shell, a saddle padding connected to an upper side of the saddle shell, a support element connected to a saddle frame for connection to a seat post, and an elastomeric body arranged between the support element and the saddle shell, wherein the support element and the saddle shell are made from a plastic material and the elastomeric body is made from a foam material, wherein the saddle shell has a lower stiffness than the support element, characterized in that the support element and the saddle shell comprise the same base material, wherein the different stiffness is obtained by different fiber contents. a saddle shell, a saddle padding connected to an upper side of the saddle shell, a support element connected to a saddle frame for connection to a seat post, and an elastomeric body arranged between the support element and the saddle shell, wherein the support element and the saddle shell are made from a plastic material and the elastomeric body is made from a foam material, wherein the saddle shell has a lower stiffness than the support element, characterized in that the support element and the saddle shell comprise the same base material, wherein the different stiffness is obtained by different fiber contents.