mhurhangee/patent-ind-claim-en huggingface dataset:
A printer comprising: a convexly curved media path for feeding print media along a media feed direction, the curved media path having an apex (A), a first section upstream of the apex and a second section downstream of the apex: a plurality of printheads mounted on a print chassis , the plurality of printheads being radially arranged with respect to the curved media path, and including a first printhead positioned for printing onto the first section and a second printhead positioned for printing onto the second section; a plurality of cappers for capping the plurality of printheads, each capper being positioned at one longitudinal side of a respective printhead and each capper being laterally moveable between capped and uncapped positions; and a lift mechanism (L) for lifting and lowering the printheads between a maintenance position and a printing position, wherein : a first capper is positioned downstream of the first printhead and a second capper is positioned upstream of the second printhead in respective uncapped positions; characterized in that the plurality of cappers are mounted on a maintenance chassis fixedly mounted relative to the curved media path: and the lift mechanism moves the print chassis relative to the maintenance chassis. a convexly curved media path for feeding print media along a media feed direction, the curved media path having an apex (A), a first section upstream of the apex and a second section downstream of the apex: a plurality of printheads mounted on a print chassis , the plurality of printheads being radially arranged with respect to the curved media path, and including a first printhead positioned for printing onto the first section and a second printhead positioned for printing onto the second section; a plurality of cappers for capping the plurality of printheads, each capper being positioned at one longitudinal side of a respective printhead and each capper being laterally moveable between capped and uncapped positions; and a lift mechanism (L) for lifting and lowering the printheads between a maintenance position and a printing position, a plurality of printheads mounted on a print chassis , the plurality of printheads being radially arranged with respect to the curved media path, and including a first printhead positioned for printing onto the first section and a second printhead positioned for printing onto the second section; a plurality of cappers for capping the plurality of printheads, each capper being positioned at one longitudinal side of a respective printhead and each capper being laterally moveable between capped and uncapped positions; and a lift mechanism (L) for lifting and lowering the printheads between a maintenance position and a printing position, a first capper is positioned downstream of the first printhead and a second capper is positioned upstream of the second printhead in respective uncapped positions; characterized in that the plurality of cappers are mounted on a maintenance chassis fixedly mounted relative to the curved media path: and the lift mechanism moves the print chassis relative to the maintenance chassis.
A method of transmitting a navigation message, the method comprising: outer Reed-Solomon, RS, encoding (S291) of Clock and Ephemeris data, CED; embedding (S292) the CED in CED navigation words and the RS encoded CED in RS CED navigation words; adding (S293) a Cyclic Redundancy Check, CRC, value to the CED navigation words and to the RS CED navigation words embedding (S294) the CED navigation words into CED pages and the RS CED navigation words into at least one RS CED page; inner encoding (S295) the CED pages and the at least one RS CED page; and transmitting (S296) the navigation message including a subframe, wherein a subset of the inner encoded CED pages and a subset of the inner encoded at least one RS CED page are allocated within the subframe of the navigation message, such that the subset of the inner encoded CED pages and the subset of the inner encoded at least one RS CED page form a set of pages having the CED. outer Reed-Solomon, RS, encoding (S291) of Clock and Ephemeris data, CED; embedding (S292) the CED in CED navigation words and the RS encoded CED in RS CED navigation words; adding (S293) a Cyclic Redundancy Check, CRC, value to the CED navigation words and to the RS CED navigation words embedding (S294) the CED navigation words into CED pages and the RS CED navigation words into at least one RS CED page; inner encoding (S295) the CED pages and the at least one RS CED page; and transmitting (S296) the navigation message including a subframe, wherein a subset of the inner encoded CED pages and a subset of the inner encoded at least one RS CED page are allocated within the subframe of the navigation message, such that the subset of the inner encoded CED pages and the subset of the inner encoded at least one RS CED page form a set of pages having the CED.
An impedance measuring device for biological samples comprising: one or a plurality of biological sample holding units configured to hold a biological sample; an applying unit configured to apply an AC voltage to a pair of electrodes in contact with the biological sample held by the biological sample holding unit; a measuring unit configured to measure an impedance of the biological sample obtained by an AC voltage being applied to the biological sample by the applying unit; and a measurement condition control unit configured to control a measuring frequency in the measuring unit in accordance with a condition of the biological sample being measured; wherein the biological sample contains a blood component; and wherein the impedance measuring device further comprises a blood condition analyzing unit configured to analyze a condition change of blood from a temporal change of an impedance measured in the measuring unit. one or a plurality of biological sample holding units configured to hold a biological sample; an applying unit configured to apply an AC voltage to a pair of electrodes in contact with the biological sample held by the biological sample holding unit; a measuring unit configured to measure an impedance of the biological sample obtained by an AC voltage being applied to the biological sample by the applying unit; and a measurement condition control unit configured to control a measuring frequency in the measuring unit in accordance with a condition of the biological sample being measured; wherein the biological sample contains a blood component; and wherein the impedance measuring device further comprises a blood condition analyzing unit configured to analyze a condition change of blood from a temporal change of an impedance measured in the measuring unit.
Method for producing a stable floor element , wherein the stable floor element has at least two mutually spaced longitudinal beams arranged in a plane, each of which has a concrete core and rubber coverings at least partially covering the concrete core , wherein adjacent longitudinal beams of the stable floor element are each separated from one another by a longitudinal gap , wherein the method comprises the following steps: (a) providing a casting mould , wherein the casting mould has upwardly open casting chambers and predetermines the shape of the at least two mutually spaced longitudinal beams of the stable floor element ; (b) filling the open casting chambers with concrete up to a predetermined filling level in order to form the concrete cores of the at least two longitudinal beams ; (c) placing rubber coverings on the surface of the respective concrete cores , wherein each rubber covering has at least one opening into which the concrete of the underlying concrete cores can penetrate; (d) pressing the rubber coverings placed on the surface into the respective concrete cores until a desired overall height of the stable floor element is achieved, wherein the concrete volume of the underlying concrete cores ) that is displaced by the pressing process penetrates into the respective openings and fills them; (e) removing excess concrete emerging from the surfaces of the openings ; and (f) smoothing the concrete on the surface of the openings such that a stable floor element having a uniform surface is produced. (a) providing a casting mould , wherein the casting mould has upwardly open casting chambers and predetermines the shape of the at least two mutually spaced longitudinal beams of the stable floor element ; (b) filling the open casting chambers with concrete up to a predetermined filling level in order to form the concrete cores of the at least two longitudinal beams ; (c) placing rubber coverings on the surface of the respective concrete cores , wherein each rubber covering has at least one opening into which the concrete of the underlying concrete cores can penetrate; (d) pressing the rubber coverings placed on the surface into the respective concrete cores until a desired overall height of the stable floor element is achieved, wherein the concrete volume of the underlying concrete cores ) that is displaced by the pressing process penetrates into the respective openings and fills them; (e) removing excess concrete emerging from the surfaces of the openings ; and (f) smoothing the concrete on the surface of the openings such that a stable floor element having a uniform surface is produced.
An oral pouched product comprising a saliva permeable pouch, a non-tobacco pouch composition, the pouch composition comprising - heat-treated fibers, - nicotine in an amount of 0.1-5.0% by weight of the composition, - water in an amount of 20-65% by weight of the pouch composition, and - at least one sugar alcohol in an amount of 10-60% by weight of the pouch composition, wherein the at least one sugar alcohol is selected from xylitol, maltitol, mannitol, erythritol, isomalt, sorbitol, lactitol, and mixtures thereof, and - preservative in an amount of between 0.05 to 0.5% by weight of the composition. a saliva permeable pouch, a non-tobacco pouch composition, the pouch composition comprising - heat-treated fibers, - nicotine in an amount of 0.1-5.0% by weight of the composition, - water in an amount of 20-65% by weight of the pouch composition, and - at least one sugar alcohol in an amount of 10-60% by weight of the pouch composition, wherein the at least one sugar alcohol is selected from xylitol, maltitol, mannitol, erythritol, isomalt, sorbitol, lactitol, and mixtures thereof, and - preservative in an amount of between 0.05 to 0.5% by weight of the composition. - heat-treated fibers, - nicotine in an amount of 0.1-5.0% by weight of the composition, - water in an amount of 20-65% by weight of the pouch composition, and - at least one sugar alcohol in an amount of 10-60% by weight of the pouch composition, wherein the at least one sugar alcohol is selected from xylitol, maltitol, mannitol, erythritol, isomalt, sorbitol, lactitol, and mixtures thereof, and - preservative in an amount of between 0.05 to 0.5% by weight of the composition.
A dental implant system, comprising: a maxillary implant having an inclined frustoconical support base , and a plurality of angled metal pillars , wherein each of the metal pillars is designed as one single piece having an upper segment and a lower base which in turn comprises a threaded shank which forms a body solidly connected to the upper segment of the metal pillar for the securing of the same to the maxillary implant , the upper segment comprising an upper opening in the form of a shaft ending internally in a hexagonal mortise for the insertion of the corresponding wrench, the threaded shank comprises a smooth cylindrical segment , the lower base comprises a frustoconical support base from which the threaded shank extends, the frustoconical support base having an inclination matching the frustoconical support base of the maxillary implant , the smooth cylindrical segment being arranged between the frustoconical base and the threaded shank , the threaded segment of the shank of a first metal pillar of the plurality of metal pillars is provided with a first helix end , characterized in that a second metal pillar of the plurality of metal pillars is provided with a second helix end being different than the first helix end for determining different axial tightening end positions with respect to the maxillary implant . a maxillary implant having an inclined frustoconical support base , and a plurality of angled metal pillars , wherein each of the metal pillars is designed as one single piece having an upper segment and a lower base which in turn comprises a threaded shank which forms a body solidly connected to the upper segment of the metal pillar for the securing of the same to the maxillary implant , the upper segment comprising an upper opening in the form of a shaft ending internally in a hexagonal mortise for the insertion of the corresponding wrench, the threaded shank comprises a smooth cylindrical segment , the lower base comprises a frustoconical support base from which the threaded shank extends, the frustoconical support base having an inclination matching the frustoconical support base of the maxillary implant , the smooth cylindrical segment being arranged between the frustoconical base and the threaded shank , the threaded segment of the shank of a first metal pillar of the plurality of metal pillars is provided with a first helix end , characterized in that a second metal pillar of the plurality of metal pillars is provided with a second helix end being different than the first helix end for determining different axial tightening end positions with respect to the maxillary implant .
A computer-implemented method of micro-segmenting virtual computing elements based on applications running thereon, the method comprising: identifying one or more multi-tier applications comprising a plurality of virtual machines (411-417), wherein each application tier of the one or more multi-tier applications comprises at least one of the plurality of virtual machines (411-417), and wherein the identifying comprises querying the virtual machines (411-417) for process information that identifies processes executing thereon and automatically identifying the one or more multi-tier applications based on the process information from the virtual machines (411-417); maintaining information about the one or more multi-tier applications , wherein the information at least indicates a security group (631-633) for each virtual machine (411-417) of the plurality of virtual machines (411-417); identifying communication traffic flows between the applications (401-407) of the virtual machines (411-417) of the plurality of virtual machines (411-417); identifying one or more removable traffic flows of the communication traffic flows based, at least in part, on the information; and blocking the one or more removable traffic flows . identifying one or more multi-tier applications comprising a plurality of virtual machines (411-417), wherein each application tier of the one or more multi-tier applications comprises at least one of the plurality of virtual machines (411-417), and wherein the identifying comprises querying the virtual machines (411-417) for process information that identifies processes executing thereon and automatically identifying the one or more multi-tier applications based on the process information from the virtual machines (411-417); maintaining information about the one or more multi-tier applications , wherein the information at least indicates a security group (631-633) for each virtual machine (411-417) of the plurality of virtual machines (411-417); identifying communication traffic flows between the applications (401-407) of the virtual machines (411-417) of the plurality of virtual machines (411-417); identifying one or more removable traffic flows of the communication traffic flows based, at least in part, on the information; and blocking the one or more removable traffic flows .
An ostomy bag having an inlet leading to a waste collection space defined by two opposing surfaces of two walls , the inlet defined in one of the walls , the opposing surfaces configured to separate on the introduction of waste through the inlet and including at least one corrugation in the wall opposing the inlet and no corrugation is provided in the wall defining the inlet , wherein the corrugation is located proximate to the bottom of the bag and distant to the top of the bag, no corrugation is provided proximate to the top of the bag and the corrugation is approximately arcuate and is located in a sector defined in the lower portion of the bag.
A silane of the formula R 1 a SiR 4-a , wherein the group R 1 or each of the groups R 1 independently - is bound to the silicon via an oxygen atom, - has a straight or branched hydrocarbonaceous chain containing a plurality of chain sections each having not more than 8 consecutive carbon atoms, wherein the hydrocarbonaceous chain is composed of alkylene units the members of which are unsubstituted or substituted, wherein the substituents are selected from hydroxy, carboxylic acid, phosphate, phosphonic acid ester, phosphoric acid ester, tertiary amino and amino acid groups, and the hydrocarbonaceous chain is further substituted within each element by oxygen atoms, sulphur atoms or sulphonyl groups, wherein each of the chain sections of the hydrocarbonaceous chain is separated from the next chain section by an ester group as a cleavable group, - has at least one thiol or a primary or secondary amino group, the group R or each of the groups R is independently a hydrolytically condensable group selected from alkyl-COO-, alkyl-O- and HO-, and a is 1, 2, 3 or 4. the group R 1 or each of the groups R 1 independently - is bound to the silicon via an oxygen atom, - has a straight or branched hydrocarbonaceous chain containing a plurality of chain sections each having not more than 8 consecutive carbon atoms, wherein the hydrocarbonaceous chain is composed of alkylene units the members of which are unsubstituted or substituted, wherein the substituents are selected from hydroxy, carboxylic acid, phosphate, phosphonic acid ester, phosphoric acid ester, tertiary amino and amino acid groups, and the hydrocarbonaceous chain is further substituted within each element by oxygen atoms, sulphur atoms or sulphonyl groups, wherein each of the chain sections of the hydrocarbonaceous chain is separated from the next chain section by an ester group as a cleavable group, - has at least one thiol or a primary or secondary amino group, - is bound to the silicon via an oxygen atom, - has a straight or branched hydrocarbonaceous chain containing a plurality of chain sections each having not more than 8 consecutive carbon atoms, wherein the hydrocarbonaceous chain is composed of alkylene units the members of which are unsubstituted or substituted, wherein the substituents are selected from hydroxy, carboxylic acid, phosphate, phosphonic acid ester, phosphoric acid ester, tertiary amino and amino acid groups, and the hydrocarbonaceous chain is further substituted within each element by oxygen atoms, sulphur atoms or sulphonyl groups, wherein each of the chain sections of the hydrocarbonaceous chain is separated from the next chain section by an ester group as a cleavable group, - has at least one thiol or a primary or secondary amino group, the group R or each of the groups R is independently a hydrolytically condensable group selected from alkyl-COO-, alkyl-O- and HO-, and a is 1, 2, 3 or 4.
A brake apparatus, comprising: - a hydraulic unit ; - a control unit ; and - a wheel cylinder portion , wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion , - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage , - a rotation number detection portion configured to detect a number of rotations of the motor , and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage , and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor . - a hydraulic unit ; - a control unit ; and - a wheel cylinder portion , wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion , - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage , - a rotation number detection portion configured to detect a number of rotations of the motor , and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage , and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor . wherein the hydraulic unit includes: - at least one connection fluid passage connected to the wheel cylinder portion , - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage , - a rotation number detection portion configured to detect a number of rotations of the motor , and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage , and - at least one connection fluid passage connected to the wheel cylinder portion , - a pump configured to be driven by a motor to discharge brake fluid to the connection fluid passage , - a rotation number detection portion configured to detect a number of rotations of the motor , and - at least one hydraulic sensor configured to detect a hydraulic pressure in the connection fluid passage , and wherein the control unit is configured to detect a possibility of a failure based on a first hydraulic pressure in the connection fluid passage that is determined based on a number of rotations of the motor and a second hydraulic pressure detected by the hydraulic sensor .
A composition comprising: (a) a lactic acid bacterium (LAB) comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide and an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, or (b) a first LAB comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide, and a second LAB comprising an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, wherein said LAB is a Lactobacillus species, a Bifidobacterium species, a Streptococcus species, or an Enterococcus species, and wherein said T1D-specific antigen polypeptide is proinsulin (PINS), glutamic acid decarboxylase (GAD65), insulinoma-associated protein 2 (IA-2), islet-specific glucose-6-phosphatase catalytic subunit-related protein (IGRP), zinc transporter 8 (ZnT8), chromogranin A, (prepro) islet amyloid polypeptide (pp!APP), peripherin, or citrullinated glucose-regulated protein (GRP). (a) a lactic acid bacterium (LAB) comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide and an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide, or (b) a first LAB comprising an exogenous nucleic acid encoding an interleukin-2 (IL-2) polypeptide, and a second LAB comprising an exogenous nucleic acid encoding a type-1 diabetes mellitus (T1D)-specific antigen polypeptide,