mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a combined cycle power plant , wherein the combined cycle power plant has a gas turbine and a steam turbine as well as a shutting-down device , and wherein, for shutting down the gas turbine and the steam turbine , the gas turbine and the steam turbine are operated within a time window that extends from the beginning of the shutting-down procedure at a first time (t0) to the falling of the steam temperature to a lower limit value at a second time (t1), characterized in that the shutting-down device operates the gas turbine and the steam turbine in such a manner that the gas turbine and the steam turbine are relieved substantially at the same time (t1) and the block power falls to zero, wherein thermal energy that is stored in the combined cycle power plant prevents immediate falling of a steam temperature to operation below a minimum power output of the gas turbine within the time window.
A piston-cylinder unit , with a cylinder with a mounting bore which extends radially in the cylinder , a piston which can be axially movably mounted in the cylinder along a longitudinal central axis a piston position sensing unit , which is arranged in the mounting bore and which senses the axial position of the piston in the cylinder by means of high-frequency technology, wherein the piston position sensing unit has an antenna for transmitting and receiving high-frequency signals, a collimator which is arranged in the beam path of the antenna , characterized in that the antenna has a main beam direction which extends parallel to the longitudinal central axis . a cylinder with a mounting bore which extends radially in the cylinder , a piston which can be axially movably mounted in the cylinder along a longitudinal central axis a piston position sensing unit , which is arranged in the mounting bore and which senses the axial position of the piston in the cylinder by means of high-frequency technology, wherein the piston position sensing unit has an antenna for transmitting and receiving high-frequency signals, a collimator which is arranged in the beam path of the antenna , characterized in that the antenna has a main beam direction which extends parallel to the longitudinal central axis .
A computer-implemented method comprising: receiving an artifact; extracting features from the artifact and populating a vector; reducing features in the vector using a feature reduction operation to result in a modified vector having a plurality of buckets; identifying features within buckets of the modified vector above a pre-determined projected bucket clipping threshold of a clipping vector that comprises a sequence of 2-tuples that represent the minimum and maximum allowed values for each index in the modified vector; clipping the identified features within the buckets of the modified vector; generating an overflow vector based on the identified features that indicates that the artifact has been stuffed with strings or other manipulated features indicative of malware; inputting the modified vector into a classification model to generate a score ; adjusting the score based on the overflow vector; and providing the adjusted score to a consuming application or process which (i) prevents access or execution of the artifact when the adjusted score characterizes the artifact as being malicious and (ii) allows for access or execution of the artifact when the adjusted score characterizes the artifact as not being malicious. receiving an artifact; extracting features from the artifact and populating a vector; reducing features in the vector using a feature reduction operation to result in a modified vector having a plurality of buckets; identifying features within buckets of the modified vector above a pre-determined projected bucket clipping threshold of a clipping vector that comprises a sequence of 2-tuples that represent the minimum and maximum allowed values for each index in the modified vector; clipping the identified features within the buckets of the modified vector; generating an overflow vector based on the identified features that indicates that the artifact has been stuffed with strings or other manipulated features indicative of malware; inputting the modified vector into a classification model to generate a score ; adjusting the score based on the overflow vector; and providing the adjusted score to a consuming application or process which (i) prevents access or execution of the artifact when the adjusted score characterizes the artifact as being malicious and (ii) allows for access or execution of the artifact when the adjusted score characterizes the artifact as not being malicious.
A plate spring unit for a railcar bogie , comprising: a plurality of plate springs that extend in a railcar longitudinal direction so as to support a railcar width direction end portion of a cross beam of the railcar bogie , wherein the plurality of plate springs include a first plate spring and a second plate spring , wherein each of the plurality of plate springs include two railcar longitudinal direction end portions , elastically deform in a thickness direction that is an upper-lower direction, and are arranged so as to be lined up in a width direction perpendicular to the longitudinal direction and the thickness direction; characterized in that an interposed member is interposed between the first and the second plate springs and in that the interposed member is lower in hardness than the first and the second plate springs . a plurality of plate springs that extend in a railcar longitudinal direction so as to support a railcar width direction end portion of a cross beam of the railcar bogie , wherein the plurality of plate springs include a first plate spring and a second plate spring , wherein each of the plurality of plate springs include two railcar longitudinal direction end portions , elastically deform in a thickness direction that is an upper-lower direction, and are arranged so as to be lined up in a width direction perpendicular to the longitudinal direction and the thickness direction; characterized in that an interposed member is interposed between the first and the second plate springs and in that the interposed member is lower in hardness than the first and the second plate springs .
An un-lensed non-intrusive stress measurement system probe for a gas turbine engine, comprising: a housing comprising a first channel and an optical face ; a first tube disposed within the first channel and coupled at a sensing aperture in the optical face ; and a plurality of optical fibers disposed within the first tube , wherein the first tube executes a bend between 45° and 90° within the housing , characterized in that : the housing comprises a second channel within the first channel , the second channel comprising a radiused portion and the first tube bent along the radiused portion , and a cap is coupled to the housing , the cap comprising a hood covering the first channel and a sleeve portion about the first tube , a second tube disposed about the first tube and inserted into the sleeve portion . a housing comprising a first channel and an optical face ; a first tube disposed within the first channel and coupled at a sensing aperture in the optical face ; and a plurality of optical fibers disposed within the first tube , wherein the first tube executes a bend between 45° and 90° within the housing ,
Illumination apparatus, in particular for a motor vehicle, comprising a plurality of multicolour LED units with respectively settable colour point and settable brightness, wherein each multicolour LED unit is an individual semiconductor device with a plurality of single-colour LEDs of different colours and a microcontroller , characterized in that the single-colour LEDs and the microcontroller of each multicolour LED unit are enclosed by a corresponding package of the semiconductor device, wherein the microcontroller is adapted to control each single-colour LED of a respective multicolour LED unit in dependence on an instantaneous temperature value of the respective multicolour LED unit in such a way that a set colour point and a set brightness are kept constant during the operation of the respective multicolour LED unit .
Method for providing a container with food, the method comprising: - providing a container for infant formula food, - adding the food, - sealing the container with a gas-tight membrane seal, - adding an inner scannable code on the gas-tight membrane seal , - closing the container with a lid comprising a tamper-proof closure means , so that the inner scannable code is not scannable without breaking a part of the tamper-proof closure means , and - storing the inner scannable code in a database . - providing a container for infant formula food, - adding the food, - sealing the container with a gas-tight membrane seal, - adding an inner scannable code on the gas-tight membrane seal , - closing the container with a lid comprising a tamper-proof closure means , so that the inner scannable code is not scannable without breaking a part of the tamper-proof closure means , and - storing the inner scannable code in a database .
A container comprising: a chamber for storing build material for a three-dimensional printing system ; a channel structure for conveying the build material, the channel structure defining an opening of the container co-axial with the chamber for coupling to the three-dimensional printing system ; and a valve structure comprising a material-conveying member arranged within the opening to guide build material between the chamber and the three-dimensional printing system during rotation, and a seal to seal the opening , and the valve structure is configured to be translatable within the opening ; wherein the container is configured such that rotation of the chamber in a first direction conveys build material in the chamber to the three-dimensional printing system and rotation of the chamber in a second direction conveys the build material away from the three-dimensional printing system , wherein the container is configured such that, on rotation of the chamber, there is no relative motion between the material-conveying member and the opening , and the material-conveying member comprises a structure to prevent rotation of the material-conveying member relative to the opening ; and wherein the seal is arranged circumferentially about an axis of the valve structure , the seal is arranged at an end of the material-conveying member which in use is furthest from an interior of the container , and the material-conveying member is aligned with the axis of the valve structure . a chamber for storing build material for a three-dimensional printing system ; a channel structure for conveying the build material, the channel structure defining an opening of the container co-axial with the chamber for coupling to the three-dimensional printing system ; and a valve structure comprising a material-conveying member arranged within the opening to guide build material between the chamber and the three-dimensional printing system during rotation, and a seal to seal the opening , and the valve structure is configured to be translatable within the opening ; wherein the container is configured such that rotation of the chamber in a first direction conveys build material in the chamber to the three-dimensional printing system and rotation of the chamber in a second direction conveys the build material away from the three-dimensional printing system , wherein the container is configured such that, on rotation of the chamber, there is no relative motion between the material-conveying member and the opening , and the material-conveying member comprises a structure to prevent rotation of the material-conveying member relative to the opening ; and wherein the seal is arranged circumferentially about an axis of the valve structure , the seal is arranged at an end of the material-conveying member which in use is furthest from an interior of the container , and the material-conveying member is aligned with the axis of the valve structure .
An adhesion method including: a step , disposing a pressure-sensitive curable adhesive layer on a first adherend, a step , disposing a curing agent layer on a second adherend, the curing agent layer being able to cure the pressure-sensitive curable adhesive layer by contacting and reacting with the pressure-sensitive curable adhesive layer, and a step , bringing the pressure-sensitive curable adhesive layer into contact with the curing agent layer so that they are sandwiched by the first adherend and the second adherend, wherein the pressure-sensitive curable adhesive layer is formed from a pressure-sensitive curable adhesive composition; the pressure-sensitive curable adhesive composition contains a solid epoxy resin and a liquid epoxy resin, the curing agent layer is formed from a curing agent component, the curing agent component contains a curing agent, and the curing agent is an imidazole compound. a step , disposing a pressure-sensitive curable adhesive layer on a first adherend, a step , disposing a curing agent layer on a second adherend, the curing agent layer being able to cure the pressure-sensitive curable adhesive layer by contacting and reacting with the pressure-sensitive curable adhesive layer, and a step , bringing the pressure-sensitive curable adhesive layer into contact with the curing agent layer so that they are sandwiched by the first adherend and the second adherend, wherein the pressure-sensitive curable adhesive layer is formed from a pressure-sensitive curable adhesive composition; the pressure-sensitive curable adhesive composition contains a solid epoxy resin and a liquid epoxy resin, the curing agent layer is formed from a curing agent component, the curing agent component contains a curing agent, and the curing agent is an imidazole compound.
A delivery system for delivery of a pharmaceutical active ingredient in mammals, the pharmaceutical active ingredient comprising a set composed of stem cells and mesoporous silica containing a releasable agent, wherein said porous silica has a surface area higher than 200 m2/g and a pore size between 1.5-50 nm, and, wherein the porous silica particles have a particle shape comprising of spheres or rod-shaped particles, wherein the releasable agent is selected from the group consisting of fibroblast growth factors (FGFs), Wnts, transforming growth factor (TGF)- beta family members, Hedgehog (hh) proteins, retinoic acid, vascular endothelial growth factor (VEGF), Dickkopf (Dkk)-1, insulin, Activin, SDF-1/CXCL12), pleiotrophin (PTN), insulin-like growth factor 2 (IGF2), ephrin B1 (EFNB1), cAMP, Semaphorins, Slits, Netrins, NCAM, L1-CAM, NGF, BDNF, NT3, NT4/5, GDNF, Artemin, Persephin, CNTF, LIF,Oncostatin M, Cardiotrophin 1, CDNF/MANF, wherein said releasable agent is 1-60% of the total weight of the pharmaceutical active ingredient, for use in controlled delivery of the releasable agent to control stem cell differentiation after transplantation of the stem cell co-implanted with the mesoporous silica, for the treatment of Parkinson's disease or Amyotrophic lateral sclerosis or Spinal muscular atrophy or Stroke or Traumatic brain or spinal cord injury.
A method comprising: removing a portion of a workpiece with a first laser beam to form an exposed surface of the workpiece; removing a portion of a conductor from the workpiece with the first laser beam; detecting plasma illumination caused by removal of the portion of the conductor from the workpiece; determining a position of the conductor on the exposed surface of the workpiece based on the detected plasma illumination; determining an angle of the second laser beam based on the position of the conductor; and removing a portion of the exposed surface of the workpiece with a second laser beam . removing a portion of a workpiece with a first laser beam to form an exposed surface of the workpiece; removing a portion of a conductor from the workpiece with the first laser beam; detecting plasma illumination caused by removal of the portion of the conductor from the workpiece; determining a position of the conductor on the exposed surface of the workpiece based on the detected plasma illumination; determining an angle of the second laser beam based on the position of the conductor; and removing a portion of the exposed surface of the workpiece with a second laser beam .
An aircraft component assembly comprising: a first component having a first interface surface; a second component having a second interface surface with a curvature different to a curvature of the first interface surface, wherein the second component is connected to the first component by at least one fastener such that the second interface surface faces the first interface surface; a spacer component disposed between the first interface surface and the second interface surface and configured to be pivotable relative to the first interface surface; and a magnetic attachment mechanism configured to retain the spacer component in contact with the first interface surface in the absence of any other retaining mechanism; wherein one of the first component and the spacer component comprises a magnet and the other one of the first component and the spacer component comprises a ferromagnetic material, such that an attractive magnetic force exists between the first component and the spacer component; characterised in that the fastener extends through the first and second components and the spacer component. a first component having a first interface surface; a second component having a second interface surface with a curvature different to a curvature of the first interface surface, wherein the second component is connected to the first component by at least one fastener such that the second interface surface faces the first interface surface; a spacer component disposed between the first interface surface and the second interface surface and configured to be pivotable relative to the first interface surface; and a magnetic attachment mechanism configured to retain the spacer component in contact with the first interface surface in the absence of any other retaining mechanism; wherein one of the first component and the spacer component comprises a magnet and the other one of the first component and the spacer component comprises a ferromagnetic material, such that an attractive magnetic force exists between the first component and the spacer component; characterised in that the fastener extends through the first and second components and the spacer component.
A leak containment system for a lift , comprising: a mounting bracket having a first rail , a second rail , and a panel extending between the first rail and the second rail , wherein the panel is vertically offset from feet formed on the first rail , and wherein a channel is defined by at least the first rail and an underside of the panel ; the leak containment system being characterized in that it further includes a tray removably received within the channel formed within the mounting bracket , the tray including a bottom surface surrounded by a plurality of perimeter walls that together define a fluid container , wherein the plurality of perimeter walls includes a front perimeter wall extending upwardly above the other walls in the plurality of perimeter walls ; and a locking mechanism coupled to the mounting bracket and configured to selectively engage the front perimeter wall of the tray to restrict movement of the tray outward from the channel . a mounting bracket having a first rail , a second rail , and a panel extending between the first rail and the second rail , wherein the panel is vertically offset from feet formed on the first rail , and wherein a channel is defined by at least the first rail and an underside of the panel ; the leak containment system being characterized in that it further includes a tray removably received within the channel formed within the mounting bracket , the tray including a bottom surface surrounded by a plurality of perimeter walls that together define a fluid container , wherein the plurality of perimeter walls includes a front perimeter wall extending upwardly above the other walls in the plurality of perimeter walls ; and a locking mechanism coupled to the mounting bracket and configured to selectively engage the front perimeter wall of the tray to restrict movement of the tray outward from the channel .
A polymeric film forming topical spray formulation, comprising a hydrophilic film forming polymer, an active agent, a drug crystal precipitation inhibiting agent, wherein the hydrophilic film forming polymer and the drug crystal precipitation inhibiting agent are the same and it is povidone in an amount from 2.5 to 20% by weight, the amount of povidone being effective to prevent or substantially prevent the active agent included in the formulation from precipitating, a pharmaceutically acceptable permeation enhancer for the active agent, and a volatile solvent in a concentration from 20 to 99% of the formulation, by weight, the formulation when sprayed on and set on a site on human skin providing a breathable, bioadhesive and microporous film in which the active agent is supersaturated and further providing a biphasic release of the active agent(s) such that the formulation provides a first peak concentration of the active agent at 0.25 to 1.5 hours after application of the topical spray on the skin of a human subject, and provides a second peak concentration of the active agent at 4 hours to 12 hours after application of the topical spray on the skin of a human subject.