mhurhangee/ep-ind-claims huggingface dataset:
An implantable device for delivery of a pharmaceutical substance to a patient, comprising: a core comprising a core polymeric material that does not have a pharmaceutical substance; a first layer comprising a first-layer pharmaceutical substance and a first-layer polymeric material surrounding the core wherein the polymeric material comprises a biocompatible polymeric matrix, and where the first-layer pharmaceutical substance is released through pores that open to the surface of the matrix; and optionally comprising one or more additional layers comprising an additional pharmaceutical substance and an additional polymeric material, where the core polymeric material, first-layer polymeric material, and additional polymeric materials are the same or different, where the first-layer pharmaceutical substance, and additional pharmaceutical substances are the same or different; wherein each layer of the device comprises a pharmaceutical substance; and wherein the core polymeric material, first-layer polymeric material, and additional polymeric materials of the one or more additional layers comprise ethylene vinyl acetate. a core comprising a core polymeric material that does not have a pharmaceutical substance; a first layer comprising a first-layer pharmaceutical substance and a first-layer polymeric material surrounding the core wherein the polymeric material comprises a biocompatible polymeric matrix, and where the first-layer pharmaceutical substance is released through pores that open to the surface of the matrix; and optionally comprising one or more additional layers comprising an additional pharmaceutical substance and an additional polymeric material, where the core polymeric material, first-layer polymeric material, and additional polymeric materials are the same or different, where the first-layer pharmaceutical substance, and additional pharmaceutical substances are the same or different; wherein each layer of the device comprises a pharmaceutical substance; and wherein the core polymeric material, first-layer polymeric material, and additional polymeric materials of the one or more additional layers comprise ethylene vinyl acetate.
A method for controlling distribution and use of a developer application in a network environment comprising a system (100, 400) for managing applications, the system communicating over a network with one or more developer devices and one or more network devices, wherein the network devices are network-enabled printers, the method being performed by one or more processors and comprising: providing, by the system (100, 400), a portal for a developer to submit, by a developer device of the one or more developer devices, the developer application to the system (100, 400) for use in the network environment; operating, by a runtime environment of the system (100, 400), the developer application for one or more network devices of the one or more network devices that request use of the developer application, wherein the developer application is run in the runtime environment of the system (100, 400), the developer application being operated, by the runtime environment, to generate an output for individual network devices that use the developer application; and preventing, by the system (100, 400), the developer application from being operated on any of the individual network devices of the one or more network devices to access a service that is not part of a predetermined set of specified services that are allowed for that developer application. providing, by the system (100, 400), a portal for a developer to submit, by a developer device of the one or more developer devices, the developer application to the system (100, 400) for use in the network environment; operating, by a runtime environment of the system (100, 400), the developer application for one or more network devices of the one or more network devices that request use of the developer application, wherein the developer application is run in the runtime environment of the system (100, 400), the developer application being operated, by the runtime environment, to generate an output for individual network devices that use the developer application; and preventing, by the system (100, 400), the developer application from being operated on any of the individual network devices of the one or more network devices to access a service that is not part of a predetermined set of specified services that are allowed for that developer application.
A rasterization method of patterns with periodic components for pattern generators being based on spatial light modulators, said spatial light modulator having an array of individually controllable elements arranged for generating an array of imaged elements within an image area on a target surface, where illumination of each individual imaged element is controlled by a respective said element, said rasterization method comprising the steps of: - obtaining an original pattern, having pattern items presenting a periodicity; - determining a first pattern main period (PM 1) in a first direction of said original pattern; - obtaining information about said image area and a first pitch of imaged elements in said first direction of an intended pattern generator to be used; - scaling said original pattern in said first direction by a first raster scaling factor, giving a scaled pattern; said first raster scaling factor being equal to a first integer times said first pitch of said pattern generator in said first direction divided by said first pattern main period (PM 1); - cropping said scaled pattern to comprise a first integer number of repetitions of said pattern items presenting a periodicity in said first direction, and including overlap tapering margins, if any, being covered by said image area in said first direction of said intended pattern generator, giving a rasterized pattern adapted to said intended pattern generator; said rasterized pattern being associated with data representing said first scaling factor. - obtaining an original pattern, having pattern items presenting a periodicity; - determining a first pattern main period (PM 1) in a first direction of said original pattern; - obtaining information about said image area and a first pitch of imaged elements in said first direction of an intended pattern generator to be used; - scaling said original pattern in said first direction by a first raster scaling factor, giving a scaled pattern; said first raster scaling factor being equal to a first integer times said first pitch of said pattern generator in said first direction divided by said first pattern main period (PM 1); - cropping said scaled pattern to comprise a first integer number of repetitions of said pattern items presenting a periodicity in said first direction, and including overlap tapering margins, if any, being covered by said image area in said first direction of said intended pattern generator, giving a rasterized pattern adapted to said intended pattern generator; - cropping said scaled pattern to comprise a first integer number of repetitions of said pattern items presenting a periodicity in said first direction, and including overlap tapering margins, if any, being covered by said image area in said first direction of said intended pattern generator, giving a rasterized pattern adapted to said intended pattern generator; said rasterized pattern being associated with data representing said first scaling factor.
A wet-cleaning appliance, in particular a wet mop, having a cleaning roller mounted so that it can rotate around a roller axis, and a roller cover that at least partially encloses the cleaning roller in a circumferential direction, which has at least one displaceable covering element for optionally closing and/or releasing an opening region of the roller cover, wherein the displaceable covering element is coupled with the cleaning roller by a gear mechanism, in particular a toothed gear mechanism, in such a way that the cleaning roller can be displaced by displacing the covering element, or the covering element can be displaced by displacing the cleaning roller, characterized in that the covering element is displaceable in a circumferential direction of the cleaning roller around a covering axis.
Method for immobilization of heparin on a polymeric material, said method comprising the steps of: - selecting a substrate made from a polymeric material; - cleaning said substrate; - mounting said substrate into a vacuum chamber; - evacuating the vacuum chamber to pressure below 1 Pa; - selecting a source of NH 2 radicals; - leaking solely the NH2 radicals from said source into said vacuum chamber during continuous pumping of said vacuum chamber; - interacting said NH2 radicals with said substrate; - evacuating said vacuum chamber; - venting said vacuum chamber to atmospheric pressure; and - covalent bonding of activated heparin on said substrate - wherein said cleaning step comprises: - treating of said substrate made from a polymeric material in ethanol or other appropriate solvent using an ultrasound bath; and - drying said substrate made from a polymeric material; - characterized in that, said covalent bonding of activated heparin on said substrate is performed by interacting a water solution containing of heparin activated by N-(3-Dimethylaminopropyl)-N'-ethylcarbodiimide hydrochloride / N-Hydroxysuccinimide on said substrate. - selecting a substrate made from a polymeric material; - cleaning said substrate; - mounting said substrate into a vacuum chamber; - evacuating the vacuum chamber to pressure below 1 Pa; - selecting a source of NH 2 radicals; - leaking solely the NH2 radicals from said source into said vacuum chamber during continuous pumping of said vacuum chamber; - interacting said NH2 radicals with said substrate; - evacuating said vacuum chamber; - venting said vacuum chamber to atmospheric pressure; and - covalent bonding of activated heparin on said substrate - wherein said cleaning step comprises: - treating of said substrate made from a polymeric material in ethanol or other appropriate solvent using an ultrasound bath; and - drying said substrate made from a polymeric material; - treating of said substrate made from a polymeric material in ethanol or other appropriate solvent using an ultrasound bath; and - drying said substrate made from a polymeric material; - characterized in that, said covalent bonding of activated heparin on said substrate is performed by interacting a water solution containing of heparin activated by N-(3-Dimethylaminopropyl)-N'-ethylcarbodiimide hydrochloride / N-Hydroxysuccinimide on said substrate.
A polymer stabilizing composition comprising a first component comprising one or more solid tris (monoalkylaryl) phosphites and a second component comprising an alkanolamine, wherein the one or more solid tris (monoalkylaryl) phosphites is or are present in the composition in an amount of 100 wt % with respect to the total amount of alkylaryl phosphite present in the composition, and wherein the alkanolamine is present in the composition in an amount of from 0.01 to 10 wt % based on the total weight of phosphites in the composition, and wherein the polymer stabilizing composition is a solid at 25°C.
An air-blown optical fiber cable, comprising: a cable core; a loose tube, which is sleeved outside the cable core; a strengthening layer, which is mesh-shaped and is wrapped around the loose tube; an outer jacket, which is wrapped around the strengthening layer, at least a partial region of the outer jacket forms a drag reduction structure, and the drag reduction structure comprises a plurality of protrusions and a plurality of recesses, wherein the protrusions and the recesses are alternately connected to each other, and each of the recesses extends into the mesh of the strengthening layer; first gaps, which are formed between every two adjacent protrusions and a recess located therebetween; and second gaps, which are formed between every two adjacent recesses and a protrusion located therebetween, and the strengthening layer extends into the second gaps and is connected to the protrusions. a cable core; a loose tube, which is sleeved outside the cable core; a strengthening layer, which is mesh-shaped and is wrapped around the loose tube; an outer jacket, which is wrapped around the strengthening layer, at least a partial region of the outer jacket forms a drag reduction structure, and the drag reduction structure comprises a plurality of protrusions and a plurality of recesses, wherein the protrusions and the recesses are alternately connected to each other, and each of the recesses extends into the mesh of the strengthening layer; first gaps, which are formed between every two adjacent protrusions and a recess located therebetween; and second gaps, which are formed between every two adjacent recesses and a protrusion located therebetween, and the strengthening layer extends into the second gaps and is connected to the protrusions.
A toggle release mechanism comprising: a base element; a toggle element rotatably mounted at a first end to the base element about a first axis for rotation between a first, locking position and a second, release position; a link element mounted pivotally at a first end to a second end of the toggle element about a second axis parallel to the first axis; wherein the first end of the toggle element comprises a first stop and the base element comprises a second stop opposed to the first stop, the first stop and the second stop being in contact when the toggle element is in its locked position, preventing rotational movement of the toggle element in one rotational direction. a base element; a toggle element rotatably mounted at a first end to the base element about a first axis for rotation between a first, locking position and a second, release position; a link element mounted pivotally at a first end to a second end of the toggle element about a second axis parallel to the first axis; wherein the first end of the toggle element comprises a first stop and the base element comprises a second stop opposed to the first stop, the first stop and the second stop being in contact when the toggle element is in its locked position, preventing rotational movement of the toggle element in one rotational direction.
Combined-cycle turbine plant with at least one gas turbine, a steam turbine and at least one waste heat steam generator, the waste heat steam generator comprising at least one condensate preheater into which a condensate line leads, characterized by a feedwater preheater connected upstream of the condensate preheater in the direction of flow of a gas turbine waste gas, upstream of which feedwater preheater a feedwater pump is connected and which is connected with a fuel preheating unit for the gas turbine, wherein a line for cooled feedwater leads from the fuel preheating unit into a pump medium inlet of a jet pump, the suction medium inlet of which is connected to an outlet of the condensate preheater and the outlet of which is connected to the condensate line.
A system for monitoring a plurality of marine vessels using a satellite network, the system comprising: a) a plurality of satellite payloads to be carried by respective satellites, each satellite payload comprising a) a communications interface configured to communicate via the satellite network, b) a radio frequency transceiver configured to communicate with the plurality of marine vessels, and c) a controller cooperating with the communications interface and the RF transceiver to obtain automatic identification system data including vessel position and call sign information via the RF transceiver, and communicate the AIS system data via the communications interface; and b) a terrestrial station configured to a) receive the AIS data, b) process aerial marine imagery using a fractal algorithm to assign respective vessel classifications to a plurality of marine vessels, and c) correlate the vessel classifications with AIS data; characterized in that d) the terrestrial station is further configured to determine a wake profile and/or exhaust profile associated with respective vessel classifications from the aerial marine imagery based upon the fractal algorithm. a) a plurality of satellite payloads to be carried by respective satellites, each satellite payload comprising a) a communications interface configured to communicate via the satellite network, b) a radio frequency transceiver configured to communicate with the plurality of marine vessels, and c) a controller cooperating with the communications interface and the RF transceiver to obtain automatic identification system data including vessel position and call sign information via the RF transceiver, and communicate the AIS system data via the communications interface; and a) a communications interface configured to communicate via the satellite network, b) a radio frequency transceiver configured to communicate with the plurality of marine vessels, and c) a controller cooperating with the communications interface and the RF transceiver to obtain automatic identification system data including vessel position and call sign information via the RF transceiver, and communicate the AIS system data via the communications interface; and b) a terrestrial station configured to a) receive the AIS data, b) process aerial marine imagery using a fractal algorithm to assign respective vessel classifications to a plurality of marine vessels, and c) correlate the vessel classifications with AIS data; characterized in that d) the terrestrial station is further configured to determine a wake profile and/or exhaust profile associated with respective vessel classifications from the aerial marine imagery based upon the fractal algorithm. a) receive the AIS data, b) process aerial marine imagery using a fractal algorithm to assign respective vessel classifications to a plurality of marine vessels, and c) correlate the vessel classifications with AIS data; characterized in that d) the terrestrial station is further configured to determine a wake profile and/or exhaust profile associated with respective vessel classifications from the aerial marine imagery based upon the fractal algorithm.
A refractory brick member comprising: a substantially tubular body having a first end, a second end opposed to said first end along a longitudinal length of said tubular body, a central bore extending from said first end to said second end along said longitudinal length thereof and defining an inner surface of said refractory brick member, and an outer surface extending from said first end to said second end along said longitudinal length thereof, wherein said outer surface of said refractory brick member has a shape that transitions axially defining a plurality of alternating hexagonally-shaped portions (2B, 3B) and non-hexagonally-shaped portions (2A, 3A) along said longitudinal length thereof, whereby said hexagonally-shaped portions of said outer surface of said refractory brick member further comprise at least one male interlocking mating member and one female interlocking mating member, disposed on adjacent side surfaces of said hexagonally-shaped portions of said outer surface of said refractory brick member with respect to one another, whereby in case that an array is formed by a plurality of refractory brick members arranged and interlocked with one another via the mating members provided on the hexagonally-shaped portions of the respective outer surfaces thereof, the array includes a continuous plenum space defined by the non-hexagonally-shaped portions of the outer surfaces of the respective refractory brick members arranged in the array.
A radar apparatus, comprising: a pulse emitter configured to emit a plurality of transmission pulses having different carrier frequencies to space; a plurality of antennas (6-1 to 6-M) configured to receive reflected waves of the transmission pulses that have been emitted from the pulse emitter and thereafter reflected by a target present in the space; a plurality of receiver devices (7-1 to 7-M) configured to output received signals indicating the reflected waves received by the plurality of antennas (6-1 to 6-M); a plurality of pulse compression units (9-1 to 9-M) configured to calculate frequency spectra of the received signals by performing Fourier transforms on the received signals output from the receiver devices (7-1 to 7-M), calculate spectrum products between the frequency spectra and references for pulse compressions, and perform inverse Fourier transforms on the spectrum products, the references being determined on a basis of the carrier frequencies and a beam directional angle indicating propagation directions of the transmission pulses; and a received-beam synthesizing unit configured to synthesize received beams that are the spectrum products subjected to the inverse Fourier transforms in the plurality of pulse compression units (9-1 to 9-M)), in accordance with the beam directional angle. a pulse emitter configured to emit a plurality of transmission pulses having different carrier frequencies to space; a plurality of antennas (6-1 to 6-M) configured to receive reflected waves of the transmission pulses that have been emitted from the pulse emitter and thereafter reflected by a target present in the space; a plurality of receiver devices (7-1 to 7-M) configured to output received signals indicating the reflected waves received by the plurality of antennas (6-1 to 6-M); a plurality of pulse compression units (9-1 to 9-M) configured to calculate frequency spectra of the received signals by performing Fourier transforms on the received signals output from the receiver devices (7-1 to 7-M), calculate spectrum products between the frequency spectra and references for pulse compressions, and perform inverse Fourier transforms on the spectrum products, the references being determined on a basis of the carrier frequencies and a beam directional angle indicating propagation directions of the transmission pulses; and a received-beam synthesizing unit configured to synthesize received beams that are the spectrum products subjected to the inverse Fourier transforms in the plurality of pulse compression units (9-1 to 9-M)), in accordance with the beam directional angle.
Action device comprising - an action charge disposed in an action container; - an initiating device, comprising at least one detonator and at least one booster charge, wherein the booster charge is disposed in a booster casing configured with a rear cylindrical part having the diameter D 1, and a front conical part delimited by a first circular limit face having the diameter D 1 and a second circular limit face having the diameter D 2, wherein the two limit faces (16, 15) are plane-parallel at the distance H 1 from each other and wherein H 1 /D 2 lies within the range 0.5-1.5, wherein the booster charge is arranged such that, in the initiation of said action charge, it is free from disturbing edge effects which can have a disturbing effect on the action charge; characterized in that the secondary explosive of the booster charge is arranged with a gradually increasing density in the booster casing, calculated from the rear cylindrical part to the front conical part, wherein the density, in the rear cylindrical part, is at the most 80% of the theoretical density of the explosive and, in the front conical part, is at the least 95% of the theoretical density of the explosive. - an action charge disposed in an action container; - an initiating device, comprising at least one detonator and at least one booster charge, wherein the booster charge is disposed in a booster casing configured with a rear cylindrical part having the diameter D 1, and a front conical part delimited by a first circular limit face having the diameter D 1 and a second circular limit face having the diameter D 2, wherein the two limit faces (16, 15) are plane-parallel at the distance H 1 from each other and wherein H 1 /D 2 lies within the range 0.5-1.5,