mhurhangee/ep-ind-claims huggingface dataset:
A melt system capable of heating hot melt pellets into a liquid, the melt system comprising: a melter comprising: a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector, the divider defining a plurality of channels that extend between the chamber and the collector, wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a controller that causes a feed assembly to replenish the pellets in the melter; and a level sensor connected to the controller, the level sensor being configured to determine a melt level in the melter and send melt level data indicating the melt level to the controller, wherein the melter further comprises a heater cartridge disposed within a cartridge bore that extends through the divider between the chamber and the collector. a melter comprising: a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector, the divider defining a plurality of channels that extend between the chamber and the collector, wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector, the divider defining a plurality of channels that extend between the chamber and the collector, wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a controller that causes a feed assembly to replenish the pellets in the melter; and a level sensor connected to the controller, the level sensor being configured to determine a melt level in the melter and send melt level data indicating the melt level to the controller, wherein the melter further comprises a heater cartridge disposed within a cartridge bore that extends through the divider between the chamber and the collector.
A formulation unit for an inkjet printing machine, wherein - the inkjet printing machine comprises a printing unit with a printing device and with an ink supply device for supplying ink to the printing device; and - the formulation unit comprises at least one preparation device for the preparation of the ink and at least one storage tank for storing prepared ink, - the preparation device comprising a preparation tank for receiving the ingredients of the ink, the ingredients including at least water and a dye, - a dye dosing device for automatically dosing the dye and supplying the dye into the preparation tank, - a water inlet, - a metering equipment for automatically passing a predetermined amount of water from the water inlet into the preparation tank, and - a preparation pump for mixing the ingredients within the preparation tank and for pumping the ink into the at least one storage tank, wherein the at least one storage tank is connectable to the supply device of the printing unit for supplying ink from the storage tank to the printing device and wherein the at least one preparation device is adapted to prepare ink and to supply ink to the storage tank while ink is supplied from the storage tank to the printing device. - the inkjet printing machine comprises a printing unit with a printing device and with an ink supply device for supplying ink to the printing device; and - the formulation unit comprises at least one preparation device for the preparation of the ink and at least one storage tank for storing prepared ink, - the preparation device comprising a preparation tank for receiving the ingredients of the ink, the ingredients including at least water and a dye, - a dye dosing device for automatically dosing the dye and supplying the dye into the preparation tank, - a water inlet, - a metering equipment for automatically passing a predetermined amount of water from the water inlet into the preparation tank, and - a preparation pump for mixing the ingredients within the preparation tank and for pumping the ink into the at least one storage tank,
Method for the automatic recognition of anatomical structures in images obtained by positron emission tomography, comprising the following steps: - acquisition of a 3D matrix (SUV ijk) of data including standardized uptake values, SUVs, associated to a plurality of PET pixels in an anatomic volume of a patient; - calculation of the Jacobian matrix (J ijk) of said 3D matrix (SUV ijk) of standardized uptake values, SUVs, for determining the isotropic variation of the standardized uptake values, SUVs, of each pixel with respect to adjacent pixels, in three predefined orthogonal reference spatial directions; - projection, along a predetermined anatomical direction of projection, of said 3D matrix (SUV ijk) of standardized uptake values, SUVs, and of said Jacobian matrix (J ijk) of the 3D matrix of standardized uptake values, SUVs, on a anatomical reference plane (Π F); - location of at least one two-dimensional minimum of said matrix (SUV ijk) of standardized uptake values, SUVs, or of said Jacobian matrix (J ijk) of the matrix (SUV ijk) of standardized uptake values, SUVs, projected onto said anatomical reference plane (Π F), having a distance from a centre of gravity of the patient within a predetermined threshold interval; - location of at least one one-dimensional minimum along said predetermined anatomical direction of projection, corresponding to the coordinates of said two-dimensional minimum localized on said anatomical reference projection plane (Π F); and - determination of a centre of gravity of the anatomical structure according to the coordinates of said two-dimensional and one-dimensional minima. - acquisition of a 3D matrix (SUV ijk) of data including standardized uptake values, SUVs, associated to a plurality of PET pixels in an anatomic volume of a patient; - calculation of the Jacobian matrix (J ijk) of said 3D matrix (SUV ijk) of standardized uptake values, SUVs, for determining the isotropic variation of the standardized uptake values, SUVs, of each pixel with respect to adjacent pixels, in three predefined orthogonal reference spatial directions; - projection, along a predetermined anatomical direction of projection, of said 3D matrix (SUV ijk) of standardized uptake values, SUVs, and of said Jacobian matrix (J ijk) of the 3D matrix of standardized uptake values, SUVs, on a anatomical reference plane (Π F); - location of at least one two-dimensional minimum of said matrix (SUV ijk) of standardized uptake values, SUVs, or of said Jacobian matrix (J ijk) of the matrix (SUV ijk) of standardized uptake values, SUVs, projected onto said anatomical reference plane (Π F), having a distance from a centre of gravity of the patient within a predetermined threshold interval; - location of at least one one-dimensional minimum along said predetermined anatomical direction of projection, corresponding to the coordinates of said two-dimensional minimum localized on said anatomical reference projection plane (Π F); and - determination of a centre of gravity of the anatomical structure according to the coordinates of said two-dimensional and one-dimensional minima.
Method for interrupting an electric current in a DC voltage line connected to a DC voltage connection of a converter, in which, in the event of a fault with the DC voltage line, a DC-voltage-side converter current is regulated to a current setpoint value that is lower than a normal operation current setpoint value and a DC-voltage-side converter voltage is regulated to a voltage setpoint value that is lower than a normal operation voltage setpoint value, the predetermined current setpoint value is at least intermittently set equal to zero and the predetermined voltage setpoint value is intermittently set equal to zero, wherein the current setpoint value corresponds to a first periodic signal with zero crossings, and wherein the voltage setpoint value corresponds to a second periodic signal with zero crossings, characterized in that an amplitude of the first periodic signal is varied over time, and in that an amplitude of the second periodic signal is varied over time. the predetermined current setpoint value is at least intermittently set equal to zero and the predetermined voltage setpoint value is intermittently set equal to zero, wherein the current setpoint value corresponds to a first periodic signal with zero crossings, and wherein the voltage setpoint value corresponds to a second periodic signal with zero crossings, characterized in that an amplitude of the first periodic signal is varied over time, and in that an amplitude of the second periodic signal is varied over time.
A method, comprising: (a) providing a substrate; (b) coupling a branched linker to said substrate, wherein said branched linker comprises (i) a first branch comprising a post-synthesis reactive group and (ii) a second branch; (c) coupling a cleavable linker to said second branch; (d) synthesizing an oligonucleotide on said cleavable linker in 3' to 5' orientation, said oligonucleotide comprising (i) a 3' end coupled to said second branch via said cleavable linker and (ii) a 5' end coupled to an OH group; (e) reacting said OH group to provide a circularization group coupled to said 5' end of said oligonucleotide; (f) circularizing said oligonucleotide by reacting said circularization group with said post-synthesis reactive group, thereby coupling said 5' end of said oligonucleotide to said first branch; and (g) cleaving said cleavable linker, thereby de-coupling said 3' end of said oligonucleotide from said second branch; wherein said circularization group comprises an azido group and said post-synthesis reactive group comprises an alkyne. (a) providing a substrate; (b) coupling a branched linker to said substrate, wherein said branched linker comprises (i) a first branch comprising a post-synthesis reactive group and (ii) a second branch; (c) coupling a cleavable linker to said second branch; (d) synthesizing an oligonucleotide on said cleavable linker in 3' to 5' orientation, said oligonucleotide comprising (i) a 3' end coupled to said second branch via said cleavable linker and (ii) a 5' end coupled to an OH group; (e) reacting said OH group to provide a circularization group coupled to said 5' end of said oligonucleotide; (f) circularizing said oligonucleotide by reacting said circularization group with said post-synthesis reactive group, thereby coupling said 5' end of said oligonucleotide to said first branch; and (g) cleaving said cleavable linker, thereby de-coupling said 3' end of said oligonucleotide from said second branch;
A method by a computing system for executing Input/Output (I/O) and non-I/O operations, the computing system comprising a CPU with a plurality of cores each connected to a main memory, the method comprising: during compilation of a program source code, recognizing each I/O operation region of the program source code; partitioning the I/O operation region from other regions of the program source code; during execution of the compiled program source code, scheduling the I/O operation region for execution on a preselected I/O core of the plurality of cores; and scheduling the other regions of the compiled program source code for execution on other cores of the plurality of cores, characterized in that recognizing each I/O operation region of the program source code includes calculating a ratio of a number of I/O operations to the number of statements in a piece of the program source code; and upon determining that the ratio is above a defined threshold, designating the piece of the program source code as the I/O operation region, wherein after the partitioning the I/O operation region from non-I/O regions of the program source code, the method further comprises a step of cross region scheduling according to a cost model which indicates an average runtime cost of the I/O operation region and non-I/O statements each I/O operation and each non-I/O statement of the program source code, wherein the compiler moves code between I/O regions and non I/O regions based on the cost model and current partitioning with the goal to create a load balance between I/O regions and non-I/O regions. during compilation of a program source code, recognizing each I/O operation region of the program source code; partitioning the I/O operation region from other regions of the program source code; during execution of the compiled program source code, scheduling the I/O operation region for execution on a preselected I/O core of the plurality of cores; and scheduling the other regions of the compiled program source code for execution on other cores of the plurality of cores, characterized in that recognizing each I/O operation region of the program source code includes calculating a ratio of a number of I/O operations to the number of statements in a piece of the program source code; and upon determining that the ratio is above a defined threshold, designating the piece of the program source code as the I/O operation region, wherein after the partitioning the I/O operation region from non-I/O regions of the program source code, the method further comprises a step of cross region scheduling according to a cost model which indicates an average runtime cost of the I/O operation region and non-I/O statements each I/O operation and each non-I/O statement of the program source code, wherein the compiler moves code between I/O regions and non I/O regions based on the cost model and current partitioning with the goal to create a load balance between I/O regions and non-I/O regions.
A storage device, designed for storing articles in a garage or the like having at least two opposite walls, the storage device being such that it is made up of a gantry structure comprising four upright members, at least four transverse members (4a, 4b), including two upper members and two lower members, and two telescopic longitudinal members of shaped cross-section having a runway, and trolleys provided with wheels, suitable for sliding along the longitudinal members by bearing against the runways, said trolleys being secured to hanger means for suspending the articles, and said storage device being such that it includes stabilizer means suitable for bearing against the walls and the upright members in order to provide stability for the gantry structure.
A plasma confinement system, comprising an enclosure; one or more internal magnetic coils suspended within the enclosure in a plasma region; and one or more supports configured to support the one or more internal magnetic coils suspended within the enclosure, wherein each support of the one or more supports comprises: a first end coupled to an interior portion of the enclosure; a second end opposite the first end, the second end coupled to a component disposed within the plasma region; and electrical conducting material disposed between the first end and the second end, characterized in that the electrical conducting material is configured to, when supplied with one or more electrical currents (225a, 225b), generate a magnetic field having a magnetic field gradient that varies along the support from the first end to the second end. an enclosure; one or more internal magnetic coils suspended within the enclosure in a plasma region; and one or more supports configured to support the one or more internal magnetic coils suspended within the enclosure, wherein each support of the one or more supports comprises: a first end coupled to an interior portion of the enclosure; a second end opposite the first end, the second end coupled to a component disposed within the plasma region; and electrical conducting material disposed between the first end and the second end, characterized in that the electrical conducting material is configured to, when supplied with one or more electrical currents (225a, 225b), generate a magnetic field having a magnetic field gradient that varies along the support from the first end to the second end. a first end coupled to an interior portion of the enclosure; a second end opposite the first end, the second end coupled to a component disposed within the plasma region; and electrical conducting material disposed between the first end and the second end, characterized in that the electrical conducting material is configured to, when supplied with one or more electrical currents (225a, 225b), generate a magnetic field having a magnetic field gradient that varies along the support from the first end to the second end.
A method for calculating a sampled signal, the method comprising: determining a plurality of discrete samples of a continuous signal having a finite spectrum; determining coefficients of a function series expansion of the continuous signal by applying a fast Fourier transform to perform convolutions of the plurality of discrete samples with a plurality of derivatives of a sinc function; and using the function series expansion to calculate at least a portion of the continuous signal over the plurality of discrete samples. determining a plurality of discrete samples of a continuous signal having a finite spectrum; determining coefficients of a function series expansion of the continuous signal by applying a fast Fourier transform to perform convolutions of the plurality of discrete samples with a plurality of derivatives of a sinc function; and using the function series expansion to calculate at least a portion of the continuous signal over the plurality of discrete samples.
An array substrate comprising a pixel electrode, a common electrode provided above the pixel electrode, and a common electrode line electrically connected to the common electrode, wherein the pixel electrode and the common electrode are insulated from each other, and wherein the array substrate further comprises a first resistance wire layer, and a second resistance wire layer which is provided above the first resistance wire layer, the first resistance wire layer is provided on and in contact with the common electrode line; and the second resistance wire layer is electrically connected to the common electrode line through a via hole penetrating through the first resistance wire layer and an insulation layer provided between the first resistance wire layer and the second resistance wire layer. the first resistance wire layer is provided on and in contact with the common electrode line; and the second resistance wire layer is electrically connected to the common electrode line through a via hole penetrating through the first resistance wire layer and an insulation layer provided between the first resistance wire layer and the second resistance wire layer.
An unsaturated ester resin composition comprising, based on 100% by mass of the composition, 60 to 99.4% by mass of an unsaturated ester resin, 0.5 to 20% by mass of an epoxy resin, 0.1 to 20% by mass of crosslinked rubber particles having a number average particle diameter of 20 nm to 600 nm, wherein the crosslinked rubber particles are obtainable by polymerizing a vinyl monomer in the presence of one or more rubber polymers selected from the group consisting of a butadiene rubber, a butadiene-styrene rubber, a butadiene-butyl acrylate rubber, a butyl acrylate rubber, and an organosiloxane rubber, and wherein the unsaturated ester resin composition is obtainable by a method comprising: mixing the crosslinked rubber particles with the epoxy resin to give a crosslinked rubber particles-containing epoxy resin, and mixing the crosslinked rubber particles-containing epoxy resin with the unsaturated ester resin. 60 to 99.4% by mass of an unsaturated ester resin, 0.5 to 20% by mass of an epoxy resin, 0.1 to 20% by mass of crosslinked rubber particles having a number average particle diameter of 20 nm to 600 nm, wherein the crosslinked rubber particles are obtainable by polymerizing a vinyl monomer in the presence of one or more rubber polymers selected from the group consisting of a butadiene rubber, a butadiene-styrene rubber, a butadiene-butyl acrylate rubber, a butyl acrylate rubber, and an organosiloxane rubber, and wherein the unsaturated ester resin composition is obtainable by a method comprising: mixing the crosslinked rubber particles with the epoxy resin to give a crosslinked rubber particles-containing epoxy resin, and mixing the crosslinked rubber particles-containing epoxy resin with the unsaturated ester resin. mixing the crosslinked rubber particles with the epoxy resin to give a crosslinked rubber particles-containing epoxy resin, and mixing the crosslinked rubber particles-containing epoxy resin with the unsaturated ester resin.
A method for aiding in the diagnosis of irritable bowel syndrome with diarrhea-predominant (IBS-D) or irritable bowel syndrome with alternating stool pattern (IBS-A) in a subject, said method comprising: (a) contacting a blood or serum sample from the subject with a histamine binding moiety under conditions suitable to transform histamine present in the sample into a complex comprising histamine and the histamine binding moiety; and (b) determining the level of said complex, thereby determining the level of histamine present in the sample. (a) contacting a blood or serum sample from the subject with a histamine binding moiety under conditions suitable to transform histamine present in the sample into a complex comprising histamine and the histamine binding moiety; and (b) determining the level of said complex, thereby determining the level of histamine present in the sample.
A capsule endoscope comprising: an actuation component that operates using an electromagnetic force; a power storage device; and a case in which the actuation component and the power storage device are stored, wherein the power storage device is formed of a non-magnetic body and includes an exterior body formed of non-magnetic stainless steel, and a protective film formed of a material including at least one of carbon and aluminum is provided in at least a part of a surface in the exterior body which is in contact with an electrolytic solution of the power storage device. an actuation component that operates using an electromagnetic force; a power storage device; and a case in which the actuation component and the power storage device are stored, wherein the power storage device is formed of a non-magnetic body and includes an exterior body formed of non-magnetic stainless steel, and a protective film formed of a material including at least one of carbon and aluminum is provided in at least a part of a surface in the exterior body which is in contact with an electrolytic solution of the power storage device.
Burner for a biomass fuel boiler comprising a fuel supply based on the discharge principle with at least one primary air supply, the burner having a burner plate device with at least two burner grates (20, 30) arranged one over the other, an upper burner grate having a collecting area for collecting supplied fuel to be burned and a lower burner grate having an ember area for holding decomposing, glowing fuel, characterized in that the upper burner grate has conical or pyramidal elements, the conical or pyramidal elements forming the collecting area and between them forming a structure of open gaps.