mhurhangee/ep-ind-claims huggingface dataset:
A processing system for heating food, the system comprising: a cooking chamber with a configuration to safely contain irradiated energy there within and into which a food item can be located for at least one of direct or indirect irradiation, wherein the cooking chamber area is enclosed such that humans and animals are protected from direct or reflected radiation; a structure for at least partially enclosing the cooking chamber and for holding directional irradiation devices proximate to the cooking zone such that the irradiation from the irradiation devices can at least one of directly or indirectly impact the food item; at least one narrowband, semi-conductor-based, emitting device, the at least one narrowband, semi-conductor-based emitting device being chosen such that the wavelength of its irradiation output matches at least one absorption characteristic at that wavelength of at least one of the target food items; and, a control system for supplying at least the electrical current to digitally control the narrowband irradiation devices to provide the irradiation output in the chamber based on at least one of user interface settings, sensor output, or a determination that the chamber is active and safely containing the irradiated energy, further comprising a viewing window positioned to allow viewing of the irradiation zone without passing the irradiation output wavelength, further comprising a shutter system to selectively turn off radiation during viewing, characterized in that the viewing window is selectively covered by the shutter system. a cooking chamber with a configuration to safely contain irradiated energy there within and into which a food item can be located for at least one of direct or indirect irradiation, wherein the cooking chamber area is enclosed such that humans and animals are protected from direct or reflected radiation; a structure for at least partially enclosing the cooking chamber and for holding directional irradiation devices proximate to the cooking zone such that the irradiation from the irradiation devices can at least one of directly or indirectly impact the food item; at least one narrowband, semi-conductor-based, emitting device, the at least one narrowband, semi-conductor-based emitting device being chosen such that the wavelength of its irradiation output matches at least one absorption characteristic at that wavelength of at least one of the target food items; and, a control system for supplying at least the electrical current to digitally control the narrowband irradiation devices to provide the irradiation output in the chamber based on at least one of user interface settings, sensor output, or a determination that the chamber is active and safely containing the irradiated energy, further comprising a viewing window positioned to allow viewing of the irradiation zone without passing the irradiation output wavelength, further comprising a shutter system to selectively turn off radiation during viewing, characterized in that the viewing window is selectively covered by the shutter system.
Method for producing a cylindrical screen device having a large number of profiled bars, wherein the profiled bars are inserted parallel with each other and parallel with the cylinder axis in recesses which are open at the edge and which are provided on the inner side of a large number of bar retention rings which each extend about the cylinder axis in a plane perpendicular to the cylinder axis and which are spaced apart from each other in an axial direction, which recesses in terms of their shape at least substantially complement the shape of bar bases of the profiled bars but are initially still slightly larger than them, and the inner and outer diameters of the bar retention rings are permanently reduced via forces acting radially from the outer side until a positive-locking connection is formed between the profiled bars and the recesses of the bar retention rings, wherein the forces acting radially from the outer side are applied by means of pressing jaws which are distributed over the periphery of the bar retention rings, characterized in that the pressing jaws which are each provided with a plurality of grooves which extend in a peripheral and radial direction for receiving a respective bar retention ring, of which during a respective pressing operation only some act as a pressing groove for direct radial pressing of the respective bar retention ring and the other grooves act only as guiding grooves, by means of which the respective bar retention rings are prevented from axial deflection, and/or bar retention rings which are prefabricated with an undulating outer contour in each case and which via their undulating outer contour are radially pressed by means of forces acting radially from the outer side are used.
A method of curing a coating on a glass fiber, comprising: passing a glass fiber having an incompletely cured coating at a line speed v f through a cavity and along a curing axis that is defined by the cavity; emitting UV radiation from a first UVLED array into the cavity to promote the curing of the coating, the first UVLED array comprising a plurality of UVLED sources each of which emit an oscillating output x n (t) of UV radiation having a maximum output intensity x n (t) max and a minimum output intensity x n (t) min; wherein the first UVLED array defines a normalized sum x tota I(t,v f): x total t, v f = x 1 t + ∑ n = 2 k x n t + d n v f, k = number of UVLED sources in the first UVLED array, d n = distance along the curing axis from a first UVLED source to an nth UVLED source; and wherein, at a given line speed, by coordinating phase, period, and/or duty cycle of the respective UVLED-source outputs, x total (t,v f) has a substantially constant value. passing a glass fiber having an incompletely cured coating at a line speed v f through a cavity and along a curing axis that is defined by the cavity; emitting UV radiation from a first UVLED array into the cavity to promote the curing of the coating, the first UVLED array comprising a plurality of UVLED sources each of which emit an oscillating output x n (t) of UV radiation having a maximum output intensity x n (t) max and a minimum output intensity x n (t) min; wherein the first UVLED array defines a normalized sum x tota I(t,v f): x total t, v f = x 1 t + ∑ n = 2 k x n t + d n v f, k = number of UVLED sources in the first UVLED array, d n = distance along the curing axis from a first UVLED source to an nth UVLED source; and wherein, at a given line speed, by coordinating phase, period, and/or duty cycle of the respective UVLED-source outputs, x total (t,v f) has a substantially constant value. k = number of UVLED sources in the first UVLED array, d n = distance along the curing axis from a first UVLED source to an nth UVLED source; and wherein, at a given line speed, by coordinating phase, period, and/or duty cycle of the respective UVLED-source outputs, x total (t,v f) has a substantially constant value.
A method for storing data, comprising: receiving a storage request carrying target data, wherein the target data comprises at least one data stripe, each data stripe comprising a plurality of data blocks; determining, among a plurality of preset storage device groupings without overlapping storage devices, a target storage device grouping for storing the target data; and storing, for each data stripe, the plurality of data blocks in the data stripe into different storage devices in the target storage device grouping respectively; wherein the plurality of preset storage device groupings are obtained by taking all storage devices having the same slot number in each storage server into a respective storage device grouping, and wherein each storage server has a plurality of slots where the storage devices are installed, and wherein each storage server contains more than one storage device. receiving a storage request carrying target data, wherein the target data comprises at least one data stripe, each data stripe comprising a plurality of data blocks; determining, among a plurality of preset storage device groupings without overlapping storage devices, a target storage device grouping for storing the target data; and storing, for each data stripe, the plurality of data blocks in the data stripe into different storage devices in the target storage device grouping respectively; wherein the plurality of preset storage device groupings are obtained by taking all storage devices having the same slot number in each storage server into a respective storage device grouping, and wherein each storage server has a plurality of slots where the storage devices are installed, and wherein each storage server contains more than one storage device.
A computer- implemented method for generating a three-dimensional, 3D, point cloud of a scene, the method comprising: obtaining digital images depicting the scene, wherein each digital image is composed of pixels; segmenting each of the digital images into digital image segments; determining a depth vector and a normal vector per each of the digital image segments by applying multi-view stereo, MVS, processing to a subset of the pixels per each digital image segment; forming a map of depth vectors and normal vectors per each pixel in the digital images by estimating a 3d plane per digital image segment, based on the determined depth and normal vectors per each of the digital image segments; and generating the 3D point cloud of the scene as a combination of all the maps of depth vectors and normal vectors per each pixel in the digital images, wherein the subset of the pixels are uniformly sampled pixels per digital image and wherein the pixels included in the subsets of pixels are defined by sample locations in the digital images, and wherein the method further comprises verifying that each digital image segment comprises at least one sample location wherein, when at least one digital image segment fails to comprise at least one sample location, the segmentation of at least the digital image for which the digital image segment fails to comprise at least one sample location is repeated with increased size of the digital image segments. obtaining digital images depicting the scene, wherein each digital image is composed of pixels; segmenting each of the digital images into digital image segments; determining a depth vector and a normal vector per each of the digital image segments by applying multi-view stereo, MVS, processing to a subset of the pixels per each digital image segment; forming a map of depth vectors and normal vectors per each pixel in the digital images by estimating a 3d plane per digital image segment, based on the determined depth and normal vectors per each of the digital image segments; and generating the 3D point cloud of the scene as a combination of all the maps of depth vectors and normal vectors per each pixel in the digital images,
Method for the powder-bed-based additive manufacture of a tip structure on a pre-existing part comprising the steps of: - a) placing the part in a build space of a beam-assisted additive manufacturing setup and below a transparent aligning plate, - b) engraving a top contour of the part onto the aligning plate with an energy beam of the setup, - c) aligning a top surface of the part such that the top surface coincides with the engraved contour, and clamping the part rotationally and translationally in the build space, - d) removing the aligning plate from the setup, and - e) additively manufacturing the tip structure according to a predefined geometry on the top surface, wherein the top contour coincides with the top surface, and with an initial layer of the tip structure. - a) placing the part in a build space of a beam-assisted additive manufacturing setup and below a transparent aligning plate, - b) engraving a top contour of the part onto the aligning plate with an energy beam of the setup, - c) aligning a top surface of the part such that the top surface coincides with the engraved contour, and clamping the part rotationally and translationally in the build space, - d) removing the aligning plate from the setup, and - e) additively manufacturing the tip structure according to a predefined geometry on the top surface, wherein the top contour coincides with the top surface, and with an initial layer of the tip structure.
A surface-enhanced Raman scattering unit comprising: a surface-enhanced Raman scattering element having a substrate, a fine structure part on a front face of the substrate, and a conductor layer formed on the front face of the substrate, forming over the fine structure part an optical function part on the substrate, the optical function part for generating surface-enhanced Raman scattering; a measurement board supporting the surface-enhanced Raman scattering element; and a holding part mechanically holding the surface-enhanced Raman scattering element in the measurement board; wherein: the holding part has a pinching part pinching the surface-enhanced Raman scattering element in cooperation with the measurement board; the holding part makes it possible to dispose a sample on the optical function part in a state where the holding part is in contact with the surface enhanced Raman-scattering element; the pinching part and a portion of the holding part secured to the measurement board are formed integrally; the pinching part is in contact with the conductor layer at a frame part of the front face of the substrate outside the optical function part. a surface-enhanced Raman scattering element having a substrate, a fine structure part on a front face of the substrate, and a conductor layer formed on the front face of the substrate, forming over the fine structure part an optical function part on the substrate, the optical function part for generating surface-enhanced Raman scattering; a measurement board supporting the surface-enhanced Raman scattering element; and a holding part mechanically holding the surface-enhanced Raman scattering element in the measurement board; wherein: the holding part has a pinching part pinching the surface-enhanced Raman scattering element in cooperation with the measurement board; the holding part makes it possible to dispose a sample on the optical function part in a state where the holding part is in contact with the surface enhanced Raman-scattering element; the pinching part and a portion of the holding part secured to the measurement board are formed integrally; the pinching part is in contact with the conductor layer at a frame part of the front face of the substrate outside the optical function part. the holding part has a pinching part pinching the surface-enhanced Raman scattering element in cooperation with the measurement board; the holding part makes it possible to dispose a sample on the optical function part in a state where the holding part is in contact with the surface enhanced Raman-scattering element; the pinching part and a portion of the holding part secured to the measurement board are formed integrally; the pinching part is in contact with the conductor layer at a frame part of the front face of the substrate outside the optical function part.
A ceramic resin composite housing, comprising a ceramic member and a resin member that is molded on the ceramic member through injection molding, wherein a surface that is of the ceramic member and that is bonded with the resin member comprises a plurality of long-strip-shaped holes extending from the surface to the inside of the ceramic member; the long-strip-shaped holes have an open hole structure; characterised in that pore sizes of the long-strip-shaped holes range from 700 nm to 500 μm, and lengths of at least some of the long-strip-shaped holes are greater than 100 μm and less than or equal to 1000 μm; and the long-strip-shaped holes are filled with a resin material that constitutes the resin member. a surface that is of the ceramic member and that is bonded with the resin member comprises a plurality of long-strip-shaped holes extending from the surface to the inside of the ceramic member; the long-strip-shaped holes have an open hole structure; characterised in that pore sizes of the long-strip-shaped holes range from 700 nm to 500 μm, and lengths of at least some of the long-strip-shaped holes are greater than 100 μm and less than or equal to 1000 μm; and the long-strip-shaped holes are filled with a resin material that constitutes the resin member.
A solution comprising at least one probe comprising: a Cas polypeptide; a gRNA specific for a target nucleic acid sequence that is complexed with the Cas polypeptide; and one or more labels bound to the Cas polypeptide, the gRNA, or both, and wherein the Cas polypeptide is nuclease-deficient.
A process for preparing a plastic, which comprises reacting 1,6-hexanediol with dicarboxylic acids or diisocyanates in the presence of at least one catalyst, where the 1,6-hexanediol is a 1,6-hexanediol which has, after its preparation by hydrogenation, been subjected to at least one distillation in which the molar ratio of oxygen to 1,6-hexanediol is less than 1:100 and during the distillation comprises ≤ 5 ppm of catalytically active components and has an aldehyde content of less than 500 ppm, wherein the catalytically active components are selected from the group consisting of metallic Cu, alloys thereof, oxides thereof, halides thereof, carboxylates thereof and mixtures consisting of the pure metal, alloys, oxides and halides of Cu.
H 2 S sensor, comprising at least one elastic wave transducer and characterized in that it comprises a film having a polymer matrix comprising carboxylate functional groups and lead or zinc cations.
An isolated antibody which binds to human protein tyrosine phosphatase beta (HPTPß), wherein the isolated antibody is a monoclonal antibody, wherein the monoclonal antibody comprises two identical heavy chains and two identical light chains, wherein said isolated antibody up-regulates angiogenesis, wherein the isolated antibody binds the first FN3 repeat of HPTPß, wherein the first FN3 repeat of HPTPß has the sequence as shown in SEQ ID NO: 11.
A microcomputer-equipped system for an electric power tool, the system comprising: a microcomputer (25, 61, 81) that includes an AD (analog-to-digital) converter and at least one AD port (45, 46, 47) to which an analog signal to be AD converted by the AD converter is inputted; a reference voltage generator (55, 85) that is separately provided from an operation power source of the microcomputer (25, 61, 81) and generates and inputs to the AD port a reference voltage having a predetermined value; a signal voltage divider that is provided on a signal path before the analog signal to be AD converted is inputted to the AD converter, and generates a diagnostic analog signal by voltage division of the analog signal at a predefined voltage dividing ratio when an execution command is inputted; and a determiner that is provided inside the microcomputer, obtains diagnostic data by directing the AD converter AD convert the diagnostic analog signal when the voltage division is executed by the signal voltage divider, obtains comparative data by directing the AD converter AD convert the analog signal when the voltage division is not executed by the signal voltage divider, compares the obtained diagnostic data and the comparative data, and determines whether the abnormal state has occured based on a result of the comparison. a microcomputer (25, 61, 81) that includes an AD (analog-to-digital) converter and at least one AD port (45, 46, 47) to which an analog signal to be AD converted by the AD converter is inputted; a reference voltage generator (55, 85) that is separately provided from an operation power source of the microcomputer (25, 61, 81) and generates and inputs to the AD port a reference voltage having a predetermined value; a signal voltage divider that is provided on a signal path before the analog signal to be AD converted is inputted to the AD converter, and generates a diagnostic analog signal by voltage division of the analog signal at a predefined voltage dividing ratio when an execution command is inputted; and a determiner that is provided inside the microcomputer, obtains diagnostic data by directing the AD converter AD convert the diagnostic analog signal when the voltage division is executed by the signal voltage divider, obtains comparative data by directing the AD converter AD convert the analog signal when the voltage division is not executed by the signal voltage divider, compares the obtained diagnostic data and the comparative data, and determines whether the abnormal state has occured based on a result of the comparison.
A method of preparing a titanium and niobium mixed oxide comprising the steps of: - preparing a titanium and niobium mixed oxide in amorphous form by a solvothermal treatment of at least one titanium precursor and of at least one niobium precursor; - mechanically crushing the titanium and niobium mixed oxide obtained at the end of the solvothermal treatment; - calcinating the mixed oxide obtained after crushing. - preparing a titanium and niobium mixed oxide in amorphous form by a solvothermal treatment of at least one titanium precursor and of at least one niobium precursor; - mechanically crushing the titanium and niobium mixed oxide obtained at the end of the solvothermal treatment; - calcinating the mixed oxide obtained after crushing.
An electronic device, wherein the electronic device comprises: a printed circuit board, wherein the printed circuit board comprises mounting holes; and a module, wherein the module comprises: an electronic component; electrically conductive needles electrically coupling the electronic component with the printed circuit board; an enclosure comprising a housing at least partially enclosing the electronic component and the needles, the housing defining a module interface at which the module is mounted to the printed circuit board; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component, wherein the needles extend through the sealing and the mounting holes. a printed circuit board, wherein the printed circuit board comprises mounting holes; and a module, wherein the module comprises: an electronic component; electrically conductive needles electrically coupling the electronic component with the printed circuit board; an enclosure comprising a housing at least partially enclosing the electronic component and the needles, the housing defining a module interface at which the module is mounted to the printed circuit board; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component, wherein the needles extend through the sealing and the mounting holes. an electronic component; electrically conductive needles electrically coupling the electronic component with the printed circuit board; an enclosure comprising a housing at least partially enclosing the electronic component and the needles, the housing defining a module interface at which the module is mounted to the printed circuit board; and a sealing between the module interface and the printed circuit board configured for inhibiting gas from propagating from an exterior of the module towards the electronic component, wherein the needles extend through the sealing and the mounting holes.