mhurhangee/ep-ind-claims huggingface dataset:
Apparatus adapted to generate an object notation file comprising: a data handler having a first input configured to receive object data and a first output configured to output an object notation key-value pair for the object data; a string processor with a second input coupled to the first output and a second output configured to convey the object notation key-value pair without string literals; and a hashing and encryption handler with a third input coupled to the second output and a third output configured to convey: the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed. a data handler having a first input configured to receive object data and a first output configured to output an object notation key-value pair for the object data; a string processor with a second input coupled to the first output and a second output configured to convey the object notation key-value pair without string literals; and a hashing and encryption handler with a third input coupled to the second output and a third output configured to convey: the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed. the key-value pair signed with a private key, the key-value pair encrypted with a public key, an indication that the encrypted key-value pair is encrypted in the key of the key-value pair, the encrypted key-value pair with a hash value of the encrypted key-value pair inserted in the key, and in the key an indication that the encrypted key-value pair is hashed.
An electric machine, comprising: a rotor; and a stator core radially outward from the rotor, the stator core being stationary relative to the rotor during operation; wherein the stator core comprises: carbon fibers and cobalt/cobalt carbide matrix, wherein the stator core is greater than or equal to 40% cobalt by weight in total, and wherein the stator core comprises about 0.01% to about 5% cobalt carbide by weight or wherein an average molecular diameter of the cobalt carbide is less than or equal to about 100 nanometers. a rotor; and a stator core radially outward from the rotor, the stator core being stationary relative to the rotor during operation; wherein the stator core comprises: carbon fibers and cobalt/cobalt carbide matrix, wherein the stator core is greater than or equal to 40% cobalt by weight in total, and wherein the stator core comprises about 0.01% to about 5% cobalt carbide by weight or wherein an average molecular diameter of the cobalt carbide is less than or equal to about 100 nanometers.
Wavelength sweepable laser source, wherein the laser source is a semiconductor laser source adapted for generating laser light at a lasing wavelength, the laser source comprising ∘ a substrate, ∘ a first reflector, and ∘ a second reflector, the first and second reflectors together defining an optical cavity, and being arranged to support light oscillation in the optical cavity along an optical path in a direction normal to the substrate, the optical cavity comprising a void in the optical path, the second reflector being resiliently suspended by a suspension at a distance from the first reflector and having a rest position, the second reflector and suspension together defining a microelectromechanical MEMS oscillator, the MEMS oscillator having a resonance frequency and being adapted for oscillating the second reflector on either side of the rest position, the laser source further comprising ∘ electrical connections (106, 108) adapted for applying an electric field to the MEMS oscillator; characterized in that the laser source is packaged so as to keep the MEMS oscillator at least under operation under a vacuum having a pressure of 200 Torr or less, 200 Torr corresponding to a pressure of 26664.5 Pascal, and wherein a mechanical quality factor of the packaged MEMS oscillator is at least 10. ∘ a substrate, ∘ a first reflector, and ∘ a second reflector, the first and second reflectors together defining an optical cavity, and being arranged to support light oscillation in the optical cavity along an optical path in a direction normal to the substrate, the optical cavity comprising a void in the optical path, the second reflector being resiliently suspended by a suspension at a distance from the first reflector and having a rest position, the second reflector and suspension together defining a microelectromechanical MEMS oscillator, the MEMS oscillator having a resonance frequency and being adapted for oscillating the second reflector on either side of the rest position, the laser source further comprising ∘ electrical connections (106, 108) adapted for applying an electric field to the MEMS oscillator;
A process for loading particulate titanium dioxide into a polymer concentrate, the process comprising the steps of: (a) mixing a treatment oil comprising vegetable oil with a particulate titanium dioxide to form a lipid-coated particulate titanium dioxide, wherein the vegetable oil comprises triglycerides; and (b) mixing the lipid-coated particulate titanium dioxide with a polymer resin to form a polymer concentrate comprising lipid-coated particulate titanium dioxide present in an amount in the range of from 50% to 85% by weight of the polymer concentrate, wherein the polymer resin is a polyolefin. (a) mixing a treatment oil comprising vegetable oil with a particulate titanium dioxide to form a lipid-coated particulate titanium dioxide, wherein the vegetable oil comprises triglycerides; and (b) mixing the lipid-coated particulate titanium dioxide with a polymer resin to form a polymer concentrate comprising lipid-coated particulate titanium dioxide present in an amount in the range of from 50% to 85% by weight of the polymer concentrate, wherein the polymer resin is a polyolefin.
A method comprising: activating an image sensor to acquire frames of image data at least once at the same time that an illumination subsystem is activated for one of a plurality of active illumination periods for a first illuminated exposure period; activating the image sensor to acquire frames of image data at least once while the indicia reading terminal does not project illumination for a first unilluminated exposure period which is longer than the first illuminated exposure period; activating an aimer for a plurality of active aimer periods when neither the image sensor or the illumination subsystem is activated, wherein intervals of time between the active aimer periods are equal within nominal tolerances; and performing an attempted decode of a decodable indicia with a processor utilizing one or more frames of image data from at least one of the first illuminated exposure period and the first unilluminated exposure period. activating an image sensor to acquire frames of image data at least once at the same time that an illumination subsystem is activated for one of a plurality of active illumination periods for a first illuminated exposure period; activating the image sensor to acquire frames of image data at least once while the indicia reading terminal does not project illumination for a first unilluminated exposure period which is longer than the first illuminated exposure period; activating an aimer for a plurality of active aimer periods when neither the image sensor or the illumination subsystem is activated, wherein intervals of time between the active aimer periods are equal within nominal tolerances; and performing an attempted decode of a decodable indicia with a processor utilizing one or more frames of image data from at least one of the first illuminated exposure period and the first unilluminated exposure period.
Process for the production of surface structuring on a mould, where in a step of the process initial structure elements are produced by laser structuring, and the laser structuring is followed in a further step of the process by production of second structure elements by anodic oxidation, where the second structure elements are smaller than the initial structure elements and where at least partial conversion of γ-aluminium oxide into α-aluminium oxide is achieved at the surface of the mould by tempering.
LED exterior and street luminaires, comprising a space for accommodating an LED module assembly and customary LED operating devices, AC power connecting terminals and the like, and heat sinks, the luminaires being intended for direct connection to a pole or home connection cable, wherein - the LED module assembly is accommodated in a separate cuboid LED operating space in a hermetically sealed manner, - which is adjoined, on one of the narrow end faces of the LED operating space, by the second functional space for separately accommodating in a hermetically sealed manner AC power operating devices and AC power connecting terminals and the like, wherein - the two aforementioned operating and functional spaces (1, 2) are mechanically connected to one another in a thermally substantially decoupled manner and characterized in that the LED exterior and street luminaires - comprise a lower fold peripherally or at least on opposing lateral surfaces, which is provided on the two operating and functional spaces (1, 2), onto which - a replaceable cooling surface having an adaptable surface area is attached from the outside in a plane parallel manner, which is in close thermal contact with the lateral operating and functional space surface areas, via tabs, and is connected to these. - the LED module assembly is accommodated in a separate cuboid LED operating space in a hermetically sealed manner, - which is adjoined, on one of the narrow end faces of the LED operating space, by the second functional space for separately accommodating in a hermetically sealed manner AC power operating devices and AC power connecting terminals and the like, wherein - the two aforementioned operating and functional spaces (1, 2) are mechanically connected to one another in a thermally substantially decoupled manner and characterized in that the LED exterior and street luminaires - comprise a lower fold peripherally or at least on opposing lateral surfaces, which is provided on the two operating and functional spaces (1, 2), onto which - a replaceable cooling surface having an adaptable surface area is attached from the outside in a plane parallel manner, which is in close thermal contact with the lateral operating and functional space surface areas, via tabs, and is connected to these.
Weapon system having at least one ammunition feeding device of a belted ammunition (4, 5) for delivery before a breech or a breech head, the ammunition (4, 5) being extracted from the ammunition belt and delivered to the breech by a cartridge hook (6, 7), the cartridge hook (6, 7) being carried along or placed in a deactivating manner by the breech when the breech travels a distance backward or forward, characterized in that the cartridge hook (6, 7) is incorporated in the weapon system in such a way that the ammunition (4, 5) is only extracted from the ammunition belt when the breech has already travelled a distance.
A mixing device comprising: - a supply section, and - a pipe-in-pipe section comprising: - an outer pipe extending vertically and - an inner pipe having a closed top end and having an outlet for the mixture at a bottom end, wherein the inner pipe is arranged concentrically to the outer pipe inside the outer pipe such that an annular space is formed between the outer pipe and the inner pipe, wherein the annular space has a closed top end and a closed bottom end, wherein the outer pipe is provided with an outer flow inlet for receiving a flow from the supply section into the annular space, the outer flow inlet being provided such that a tangential flow is generated in the annular space during use, characterized in that the inner pipe is provided with at least two inner flow inlets (121, 122) for receiving a flow from the annular space into the inner pipe, and wherein the two or more inner flow inlets are provided closer to the top end of the annular space than the outer flow inlet. - a supply section, and - a pipe-in-pipe section comprising: - an outer pipe extending vertically and - an inner pipe having a closed top end and having an outlet for the mixture at a bottom end, - an outer pipe extending vertically and - an inner pipe having a closed top end and having an outlet for the mixture at a bottom end, wherein the inner pipe is arranged concentrically to the outer pipe inside the outer pipe such that an annular space is formed between the outer pipe and the inner pipe, wherein the annular space has a closed top end and a closed bottom end, wherein the outer pipe is provided with an outer flow inlet for receiving a flow from the supply section into the annular space, the outer flow inlet being provided such that a tangential flow is generated in the annular space during use, characterized in that the inner pipe is provided with at least two inner flow inlets (121, 122) for receiving a flow from the annular space into the inner pipe, and wherein the two or more inner flow inlets are provided closer to the top end of the annular space than the outer flow inlet.
A method for establishing timing synchronism between a transmitter symbol clock and a local symbol clock in a receiver for receiving a signal transmitted as a sequence of symbols at a symbol frequency and subject to exhibiting a symbol frequency offset, said method comprising the steps of: calculating a preselected number of frequency offset values for a desired symbol timing recovery offset range said offset values being grouped substantially symmetrically about a central offset value; testing each of said preselected offset values to see if symbol timing recovery lock can be achieved by starting at said central offset value and gradually moving away from said central offset value. calculating a preselected number of frequency offset values for a desired symbol timing recovery offset range said offset values being grouped substantially symmetrically about a central offset value; testing each of said preselected offset values to see if symbol timing recovery lock can be achieved by starting at said central offset value and gradually moving away from said central offset value.
A drying device wherein, while transporting a long-sized printed object to which an ink was applied by a printing part, the printed object is dried, comprising: a first heating roller part and a second heating roller part capable of guiding the printed object and heating the printed object; a first heating part formed so as to be opposed to an outer circumferential surface of the first heating roller part; and a second heating part formed so as to be opposed to an outer circumferential surface of the second heating roller part, wherein after the printed object has been guided to the first heating roller part on the upstream side, the printed object is guided to the second heating roller part on the downstream side, with the setting temperature of the second heating roller part being made higher than the setting temperature of the first heating roller part, the first heating roller part and the first heating part are housed in a first chamber, the second heating roller part and the second heating part are housed in a second chamber, and the first chamber and the second chamber are both provided with exhaust openings. a first heating roller part and a second heating roller part capable of guiding the printed object and heating the printed object; a first heating part formed so as to be opposed to an outer circumferential surface of the first heating roller part; and a second heating part formed so as to be opposed to an outer circumferential surface of the second heating roller part, wherein after the printed object has been guided to the first heating roller part on the upstream side, the printed object is guided to the second heating roller part on the downstream side, with the setting temperature of the second heating roller part being made higher than the setting temperature of the first heating roller part, the first heating roller part and the first heating part are housed in a first chamber, the second heating roller part and the second heating part are housed in a second chamber, and the first chamber and the second chamber are both provided with exhaust openings.
Method for characterizing a wafer patterned using at least one lithography step, • wherein a plurality of parameters characteristic of the patterned wafer are ascertained on the basis of measurements of the intensity of electromagnetic radiation after the diffraction thereof at the patterned wafer, wherein these intensity measurements are carried out for at least one used structure and at least one auxiliary structure; • wherein the parameters are ascertained on the basis of intensity values measured during the intensity measurements for respectively different combinations of wavelength, polarization and/or order of diffraction, and also on the basis of correspondingly calculated intensity values, with a mathematical optimization method being applied; wherein the ascertainment of the parameters characteristic of the patterned wafer includes the following steps: a) ascertaining parameters of a first parameter set on the basis of the intensity values obtained for the at least one auxiliary structure; and b) ascertaining parameters of a second parameter set taking account of the parameters of the first parameter set ascertained in step a), characterized in that the intensity measurements are carried out simultaneously for the at least one used structure and the at least one auxiliary structure for a respective combination of wavelength, polarization and/or order of diffraction. • wherein a plurality of parameters characteristic of the patterned wafer are ascertained on the basis of measurements of the intensity of electromagnetic radiation after the diffraction thereof at the patterned wafer, wherein these intensity measurements are carried out for at least one used structure and at least one auxiliary structure; • wherein the parameters are ascertained on the basis of intensity values measured during the intensity measurements for respectively different combinations of wavelength, polarization and/or order of diffraction, and also on the basis of correspondingly calculated intensity values, with a mathematical optimization method being applied; wherein the ascertainment of the parameters characteristic of the patterned wafer includes the following steps: a) ascertaining parameters of a first parameter set on the basis of the intensity values obtained for the at least one auxiliary structure; and b) ascertaining parameters of a second parameter set taking account of the parameters of the first parameter set ascertained in step a), a) ascertaining parameters of a first parameter set on the basis of the intensity values obtained for the at least one auxiliary structure; and b) ascertaining parameters of a second parameter set taking account of the parameters of the first parameter set ascertained in step a),
A semiconductor device, comprising: a substrate; a first active layer disposed over the substrate; a second active layer disposed on the first active layer such that a lateral conductive channel arises between the first active layer and the second active layer; a source, gate and drain contact disposed over the second active layer; and a conductive charge distribution structure (135, 140, 145) disposed over the second active layer between the gate and drain contacts, said conductive charge distribution structure (135, 140, 145) being capacitively coupled to the gate contact, wherein the charge distribution structure (135, 140, 145) is not electrically connected to one of the device's contacts (125; 130; 150), characterized in that the charge distribution structure (135, 140, 145) includes a plurality of conductive components (E1, E2, E3) each constructed from a first elongate member (702, 704, 706) formed in a first layer and a second elongate member (716, 718, 720) formed in a second layer vertically offset from the first layer, said conductive components being capacitively coupled to one another such that capacitance between each second elongate member and a first elongate member of an adjacent conductive component is sufficiently greater than the capacitance between the first elongate member and the lateral conductive channel to guarantee that the charge associated with the lateral conductive channel can be transferred between the conductive components of the charge distribution structure. a substrate; a first active layer disposed over the substrate; a second active layer disposed on the first active layer such that a lateral conductive channel arises between the first active layer and the second active layer; a source, gate and drain contact disposed over the second active layer; and a conductive charge distribution structure (135, 140, 145) disposed over the second active layer between the gate and drain contacts, said conductive charge distribution structure (135, 140, 145) being capacitively coupled to the gate contact, wherein the charge distribution structure (135, 140, 145) is not electrically connected to one of the device's contacts (125; 130; 150), characterized in that the charge distribution structure (135, 140, 145) includes a plurality of conductive components (E1, E2, E3) each constructed from a first elongate member (702, 704, 706) formed in a first layer and a second elongate member (716, 718, 720) formed in a second layer vertically offset from the first layer, said conductive components being capacitively coupled to one another such that capacitance between each second elongate member and a first elongate member of an adjacent conductive component is sufficiently greater than the capacitance between the first elongate member and the lateral conductive channel to guarantee that the charge associated with the lateral conductive channel can be transferred between the conductive components of the charge distribution structure.
A cold plate assembly comprising: a support structure including first and second opposing sides; a first cold plate disposed on the first side of the support structure; a second cold plate disposed on the second side of the support structure; each of the first and second cold plates (22,24) including passages (38,40) through which a cooling medium flows; and a bore defined within the first cold plate and the second cold plate and communicating with said passages (38,40); and characterized by a transfer tube movable within the bore along an axis and extending through the support structure for communicating fluid between the first cold plate and the second cold plate, and first and second biasing members disposed at opposite ends of the transfer tube for holding the transfer tube suspended within the bore in a desired position while accommodating vibrational movement along the axis. a support structure including first and second opposing sides; a first cold plate disposed on the first side of the support structure; a second cold plate disposed on the second side of the support structure; each of the first and second cold plates (22,24) including passages (38,40) through which a cooling medium flows; and a bore defined within the first cold plate and the second cold plate and communicating with said passages (38,40); and characterized by a transfer tube movable within the bore along an axis and extending through the support structure for communicating fluid between the first cold plate and the second cold plate, and first and second biasing members disposed at opposite ends of the transfer tube for holding the transfer tube suspended within the bore in a desired position while accommodating vibrational movement along the axis.