mhurhangee/ep-ind-claims huggingface dataset:
An optical component apparatus, comprising: a board, wherein the board comprises at least one driver unit disposed on the board, and the driver unit comprises: a laser driver, and a matching network and a first connecting piece that are connected to an output end of the laser driver; at least one optical assembly, wherein the optical assembly comprises an electro-absorption modulated laser and a second connecting piece that is connected to the electro-absorption modulated laser, and the first connecting piece and the second connecting piece are detachably electrically connected, wherein the laser driver is configured to output a modulation signal, the modulation signal is input to the electro-absorption modulated laser through the first connecting piece and the second connecting piece, and the electro-absorption modulated laser is configured to output a laser signal based on the modulation signal; and an eye pattern determining chip, wherein the eye pattern determining chip is configured to adjust an impedance of the matching network based on the laser signal output by the electro-absorption modulated laser, until eye pattern performance of the laser signal that is output by the electro-absorption modulated laser meets a preset standard. a board, wherein the board comprises at least one driver unit disposed on the board, and the driver unit comprises: a laser driver, and a matching network and a first connecting piece that are connected to an output end of the laser driver; at least one optical assembly, wherein the optical assembly comprises an electro-absorption modulated laser and a second connecting piece that is connected to the electro-absorption modulated laser, and the first connecting piece and the second connecting piece are detachably electrically connected, wherein the laser driver is configured to output a modulation signal, the modulation signal is input to the electro-absorption modulated laser through the first connecting piece and the second connecting piece, and the electro-absorption modulated laser is configured to output a laser signal based on the modulation signal; and an eye pattern determining chip, wherein the eye pattern determining chip is configured to adjust an impedance of the matching network based on the laser signal output by the electro-absorption modulated laser, until eye pattern performance of the laser signal that is output by the electro-absorption modulated laser meets a preset standard.
A panel, comprising: a first elongated, corrugated sheet (10, 60, 65, 68, 70, 74, 80) of molded fiberboard material of corrugated shape having opposite first and second faces and opposite side edges, each face having a plurality of alternating, longitudinally extending ribs and grooves extending along the length of the first corrugated sheet (10, 60, 65, 68, 70, 74, 80), the ribs on the first face each having a first peak and the ribs on the second face each having a second peak facing in the opposite direction to the first peaks; characterized in that the first corrugated sheet (10, 60, 65, 68, 70, 74, 80) has at least one slotted portion (62, 75, 76, 82, 84) which has a plurality of spaced slits (64, 66, 69, 72, 78, 85, 86) cut through the ribs of at least one face and terminating short of the opposite face; and in that the panel (10, 60, 65, 68, 70, 74, 80) is formed into at least one curve (84, 82) at said slotted portion (62, 75, 76, 82, 84).
A hair styling apparatus comprising a first arm and a second arm moveable between a closed position in which a first contacting surface of the first arm is adjacent a second contacting surface of the second arm and an open position in which the first and second contacting surfaces are spaced apart; wherein the first and second contacting surfaces have complementary profiles so that, in use, a section of hair is clamped between the contacting surfaces when the arms are in the closed position; wherein the first contacting surface comprises a first heating zone and the second contacting surface comprises a second heating zone for heating the section of hair between the first and second contacting surfaces, the first heating zone being positioned on the first contacting surface and the second heating zone being positioned on the second contacting surface so that the first and second heating zones are adjacent each other when the first and second arms are in the closed position; wherein the first contacting surface further comprises first and second cooling zones for cooling the section of hair, the cooling zones being positioned on the first contacting surface on either side of the first heating zone; wherein the first arm further comprises a heat bridge that extends within a housing of the first arm behind the first heating zone and between the first and second cooling zones, the heat bridge being formed of a material that is arranged to allow heat gained by the first cooling zone to be transferred through the heat bridge to the second cooling zone; and characterized in that the first contacting surface is curved at a position corresponding to at least one of the first and second cooling zones.
An apparatus for generating a data stream having a series of segments using data organized in subsequent data frames, comprising: a packetiser for packetising data from a data frame into the series of segments having a first segment (Seg#0) and a second segment (Seg#1), the second segment (Seg#1) having interpretable data entities and having a data entity fragment, the data entity fragment comprise an in-complete data entity not interpretable on their own and wherein adjacent and subsequent to the data entity fragment in the data stream, an interpretable data entity having a start is located; and an information block adder for adding an information block associated with the second segment (Seg#1), the information block indicating the start of the interpretable data entity within the second segment (Seg#1), in which the packetiser is operative to packetise the series of segments such that the first segment (Seg#0) and the second segment (Seg#1) have the same size. a packetiser for packetising data from a data frame into the series of segments having a first segment (Seg#0) and a second segment (Seg#1), the second segment (Seg#1) having interpretable data entities and having a data entity fragment, the data entity fragment comprise an in-complete data entity not interpretable on their own and wherein adjacent and subsequent to the data entity fragment in the data stream, an interpretable data entity having a start is located; and an information block adder for adding an information block associated with the second segment (Seg#1), the information block indicating the start of the interpretable data entity within the second segment (Seg#1), in which the packetiser is operative to packetise the series of segments such that the first segment (Seg#0) and the second segment (Seg#1) have the same size.
An image sensor comprising a first layer (1, 12) and second layer (2, 18) arranged vertically with respect to each other, wherein: the first layer is a PMOS photodetection circuit layer comprising an array of pixel elements; each pixel element comprising: a pinned photodiode; and an amplifier, the amplifier comprising P-FET transistors; the second layer is a CMOS layer comprising supporting pixel circuitry, including a global shutter sample and hold circuit, the supporting pixel circuitry comprising N-FET transistors; wherein each pixel element in the PMOS layer is connected to supporting pixel circuitry in the CMOS layer; and, wherein the sample and hold circuit comprises a trench capacitor formed in the CMOS layer. the first layer is a PMOS photodetection circuit layer comprising an array of pixel elements; each pixel element comprising: a pinned photodiode; and an amplifier, the amplifier comprising P-FET transistors; a pinned photodiode; and an amplifier, the amplifier comprising P-FET transistors; the second layer is a CMOS layer comprising supporting pixel circuitry, including a global shutter sample and hold circuit, the supporting pixel circuitry comprising N-FET transistors; wherein each pixel element in the PMOS layer is connected to supporting pixel circuitry in the CMOS layer; and, wherein the sample and hold circuit comprises a trench capacitor formed in the CMOS layer.
A solder powder having an average particle size of 0.1 to 5 μm and having a center core and a covering layer covering the center core, wherein the center core consists of an intermetallic compound of silver and tin being Ag 3 Sn, or silver and an intermetallic compound of silver and tin being Ag 3 Sn, the covering layer consists of tin, an intermediate layer which consists of an intermetallic compound of copper and tin being Cu 6 Sn 5 is interposed between the center core and the covering layer so that at least a part of the center core is covered thereby, and the amount of the tin in the solder powder is 88.0 to 99.8% by mass.
A water-based dispersion which contains an inorganic powder microfine particle subjected to a hydrophobic organic surface treatment, a polyhydric alcohol, water, and a nonionic surfactant, wherein the nonionic surfactant is one or more compounds selected from the group consisting of a polyoxyalkylene fatty acid ester, a polyoxyalkylene sorbitan fatty acid ester, and an organopolysiloxane having a polyoxyalkylene group, the nonionic surfactant has an HLB value of 6 to 12, and wherein the nonionic surfactant is a compound which can be dissolved transparently or slightly muddy in 1,3-butylene glycol (20 wt% concentration, 35°C), and is insoluble or dispersed cloudy in water (20 wt% concentration, 35°C), and an amount of the inorganic powder microfine particle is 30 wt% or more, wherein dissolved transparently means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is less than 10, and slightly muddy means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is 10 or more, and the total light transmittance is 30% or more, and insoluble means that an unmelted residue is caused in the mixture, or a phase separation is occurred an hour later even if the mixture looks muddy, and dispersed cloudy means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is 10 or more, and the total light transmittance is less than 30%.
An elastic roller (30, 40, 50) comprising: a roller shaft; and an elastic member attached around the roller shaft, the elastic roller (30, 40, 50) configured to transfer a belt-shaped member while the belt-shaped member is in contact with the elastic member, wherein the elastic member includes: an inner layer side elastic member disposed around the roller shaft; and a coating layer disposed around the inner layer side elastic member, the coating layer for being in contact with the belt-shaped member, the inner layer side elastic member having a rubber hardness of 30 to 80 degrees, the rubber hardness being measured by a durometer type A in accordance with the standard of JIS K 6253, the coating layer being made of silicone resin, the coating layer having a thickness of 10 to 100 μm, the silicone resin having a hardness of 20 degrees or less, the hardness being measured using a spring-based Asker C type in accordance with SRIS 0101 standard, the inner layer side elastic member having a plurality of internal grooves along a circumferential direction, each of the internal grooves having a width of 25 to 1,300 μm, each of the internal grooves having a depth of 25 to 500 μm, and each of the internal grooves having a V-shape in cross section and having a groove angle of 50 to 120 degrees; characterized by the inner layer side elastic member having a tear strength of 25 N/mm or more, the tear strength being measured using an unnicked angle-shaped test piece in accordance with JIS K 6252. a roller shaft; and an elastic member attached around the roller shaft, the elastic roller (30, 40, 50) configured to transfer a belt-shaped member while the belt-shaped member is in contact with the elastic member, wherein the elastic member includes: an inner layer side elastic member disposed around the roller shaft; and a coating layer disposed around the inner layer side elastic member, the coating layer for being in contact with the belt-shaped member, an inner layer side elastic member disposed around the roller shaft; and a coating layer disposed around the inner layer side elastic member, the coating layer for being in contact with the belt-shaped member, the inner layer side elastic member having a rubber hardness of 30 to 80 degrees, the rubber hardness being measured by a durometer type A in accordance with the standard of JIS K 6253, the coating layer being made of silicone resin, the coating layer having a thickness of 10 to 100 μm, the silicone resin having a hardness of 20 degrees or less, the hardness being measured using a spring-based Asker C type in accordance with SRIS 0101 standard, the inner layer side elastic member having a plurality of internal grooves along a circumferential direction, each of the internal grooves having a width of 25 to 1,300 μm, each of the internal grooves having a depth of 25 to 500 μm, and each of the internal grooves having a V-shape in cross section and having a groove angle of 50 to 120 degrees; characterized by the inner layer side elastic member having a tear strength of 25 N/mm or more, the tear strength being measured using an unnicked angle-shaped test piece in accordance with JIS K 6252.
Apparatus for measuring a measurement variable, having - a first inductance, - a measuring inductance which is designed to sense the measurement variable and is coupled to the first inductance, - a capacitance which is connected to the first inductance to form a parallel resonant circuit, wherein the first inductance and the capacitance each have a predefined tolerance and therefore have a maximum expected deviation from the respective nominal value, - an excitation circuit (V_St) which is designed to excite the parallel resonant circuit in an oscillating manner at an excitation frequency, and - a measuring circuit which is connected at least to the measuring inductance for measuring a value indicating the measurement variable, characterized in that the parallel resonant circuit has an optimum Q factor which is obtained by maximizing a value of Vt ∗ Vt / V0, - wherein Vt denotes a ratio of the coil current and supply line current in the case of the maximum expected deviation of the capacitance and of the first inductance from their respective nominal values at the resonant frequency of the parallel resonant circuit, and - wherein V0 denotes a ratio of the coil current and supply line current in the case of respective values of the capacitance and first inductance at the actually given resonant frequency of the parallel resonant circuit. - a first inductance, - a measuring inductance which is designed to sense the measurement variable and is coupled to the first inductance, - a capacitance which is connected to the first inductance to form a parallel resonant circuit, wherein the first inductance and the capacitance each have a predefined tolerance and therefore have a maximum expected deviation from the respective nominal value, - an excitation circuit (V_St) which is designed to excite the parallel resonant circuit in an oscillating manner at an excitation frequency, and - a measuring circuit which is connected at least to the measuring inductance for measuring a value indicating the measurement variable, characterized in that the parallel resonant circuit has an optimum Q factor which is obtained by maximizing a value of Vt ∗ Vt / V0, - wherein Vt denotes a ratio of the coil current and supply line current in the case of the maximum expected deviation of the capacitance and of the first inductance from their respective nominal values at the resonant frequency of the parallel resonant circuit, and - wherein V0 denotes a ratio of the coil current and supply line current in the case of respective values of the capacitance and first inductance at the actually given resonant frequency of the parallel resonant circuit.
An X-ray CT apparatus comprising: a controlling unit configured to obtain initial temperature information of a photon counting detector before a main scan, information about a shape of a subject, and a scan condition of the main scan; an estimating unit configured to estimate a temperature change of the photon counting detector to be observed when the main scan is performed, on a basis of the initial temperature information, the information about the shape of the subject, and information about the scan condition of the main scan; and a judging unit configured to judge whether or not it is possible to perform the main scan, on a basis of the temperature change and the initial temperature information. a controlling unit configured to obtain initial temperature information of a photon counting detector before a main scan, information about a shape of a subject, and a scan condition of the main scan; an estimating unit configured to estimate a temperature change of the photon counting detector to be observed when the main scan is performed, on a basis of the initial temperature information, the information about the shape of the subject, and information about the scan condition of the main scan; and a judging unit configured to judge whether or not it is possible to perform the main scan, on a basis of the temperature change and the initial temperature information.
An automated slide processing apparatus for dispensing liquids onto one or more microscope slides, comprising: a plurality of reservoir wells; and a reagent pipette assembly including a reagent pipette movable between at least one loading position for obtaining reagent from one of the reservoir wells and at least one dispense position for dispensing reagent onto one of the microscope slides; characterized in that the automated slide processing apparatus further comprises: a carousel including the plurality of reservoir wells; a wash pipette assembly configured to wash the plurality of reservoir wells; and a drive mechanism coupled to the carousel and configured to rotate the carousel to position the reservoir wells relative to the reagent pipette assembly and/or the wash pipette assembly, wherein the reagent pipette assembly is movable between a filling position for obtaining reagent from a container at a filling station and a dispensing position for filling one or more of the reservoir wells with reagent from the filling station. a plurality of reservoir wells; and a reagent pipette assembly including a reagent pipette movable between at least one loading position for obtaining reagent from one of the reservoir wells and at least one dispense position for dispensing reagent onto one of the microscope slides; characterized in that the automated slide processing apparatus further comprises: a carousel including the plurality of reservoir wells; a wash pipette assembly configured to wash the plurality of reservoir wells; and a drive mechanism coupled to the carousel and configured to rotate the carousel to position the reservoir wells relative to the reagent pipette assembly and/or the wash pipette assembly, wherein the reagent pipette assembly is movable between a filling position for obtaining reagent from a container at a filling station and a dispensing position for filling one or more of the reservoir wells with reagent from the filling station. a carousel including the plurality of reservoir wells; a wash pipette assembly configured to wash the plurality of reservoir wells; and a drive mechanism coupled to the carousel and configured to rotate the carousel to position the reservoir wells relative to the reagent pipette assembly and/or the wash pipette assembly, wherein the reagent pipette assembly is movable between a filling position for obtaining reagent from a container at a filling station and a dispensing position for filling one or more of the reservoir wells with reagent from the filling station.
A door drive for being disposed at a reception body such as a door leaf, a door frame, a door transom, a wall or the like, having at least one mounting plate, • on which the door drive assembly is disposed, and • which is configured to be attachable to the reception body, wherein • the assembly - is modularly designed, and - has at least one connector module, a drive module and a main module, which are latched to the mounting plate by means of associated latching means, and • the main module comprises a system carrier, in which at least one supply unit and at least one control unit are accommodated by means of associated fastening means, characterized in that • associated fastening means (11, 12) are provided between the connector module, the drive module and/or the main module, in order to allow for clamping to and/or latching of the respective modules (3, 4, 5) among each other. • on which the door drive assembly is disposed, and • which is configured to be attachable to the reception body, wherein • the assembly - is modularly designed, and - has at least one connector module, a drive module and a main module, which are latched to the mounting plate by means of associated latching means, and - is modularly designed, and - has at least one connector module, a drive module and a main module, which are latched to the mounting plate by means of associated latching means, and • the main module comprises a system carrier, in which at least one supply unit and at least one control unit are accommodated by means of associated fastening means, • associated fastening means (11, 12) are provided between the connector module, the drive module and/or the main module, in order to allow for clamping to and/or latching of the respective modules (3, 4, 5) among each other.
A method for powder coating of electrically non-conductive elements, in particular brake pads, comprising a step of pre-treating, in which the electrically non-conductive elements are made conductive on at least one surface thereof to be painted, a step of electrostatically depositing a painting powder on the surface to be painted, and a step of baking, in which the painting powder is melted and polymerized to form a coating layer on the surface to be painted; wherein the step of pre-treating consists in uniformly dampening at least the surface to be painted and, preferably, each entire electrically non-conductive element, by retention of low mineral content water, namely having a chemical composition such as to have a specific conductivity comprised between 1 and 5,000 μS/cm and preferably between 10 and 700 μS/cm measured at 20°C, to such an extent to produce a measurable increase of weight of the electrically non-conductive elements, such as to make such elements electrically conductive; the water retained on the electrically non-conductive elements being subsequently eliminated at least in part during the step of baking; characterized in that the step of pre-treating is carried out by spraying high pressure jets of said water onto the electrically non-conductive elements so as to create a mist all around them and at the same time aspirating said mist by means of a suction hood (17;17b).