mhurhangee/ep-ind-claims huggingface dataset:
A water tank assembly, comprising: a water storage box, provided with a water outlet at a bottom thereof; a box cover, fastened to an opening of the water storage box; and a fence, rotatably arranged around the water storage box, wherein the fence and the box cover enclose a space for placing articles when the fence is rotated to a position above the water storage box; and the fence and a bottom wall or a side wall of the water storage box enclose a second storage space, forming a box cover placement space when the fence is rotated to a position under or beside the water storage box. a water storage box, provided with a water outlet at a bottom thereof; a box cover, fastened to an opening of the water storage box; and a fence, rotatably arranged around the water storage box, wherein the fence and the box cover enclose a space for placing articles when the fence is rotated to a position above the water storage box; and the fence and a bottom wall or a side wall of the water storage box enclose a second storage space, forming a box cover placement space when the fence is rotated to a position under or beside the water storage box.
A method for centering a tool, a tool-holding spindle or an element including a tool-holding spindle of a machining tool including a turning barrel device, characterized in that it consists of: - a) mounting the tool in a tool-holding spindle, - b) fastening a distance measuring probe on the nose of the turning barrel device or on a turning barrel clamp, - c) moving the tool-holding spindle to bring the body of the tool across from the measuring probe, - d) rotating the turning barrel device to place the measuring probe in a first measuring position, - e) performing at least a first measurement of the distance separating the measuring probe from the tool, - f) using the first measurement to initialize the measuring probe, - g) turning the turning barrel device to place the measuring probe in a second measuring position, spaced angularly by about 180° from the first measuring position, - h) performing at least one complementary measurement of the distance separating the measuring probe from the tool, - i) using the value of the second measurement, corresponding to a centering deviation in a determined direction, to correct the position of the tool-holding spindle and cancel the centering deviation, - j) turning the turning barrel device to place the measuring probe in a third measuring position, spaced angularly by about 90° from the first measuring position and repeating steps h) and i). - a) mounting the tool in a tool-holding spindle, - b) fastening a distance measuring probe on the nose of the turning barrel device or on a turning barrel clamp, - c) moving the tool-holding spindle to bring the body of the tool across from the measuring probe, - d) rotating the turning barrel device to place the measuring probe in a first measuring position, - e) performing at least a first measurement of the distance separating the measuring probe from the tool, - f) using the first measurement to initialize the measuring probe, - g) turning the turning barrel device to place the measuring probe in a second measuring position, spaced angularly by about 180° from the first measuring position, - h) performing at least one complementary measurement of the distance separating the measuring probe from the tool, - i) using the value of the second measurement, corresponding to a centering deviation in a determined direction, to correct the position of the tool-holding spindle and cancel the centering deviation, - j) turning the turning barrel device to place the measuring probe in a third measuring position, spaced angularly by about 90° from the first measuring position and repeating steps h) and i).
A pump assembly with an electric motor which comprises a stator housing and an electronics housing (4; 50) fastened at the outside on the stator housing, wherein the electronics housing (4; 50) is connected to the stator housing via at least one fastening element (24, 24'; 56), said fastening element being situated within an outer contour of the electronics housing (4; 50) which is delimited by the outer walls of the electronics housing (4; 50) and being accessible given a closed electronics housing (4; 50), the electronics housing (4; 50) comprises at least one base part; and a cover part;, wherein the at least one fastening element; is arranged in a manner such that the cover part; is releasable from the base part; independently of the fastening element;, characterised in that the base part is fastened with at least one screw as a fastening element, on the stator housing, and the cover part comprises at least one opening lying opposite the screw in the direction of the longitudinal axis of this screw, wherein the space between the screw and the opening is free.
An article comprising: a first transparent conductive oxide layer, a transparent metal layer on the first transparent conductive oxide layer, wherein a thickness of the transparent metal layer continuously decreases in a direction; and a second transparent conductive oxide layer on the transparent metal layer; wherein a sheet resistance, R s, to the flow of electrical current through the article, varies as a function of position in the article; and wherein a ratio of the value of maximum sheet resistance, R max, to the value of minimum sheet resistance, R min, in the article is at least 1.5. a first transparent conductive oxide layer, a transparent metal layer on the first transparent conductive oxide layer, wherein a thickness of the transparent metal layer continuously decreases in a direction; and a second transparent conductive oxide layer on the transparent metal layer; wherein a sheet resistance, R s, to the flow of electrical current through the article, varies as a function of position in the article; and wherein a ratio of the value of maximum sheet resistance, R max, to the value of minimum sheet resistance, R min, in the article is at least 1.5.
A seismic sensor that operates in a power saving mode and a measurement mode in which power consumption in the measurement mode is larger than power consumption in the power saving mode, the seismic sensor comprising: a measurement unit configured to measure acceleration, said seismic sensor being configured to transition from the power saving mode to the measurement mode when the measured acceleration exceeds a predetermined threshold; an earthquake determinator configured to determine whether an earthquake occurs based on the acceleration measured in the measurement mode; and an index calculator configured to calculate an index value indicating a scale of the earthquake when the earthquake determinator determines that the earthquake occurs, wherein the earthquake determinator is configured to divide a period to a plurality of determination periods after said seismic sensor transitioned from the power saving mode to the measurement mode, wherein the earthquake determinator is configured to determine whether the earthquake occurs based on the acceleration measured in each determination period, wherein said seismic sensor is configured to transition from the measurement mode to the power saving mode without performing processing in a subsequent determination period when the earthquake determinator determines that the earthquake is not generated in one of a plurality of the determination periods. a measurement unit configured to measure acceleration, said seismic sensor being configured to transition from the power saving mode to the measurement mode when the measured acceleration exceeds a predetermined threshold; an earthquake determinator configured to determine whether an earthquake occurs based on the acceleration measured in the measurement mode; and an index calculator configured to calculate an index value indicating a scale of the earthquake when the earthquake determinator determines that the earthquake occurs, wherein the earthquake determinator is configured to divide a period to a plurality of determination periods after said seismic sensor transitioned from the power saving mode to the measurement mode, wherein the earthquake determinator is configured to determine whether the earthquake occurs based on the acceleration measured in each determination period, wherein said seismic sensor is configured to transition from the measurement mode to the power saving mode without performing processing in a subsequent determination period when the earthquake determinator determines that the earthquake is not generated in one of a plurality of the determination periods.
An apparatus for bonding separators in electrical devices (11, 13) used to bond a pair of separators to each other so as to sandwich an electrode (20, 30), comprising: a transmission unit for generating ultrasonic oscillations; an amplifier unit for amplifying the generated oscillations; an abutting part (151, 151c, 191, 192, 351) that applies the amplified oscillations to the pair of separators so as to bond the separators to each other; and separator conveyance units (120, 130) that convey the pair of separators to a bonding position where the abutting part (151, 151c, 191, 192, 351) bonds the pair of separators to each other, wherein the transmission unit, the amplifier unit, and the abutting part (151, 151c, 191, 192, 351) are laid out parallel to the direction in which the separators are conveyed. a transmission unit for generating ultrasonic oscillations; an amplifier unit for amplifying the generated oscillations; an abutting part (151, 151c, 191, 192, 351) that applies the amplified oscillations to the pair of separators so as to bond the separators to each other; and separator conveyance units (120, 130) that convey the pair of separators to a bonding position where the abutting part (151, 151c, 191, 192, 351) bonds the pair of separators to each other, wherein the transmission unit, the amplifier unit, and the abutting part (151, 151c, 191, 192, 351) are laid out parallel to the direction in which the separators are conveyed.
A process for catalytic cracking of a pyrolysis oil derived from material comprising biomass, comprising the steps of a) subjecting a feed comprising the pyrolysis oil to a hydrodeoxygenation step to prepare an at least partially deoxygenated pyrolysis oil; b) heating a hydrocarbon feed to a temperature in the range from equal to or more than 50°C to equal to or less than 200°C to prepare a preheated hydrocarbon feed; c) mixing the at least partially deoxygenated pyrolysis oil and the preheated hydrocarbon feed to prepare a feed mixture; d) optionally atomizing the feed mixture to prepare an atomized feed mixture; e) contacting the, optionally atomized, feed mixture with a catalytic cracking catalyst in a catalytic cracking reactor at a temperature of at least 400°C to prepare a product stream containing one or more cracked products. a) subjecting a feed comprising the pyrolysis oil to a hydrodeoxygenation step to prepare an at least partially deoxygenated pyrolysis oil; b) heating a hydrocarbon feed to a temperature in the range from equal to or more than 50°C to equal to or less than 200°C to prepare a preheated hydrocarbon feed; c) mixing the at least partially deoxygenated pyrolysis oil and the preheated hydrocarbon feed to prepare a feed mixture; d) optionally atomizing the feed mixture to prepare an atomized feed mixture; e) contacting the, optionally atomized, feed mixture with a catalytic cracking catalyst in a catalytic cracking reactor at a temperature of at least 400°C to prepare a product stream containing one or more cracked products.
A testing device for testing an overcurrent protector having first and second terminals and being configured to interrupt a current between the first and second terminals when the current exceeds an overcurrent threshold, the device comprising: a first switch switchable to a test position for connecting the first terminal to a first capacitor; a second switch switchable to a test position for connecting the second terminal to a second capacitor; capacitor; a pre-charging circuit (19, 20, 21, 22) for charging the first capacitor to a first voltage and the second capacitor to a second voltage, wherein the second voltage is lower than the first; and a controller for switching the first and second switches to their test positions for establishing a current path from the first capacitor to the second capacitor through the overcurrent protector, wherein the first and second voltages are configured to generate a peak current in the current path greater than the overcurrent threshold. a first switch switchable to a test position for connecting the first terminal to a first capacitor; a second switch switchable to a test position for connecting the second terminal to a second capacitor; capacitor; a pre-charging circuit (19, 20, 21, 22) for charging the first capacitor to a first voltage and the second capacitor to a second voltage, wherein the second voltage is lower than the first; and a controller for switching the first and second switches to their test positions for establishing a current path from the first capacitor to the second capacitor through the overcurrent protector, wherein the first and second voltages are configured to generate a peak current in the current path greater than the overcurrent threshold.
A latch release device for a vehicle door, comprising an electric actuator that can exert power for latch release for releasing a latched state of a door (DA, DB), a latch mechanism (22A, 22B) that releases the latched state of the door (DA, DB) in response to actuation of the electric actuator or input of a mechanical latch release operating force, and an operating member for latch release that enables normal operation by a vehicle user so as to actuate the electric actuator and emergency operation by a vehicle user so as to input a mechanical latch release operating force into the latch mechanism (22A, 22B), wherein the latch release device comprises an operating member for restriction release that a vehicle user can operate, and emergency operation restriction means that restricts emergency operation of the operating member for latch release when the operating member for restriction release is in a non-operated state but allows emergency operation of the operating member for latch release in response to operation of the operating member for restriction release, characterized in that the operation member for latch release and the emergency operation restriction means are arranged in a grip portion of an inside handle that is provided for a vehicle user to carry out an open/close operation of the door (DA, DB) on a vehicle compartment side, such that the operation member for latch release is arranged at an upper portion of the grip portion and the operating member for restriction release is arranged at a lower portion of the grip portion, in that the operation member for latch release is a push button, and the push button is disposed in, and projects upwardly from, a button insertion hole formed on a front upper face of the grip portion, and in that an opening is provided in a lower part of the grip portion, and part of the operating member for restriction release in a non-operated state projects from the opening beneath the grip portion.
A base for supporting a generator, the base comprising: a support surface; one or more recesses defined in the support surface; one or more mounting members for securing to the generator, each mounting member being secured to the support surface and located at least partially over a respective recess, each mounting member including: a plate configured to be fixed to the support surface and including a plurality of apertures; and a mount configured for supporting the generator and fixed to the plate by a second set of fastening members passing through the apertures, the mount being configured to be attached to any of the apertures and thereby enabling the mount to be positioned at different locations on the plate; and wherein each recess and its corresponding mounting member are sized and positioned to define an opening into the recess for accessing an underside of the mounting member. a support surface; one or more recesses defined in the support surface; one or more mounting members for securing to the generator, each mounting member being secured to the support surface and located at least partially over a respective recess, each mounting member including: a plate configured to be fixed to the support surface and including a plurality of apertures; and a mount configured for supporting the generator and fixed to the plate by a second set of fastening members passing through the apertures, the mount being configured to be attached to any of the apertures and thereby enabling the mount to be positioned at different locations on the plate; and a plate configured to be fixed to the support surface and including a plurality of apertures; and a mount configured for supporting the generator and fixed to the plate by a second set of fastening members passing through the apertures, the mount being configured to be attached to any of the apertures and thereby enabling the mount to be positioned at different locations on the plate; and wherein each recess and its corresponding mounting member are sized and positioned to define an opening into the recess for accessing an underside of the mounting member.
An ink set, comprising: a pre-treatment fixing fluid including at least two metal salts; and a fixable, ultraviolet curable ink including: an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; wherein a water soluble or water dispersible photoinitiator is present in the pre-treatment fixing fluid or in the fixable, UV curable ink. a pre-treatment fixing fluid including at least two metal salts; and a fixable, ultraviolet curable ink including: an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; an aqueous ink vehicle; a pigment dispersed in the aqueous ink vehicle; a dispersant; and a polyurethane polymer dispersion suspended as droplets within the aqueous ink vehicle, the polyurethane polymer dispersion including a polyurethane polymer selected from the group consisting of a polyether-based polyurethane, a polyester-based polyurethane, a polycarbonate-based polyurethane, and mixtures thereof, and the polyurethane polymer having i) an acid number ranging from 0 mg/g to less than 20 mg/g and ii) a glass transition temperature of less than 0°C; wherein a water soluble or water dispersible photoinitiator is present in the pre-treatment fixing fluid or in the fixable, UV curable ink.
A wave solder nozzle assembly for a wave soldering station configured to perform a wave soldering operation on a printed circuit board, the wave solder nozzle assembly comprising: a nozzle core frame; an exit wing coupled to the nozzle core frame, the exit wing being rotatable about a hinge with respect to the nozzle core frame to adjust a flow of a solder wave; and a linear actuator connected to the exit wing and configured to adjust an orientation of the exit wing with respect to the nozzle core frame; wherein the linear actuator is connected to the exit wing by a linkage; wherein the exit wing includes a first end coupled by the hinge to the nozzle core frame and a second end, and wherein the linkage includes at least one rotating link having a first end rotatably coupled to the second end of the exit wing and a second end that is rotatably coupled to an actuator arm of the actuator; wherein the linkage further includes a cross bar extending perpendicularly to and being rotatably coupled to the at least one rotating link, and at least one connecting link coupling the cross bar to the actuator arm and extending perpendicularly to cross bar; wherein the at least one connecting link is connected to the actuator arm by an actuator block. a nozzle core frame; an exit wing coupled to the nozzle core frame, the exit wing being rotatable about a hinge with respect to the nozzle core frame to adjust a flow of a solder wave; and a linear actuator connected to the exit wing and configured to adjust an orientation of the exit wing with respect to the nozzle core frame; wherein the linear actuator is connected to the exit wing by a linkage; wherein the exit wing includes a first end coupled by the hinge to the nozzle core frame and a second end, and wherein the linkage includes at least one rotating link having a first end rotatably coupled to the second end of the exit wing and a second end that is rotatably coupled to an actuator arm of the actuator; wherein the linkage further includes a cross bar extending perpendicularly to and being rotatably coupled to the at least one rotating link, and at least one connecting link coupling the cross bar to the actuator arm and extending perpendicularly to cross bar; wherein the at least one connecting link is connected to the actuator arm by an actuator block.