mhurhangee/ep-ind-claims huggingface dataset:
A sensor kit comprising: (i) a sensor for detecting an analyte, said sensor having a sensing region comprising a receptor for said analyte; (ii) a sensor housing containing said sensor, at least a part of said sensor housing being penetrable by water or aqueous solutions; and (iii) a calibration chamber, said calibration chamber comprising at least a first and a second compartment, wherein either the sensing region of the sensor is located within the first compartment, or the first compartment is configured to allow the sensing region of the sensor to be exposed to the first compartment, the first compartment containing a first calibration solution comprising water or an aqueous solution and the second compartment containing a source of said analyte in solid form, said first and second compartments being separated by a water-impermeable dividing material which comprises a breakable or removable section adapted to be broken or removed causing mixing of the contents of the first and second compartments. (i) a sensor for detecting an analyte, said sensor having a sensing region comprising a receptor for said analyte; (ii) a sensor housing containing said sensor, at least a part of said sensor housing being penetrable by water or aqueous solutions; and (iii) a calibration chamber, said calibration chamber comprising at least a first and a second compartment, wherein either the sensing region of the sensor is located within the first compartment, or the first compartment is configured to allow the sensing region of the sensor to be exposed to the first compartment, the first compartment containing a first calibration solution comprising water or an aqueous solution and the second compartment containing a source of said analyte in solid form, said first and second compartments being separated by a water-impermeable dividing material which comprises a breakable or removable section adapted to be broken or removed causing mixing of the contents of the first and second compartments.
Machine tool comprising - a stationary machine frame, - a machining head, which can be positioned relative to the machine frame along three translation axes (x, y, z) oriented orthogonally in relation to one another and comprises a motor-driven tool (2.1), and - a pivot unit, which is pivotable about a horizontal pivot axis relative to the machine frame and comprises a workpiece positioning unit, via which a workpiece is rotatable about a rotational axis oriented perpendicularly to the pivot axis, characterized in that a measuring frame is associated with the pivot unit, which is designed as pivotable with the pivot unit and thermally and/or mechanically decoupled from the pivot unit and on which components of a first and second position measuring system are arranged, - wherein further components of the first position measuring system are arranged on the machining head and further components of the second position measuring system are arranged on the workpiece positioning unit and - wherein a determination of the spatial position of the machining head in relation to the measuring frame takes place via the first position measuring system and - wherein a determination of the spatial position of the workpiece positioning unit in relation to the measuring frame takes place via the second position measuring system. - a stationary machine frame, - a machining head, which can be positioned relative to the machine frame along three translation axes (x, y, z) oriented orthogonally in relation to one another and comprises a motor-driven tool (2.1), and - a pivot unit, which is pivotable about a horizontal pivot axis relative to the machine frame and comprises a workpiece positioning unit, via which a workpiece is rotatable about a rotational axis oriented perpendicularly to the pivot axis, characterized in that a measuring frame is associated with the pivot unit, which is designed as pivotable with the pivot unit and thermally and/or mechanically decoupled from the pivot unit and on which components of a first and second position measuring system are arranged, - wherein further components of the first position measuring system are arranged on the machining head and further components of the second position measuring system are arranged on the workpiece positioning unit and - wherein a determination of the spatial position of the machining head in relation to the measuring frame takes place via the first position measuring system and - wherein a determination of the spatial position of the workpiece positioning unit in relation to the measuring frame takes place via the second position measuring system.
An apparatus for determining a level of a fluid within a vessel, the apparatus comprising: a source unit (12, 12') for emitting a beam of radiation into the interior of the vessel, the source unit comprising a source of gamma radiation and a collimator (16, 16') for collimating radiation emitted by the source to provide said beam, wherein said source unit (12, 12') is adjustable to vary an angle (θ) of the beam with respect to horizontal by rotating the collimator (16, 16') about the source to vary an angle (θ) of the beam; at least one detector for detecting radiation emitted by the source and having passed through at least a portion of the interior of the vessel; and processing means for: recording data corresponding to an amount of radiation detected at said at least one detector as a function of angle of the beam; and determining the level of the fluid, based on a variation of said data with the angle of the beam. a source unit (12, 12') for emitting a beam of radiation into the interior of the vessel, the source unit comprising a source of gamma radiation and a collimator (16, 16') for collimating radiation emitted by the source to provide said beam, wherein said source unit (12, 12') is adjustable to vary an angle (θ) of the beam with respect to horizontal by rotating the collimator (16, 16') about the source to vary an angle (θ) of the beam; at least one detector for detecting radiation emitted by the source and having passed through at least a portion of the interior of the vessel; and processing means for: recording data corresponding to an amount of radiation detected at said at least one detector as a function of angle of the beam; and determining the level of the fluid, based on a variation of said data with the angle of the beam. recording data corresponding to an amount of radiation detected at said at least one detector as a function of angle of the beam; and determining the level of the fluid, based on a variation of said data with the angle of the beam.
An apparatus for protecting a MOSFET relay connected to a resistor, the apparatus comprising: a voltage detector configured to calculate a voltage value of current flowing through the resistor and determine whether the voltage value is more than a threshold; and a disconnection unit configured to disconnect a fuse on a circuit according to a determination result of the voltage detector, wherein the MOSFET relay is connected to the fuse so that the resistor is positioned between the MOSFET relay and the fuse, wherein as a result of the fuse being disconnected, the current flowing into the MOSFET relay is blocked, wherein the voltage detector includes an operational amplifier configured to amplify the voltage value and output an amplified voltage value, and a comparator configured to determine whether the amplified voltage value is more than a predetermined threshold amplified voltage value, wherein the disconnection unit includes a controller configured to receive a heating control signal from the voltage detector, and a heating element connected with the fuse and configured to generate heat by a heating signal applied from the controller, and as a result of the heating element generating the heat, the fuse is disconnected, wherein according to the determination result of the comparator, when the amplified voltage value is more than the threshold amplified voltage value, the voltage detector applies the heating control signal to the controller and the controller is configured to heat the heating element by the heating control signal. a voltage detector configured to calculate a voltage value of current flowing through the resistor and determine whether the voltage value is more than a threshold; and a disconnection unit configured to disconnect a fuse on a circuit according to a determination result of the voltage detector, wherein the MOSFET relay is connected to the fuse so that the resistor is positioned between the MOSFET relay and the fuse, wherein as a result of the fuse being disconnected, the current flowing into the MOSFET relay is blocked, wherein the voltage detector includes an operational amplifier configured to amplify the voltage value and output an amplified voltage value, and a comparator configured to determine whether the amplified voltage value is more than a predetermined threshold amplified voltage value, wherein the disconnection unit includes a controller configured to receive a heating control signal from the voltage detector, and a heating element connected with the fuse and configured to generate heat by a heating signal applied from the controller, and as a result of the heating element generating the heat, the fuse is disconnected, wherein according to the determination result of the comparator, when the amplified voltage value is more than the threshold amplified voltage value, the voltage detector applies the heating control signal to the controller and the controller is configured to heat the heating element by the heating control signal.
A vessel processing method for processing a molded plastic vessel having an opening and a wall defining an interior surface, the method comprising: inspecting the interior surface of the vessel as molded for defects; applying a coating to the interior surface of the vessel after inspecting the vessel as molded; and inspecting the interior surface of the vessel and/or the coating for defects after applying the coating. inspecting the interior surface of the vessel as molded for defects; applying a coating to the interior surface of the vessel after inspecting the vessel as molded; and inspecting the interior surface of the vessel and/or the coating for defects after applying the coating.
An assembled bamboo sleeper for ballasted tracks of railways and urban rail transit systems, wherein the bamboo sleeper is obtained by using a bamboo unit as a raw material, drying and modifying at the temperature of 110-180°C, undergoing coating treatment using a dopamine solution, adhesive dipping, curing and solidifying, assembling and gluing, further solidifying, further treatment using the dopamine solution, and anti-mildew and/or anti-corrosion and/or anti-insect treatment, and then fastening.
A friction stir spot welding method that is a refill friction stir spot welding method of joining a first workpiece and a second workpiece together by friction stir spot welding by using a rotary tool that includes a cylindrical shoulder and a columnar pin movable within the shoulder, the first workpiece and the second workpiece being such that a protective layer is formed on a joint surface of at least one of the first workpiece and the second workpiece, the friction stir spot welding method comprising: performing a plunging process of moving the shoulder toward the second workpiece from the first workpiece side while rotating the rotary tool to plunge the shoulder into the first and second workpieces (101, 102), such that a material of the first workpiece and a material of the second workpiece are partly stirred to form a stirred portion, and concurrently, a component of the protective layer flows into an inside of the shoulder together with other stirred materials; and performing a backfilling process of pushing the stirred materials that have flowed into the inside of the shoulder in the plunging process out of the shoulder by the pin while rotating the rotary tool, and concurrently, moving the shoulder backward to backfill a plunging hole with the stirred materials, the plunging hole being formed by the plunging of the shoulder, characterized in that in the plunging process, the shoulder is plunged to a position that is shifted from a boundary between the first workpiece and the second workpiece to the second workpiece side by 1 mm or more, such that the component of the protective layer is concentrated in a central portion of the stirred portion when the backfilling process is completed. performing a plunging process of moving the shoulder toward the second workpiece from the first workpiece side while rotating the rotary tool to plunge the shoulder into the first and second workpieces (101, 102), such that a material of the first workpiece and a material of the second workpiece are partly stirred to form a stirred portion, and concurrently, a component of the protective layer flows into an inside of the shoulder together with other stirred materials; and performing a backfilling process of pushing the stirred materials that have flowed into the inside of the shoulder in the plunging process out of the shoulder by the pin while rotating the rotary tool, and concurrently, moving the shoulder backward to backfill a plunging hole with the stirred materials, the plunging hole being formed by the plunging of the shoulder, characterized in that in the plunging process, the shoulder is plunged to a position that is shifted from a boundary between the first workpiece and the second workpiece to the second workpiece side by 1 mm or more, such that the component of the protective layer is concentrated in a central portion of the stirred portion when the backfilling process is completed.
A method for manufacturing a ceramic member comprising: a step of forming a stacked compact from a plurality of metallic paste layers containing a metal component M 1 that are stacked one on another via ceramic green sheets; and a step of firing the stacked compact, wherein, a mass percentage X being a proportion of the metal component M 1 to the total metal content in the metallic paste layer, at least one of said plurality of metallic paste layers is formed as a second metallic paste layer that has the mass percentage X higher than that of a first metallic paste layer which is the metallic paste layer that adjoins the second metallic paste layer in the stacking direction, and the second metallic paste layer contains a ceramic powder in the step of forming the stacked compact. a step of forming a stacked compact from a plurality of metallic paste layers containing a metal component M 1 that are stacked one on another via ceramic green sheets; and a step of firing the stacked compact,
A measuring instrument comprising a display on which measurements are displayed, wherein the measuring instrument comprises a cylindrical body, a spindle provided in a manner capable of a displacement in an axial direction of the body and a display controller for displaying the displacement of the spindle on the display, wherein the display is provided by an organic electroluminescent display device comprising an assembly of organic electroluminescence devices or an electronic paper, the display is a dot-matrix type in which display elements are arranged in a matrix, the display is provided with a scale-segment image display area that displays a plurality of scale-segment images arranged in a circle and a reversed image display area that reversely displays the scale segment image corresponding to an angular area in accordance with the measurements, and the measuring instrument is provided with a scale-interval switch that switches an interval between the scale segment images in accordance with a display resolution; wherein a display surface of the display is curved; and wherein the display is provided on a circumference of the body along the axial direction.
A method for communicating using dynamic uplink and downlink transmission time interval, TTI, switching in a wireless network, comprising: receiving, in a TTI configured for downlink communications, an uplink resource grant from a network entity; determining, based at least in part on receiving the uplink resource grant, switching of a configurable TTI from downlink communications to uplink communications, wherein the configurable TTI is subsequent in time to the TTI during which the uplink resource grant is received, and wherein the configurable TTI is one of a plurality of TTIs in a frame structure that allows dynamic switching of configurable TTIs between downlink and uplink communications within a frame; transmitting, based at least in part on receiving the uplink resource grant, uplink communications to the network entity during the configurable TTI; monitoring for signals from the network entity in multiple configurable TTIs subsequent to the configurable TTI over which the uplink communications are transmitted, wherein at least a first one of the multiple configurable TTIs is configured for uplink communications; and determining switching of at least a second one of the multiple configurable TTIs back to being configured for downlink communications based at least in part on at least one of detecting a downlink reference signal in the second one of the multiple configurable TTIs or decoding a downlink control channel in the second one of the multiple configurable TTIs based at least in part on detecting the downlink reference signal. receiving, in a TTI configured for downlink communications, an uplink resource grant from a network entity; determining, based at least in part on receiving the uplink resource grant, switching of a configurable TTI from downlink communications to uplink communications, wherein the configurable TTI is subsequent in time to the TTI during which the uplink resource grant is received, and wherein the configurable TTI is one of a plurality of TTIs in a frame structure that allows dynamic switching of configurable TTIs between downlink and uplink communications within a frame; transmitting, based at least in part on receiving the uplink resource grant, uplink communications to the network entity during the configurable TTI; monitoring for signals from the network entity in multiple configurable TTIs subsequent to the configurable TTI over which the uplink communications are transmitted, wherein at least a first one of the multiple configurable TTIs is configured for uplink communications; and determining switching of at least a second one of the multiple configurable TTIs back to being configured for downlink communications based at least in part on at least one of detecting a downlink reference signal in the second one of the multiple configurable TTIs or decoding a downlink control channel in the second one of the multiple configurable TTIs based at least in part on detecting the downlink reference signal.
Fastener for securing a pipe of an under-floor heating system on a laminated thermal insulation, said fastener having two legs which can be inserted in the thermal insulation on either side of the pipe and which are connected by an arch which straddles the pipe in the installed condition, wherein the legs have barbs on their front and rear sides, characterised in that at least one barb is arranged on the inner side (2.1) of the legs and is so designed that it presses the leg outwards by a wedging action on penetrating into the thermal insulation.
A dark bluish ceramics, comprising: zirconia containing stabilizing agent as a main component; aluminum oxide; cobalt oxide; and any one selected from a group consisting of chromium oxide, nickel oxide and iron oxide, wherein a content of the aluminum oxide is not less than 1% by mass nor more than 30% by mass, a content of the cobalt oxide is not less than 0.5% by mass nor more than 5% by mass, a content of any one selected from a group consisting of chromium oxide, nickel oxide and iron oxide is not less than 0.1% by mass nor more than 1% by mass, and the cobalt oxide consists of CoO and Co 3 O 4. zirconia containing stabilizing agent as a main component; aluminum oxide; cobalt oxide; and any one selected from a group consisting of chromium oxide, nickel oxide and iron oxide, wherein a content of the aluminum oxide is not less than 1% by mass nor more than 30% by mass, a content of the cobalt oxide is not less than 0.5% by mass nor more than 5% by mass, a content of any one selected from a group consisting of chromium oxide, nickel oxide and iron oxide is not less than 0.1% by mass nor more than 1% by mass, and the cobalt oxide consists of CoO and Co 3 O 4.
A carton for packaging one of more articles, the carton comprising a plurality of walls including a top wall, a first side wall, a second side wall, a first end wall, a second end wall and a bottom wall, the carton further comprising a handle structure defined at least in part in an outer panel of the top wall and at least in part in an inner panel of the top wall, the outer panel being disposed in at least partially overlapping relationship with the inner panel to form the top wall, the outer panel comprising an outer handle strap, the inner panel comprising an inner handle strap, the outer handle strap being secured to the inner handle strap, the handle structure comprising a central portion defined by the outer handle strap, the carton further comprising an access device formed at least in part from the top wall, characterised in that the outer handle strap has first and second opposed ends and is continuously formed with the outer panel at the first end and severably attached by a frangible connection to the outer panel at the second end, the access device being disposed adjacent to the first end of the outer handle strap, in that the inner handle strap comprises a first end disposed in the inner panel and continuously formed with the inner panel, the inner handle strap comprising a second end disposed in a third panel of another one of the plurality of walls, and in that the central portion is displaceable out of the plane of the top wall upon severance of the frangible connection.
A system for shredding, comprising: a processing chamber comprised of a bottom and at least one side, said processing chamber further comprising an input opening adapted to receive material to be shredded and a side discharge opening located in said at least one side that is adapted to output shredded material; a first tapered auger positioned in said processing chamber such that an axis of said first tapered auger is aligned with said side discharge opening; and a second tapered auger positioned in said processing chamber, said second tapered auger opposing said first tapered auger such that said material is adapted to be shredded between said first tapered auger and said second tapered auger; wherein said first tapered auger is adapted to urge said shredded material forward through said side discharge opening. a processing chamber comprised of a bottom and at least one side, said processing chamber further comprising an input opening adapted to receive material to be shredded and a side discharge opening located in said at least one side that is adapted to output shredded material; a first tapered auger positioned in said processing chamber such that an axis of said first tapered auger is aligned with said side discharge opening; and a second tapered auger positioned in said processing chamber, said second tapered auger opposing said first tapered auger such that said material is adapted to be shredded between said first tapered auger and said second tapered auger; wherein said first tapered auger is adapted to urge said shredded material forward through said side discharge opening.