mhurhangee/ep-ind-claims huggingface dataset:
A setter for ceramic firing, wherein the setter is composed of a boron nitride sintered plate having a plurality of pores, a porosity is 8 vol% or higher, which is measured according to JIS R 1655:2003, and a proportion of pores having a pore diameter of 0.2 to 0.9 μm is 76% to 95% of all pores, the pore diameter being measured with a mercury porosimeter. wherein the setter is composed of a boron nitride sintered plate having a plurality of pores, a porosity is 8 vol% or higher, which is measured according to JIS R 1655:2003, and a proportion of pores having a pore diameter of 0.2 to 0.9 μm is 76% to 95% of all pores, the pore diameter being measured with a mercury porosimeter.
A use of a ready to use, pasty or liquid levelling compound that allows to or is constructed/set up to coat a subfloor as basis for a floor covering on its upper surface, said floor levelling compound comprising a combination of an aqueous polymer dispersion, a water glass, a filler with gaseous inclusions, a spreading composition and optionally other additives, wherein the aqueous polymer dispersion is present in an amount of 0.1 to 30 percent by weight (W-%), calculated as dry polymer; the water glass is present in an amount of from 1 to 40 W-%; the filler with gaseous inclusions is present in an amount ranging from 0.5 to 10 W-%; and the spreading composition is present in an amount ranging from 0.01 to 5 W-%, as a levelling coating on a subfloor or as a finishing coating for floors.
Methyl ethyl hydroxyalkyl cellulose with a DSmethyl from 1.5 to 2.5, a DSethyl from 0.005 to 0.15, and a MSalkylene-oxide from 0.005 to 0.2, optionally comprising an anti-oxidant, whereby the methyl ethyl hydroxyalkyl cellulose does not have a combination of a DSmethyl of 2.2 or 1.8, a DSethyl of 0.05 or 0.1, and a MSalkylene-oxide of 0.1 and does not have a combination of a DSmethyl of 2.5 or 2.0, a DSethyl of 0.1, and a MSalkylene-oxide of 0.05.
A method of prepping a surface for subsequent application of a coating to the surface, the method comprising: ultrasonically modulating a fluid stream to generate a pulsed fluid jet using a nozzle that includes an ultrasonic transducer having a microtip that oscillates in response to an ultrasonic drive signal, the nozzle comprising a detachable body connected to a downstream portion of the nozzle, the detachable body including a mixing chamber and a particle inlet; entraining coating particles into the fluid stream by injecting the coating particles through the particle inlet into the mixing chamber, wherein the particle inlet is disposed downstream of the microtip; metering the coating particles using a particle metering system having a flow valve controlled by a microprocessor; blasting the surface by directing the pulsed fluid jet and entrained coating particles through the exit orifice of the tube at the surface to be prepped, wherein the coating particles act as blasting particles for prepping the surface to a desired surface roughness; recovering non-adhered coating particles that do not adhere to the surface when prepping the surface; filtering the non-adhered coating particles to obtain reduced-size coating particles; and after surface prepping is complete, coating the surface with the reduced-size coating particles having the same composition as the coating particles used to prep the surface. ultrasonically modulating a fluid stream to generate a pulsed fluid jet using a nozzle that includes an ultrasonic transducer having a microtip that oscillates in response to an ultrasonic drive signal, the nozzle comprising a detachable body connected to a downstream portion of the nozzle, the detachable body including a mixing chamber and a particle inlet; entraining coating particles into the fluid stream by injecting the coating particles through the particle inlet into the mixing chamber, wherein the particle inlet is disposed downstream of the microtip; metering the coating particles using a particle metering system having a flow valve controlled by a microprocessor; blasting the surface by directing the pulsed fluid jet and entrained coating particles through the exit orifice of the tube at the surface to be prepped, wherein the coating particles act as blasting particles for prepping the surface to a desired surface roughness; recovering non-adhered coating particles that do not adhere to the surface when prepping the surface; filtering the non-adhered coating particles to obtain reduced-size coating particles; and after surface prepping is complete, coating the surface with the reduced-size coating particles having the same composition as the coating particles used to prep the surface.
Process for the preparation of a composition comprising Al-, Ce- and Zr-oxides, which process comprises the steps of (a) preparing an aqueous solution of a mixture of metal salts of cerium, zirconium and aluminium, which aqueous solution comprises one or more salts of Rare Earth Metals other than cerium, (b) adding to the solution obtained in step (a) a base, in the presence of H 2 O 2, at temperatures from 0°C to 95°C and precipitating obtained mixed metal salts in the form of hydroxides or oxy-hydroxides, (c) optionally isolating the precipitate obtained in step (b), (d) treating the aqueous suspension obtained in step (b), or the isolated precipitate obtained in step (c) with a surfactant, and (e) isolating the precipitate obtained in step (d) and treating said precipitate at a temperature from 450°C to 1200°C, characterized in that the aluminium content, calculated as aluminium oxide obtained is in the range from 45 to 55% by weight of the composition, and the surface area of the composition obtained, measured according to DIN (Deutsche Industrie Norm) 66131 after calcining for 2 hours at 1100°C is from 55 to 80 m 2 /g, and the surfactant is selected from nonionic surfactants comprising ethylene oxide / propylene oxide units, ethyl phenol ethoxylates, ethylene oxide / propylene oxide copolymers, or lauric acid. (a) preparing an aqueous solution of a mixture of metal salts of cerium, zirconium and aluminium, which aqueous solution comprises one or more salts of Rare Earth Metals other than cerium, (b) adding to the solution obtained in step (a) a base, in the presence of H 2 O 2, at temperatures from 0°C to 95°C and precipitating obtained mixed metal salts in the form of hydroxides or oxy-hydroxides, (c) optionally isolating the precipitate obtained in step (b), (d) treating the aqueous suspension obtained in step (b), or the isolated precipitate obtained in step (c) with a surfactant, and (e) isolating the precipitate obtained in step (d) and treating said precipitate at a temperature from 450°C to 1200°C, characterized in that
A method performed by a system for mapping multimedia broadcast multicast services, comprising: mapping a plurality of multicast transport channels, MCHs, to a plurality of multicast/broadcast single frequency networks, MBSFNs, (420, 430, 440) such that any one of the MBSFNs (420, 430, 440) has only one MCH and further where each one of the MCHs is different, wherein a multicast control channel, MCCH, of a multimedia broadcast multicast service, MBMS, transmission includes master control information containing information related to service control information, and the service control information containing information related to receiving at least one of a plurality of multicast traffic channels, MTCHs,, wherein, when the service control information and at least one of the MTCHs are transmitted in the same one of the MBSFNs, (420, 430, 440) the service control information and the at least one of the MTCHs are mapped to the same MCH, wherein, when information in the master control information is specific to a single cell, the master control information is mapped to a transport channel which is specific to that cell, and which is different from the MCH to which the service control information is mapped, wherein the transport channel is either a cell-specific MCH or a downlink shared channel, DL-SCH, and wherein information or pointer to the location of the information that would otherwise be carried in the master control information is carried in a broadcast control channel, BCCH. wherein a multicast control channel, MCCH, of a multimedia broadcast multicast service, MBMS, transmission includes master control information containing information related to service control information, and the service control information containing information related to receiving at least one of a plurality of multicast traffic channels, MTCHs,, wherein, when the service control information and at least one of the MTCHs are transmitted in the same one of the MBSFNs, (420, 430, 440) the service control information and the at least one of the MTCHs are mapped to the same MCH, wherein, when information in the master control information is specific to a single cell, the master control information is mapped to a transport channel which is specific to that cell, and which is different from the MCH to which the service control information is mapped, wherein the transport channel is either a cell-specific MCH or a downlink shared channel, DL-SCH, and wherein information or pointer to the location of the information that would otherwise be carried in the master control information is carried in a broadcast control channel, BCCH.
Sorting table for separating fruits from foreign bodies, comprising: - a frame with a longitudinal axis (L-L) according to the traveling direction of the fruits; - a set of rollers revolvingly mounted in the frame; each roller comprising a shaft with ends and an axis orthogonal to the longitudinal axis of the frame; each roller comprising couplings shaped in such manner to define gaps to let waste or fruits pass; said set of rollers comprising a first roller and a last roller, said rollers being slidingly mounted in longitudinal direction in said frame, except for said last roller; - actuation means and transmission means intended to drive said rollers into rotation around their axis, in such manner to make the fruits travel forward on said rollers; - adjustment means intended to adjust the distance between the axes of the rollers; said adjustment means comprising a kinematic mechanism that connects said shafts of the rollers, said kinematic mechanism comprising two levers (90a, 90b) hinged at each end of each shaft, wherein the ends of each lever (90a, 90b) of a shaft are hinged to the ends of the levers (90a, 90b) of adjacent shafts; said adjustment means comprising a linear actuator connected to said first roller of said set of rollers to move said first roller in such manner to make said rollers translate with respect to the last roller which is fixed in translation; characterized in that it comprises at least one cam comprising a metal plate hinged in a pin in coaxial position to the last roller of said set of rollers; said cam having slots in oblique position with respect to a horizontal axis, slidingly housing pins applied to the ends of the shafts of some of said rollers; said slots having a decreasing length going from the first roller towards the last roller. - a frame with a longitudinal axis (L-L) according to the traveling direction of the fruits; - a set of rollers revolvingly mounted in the frame; each roller comprising a shaft with ends and an axis orthogonal to the longitudinal axis of the frame; each roller comprising couplings shaped in such manner to define gaps to let waste or fruits pass; said set of rollers comprising a first roller and a last roller, said rollers being slidingly mounted in longitudinal direction in said frame, except for said last roller; - actuation means and transmission means intended to drive said rollers into rotation around their axis, in such manner to make the fruits travel forward on said rollers; - adjustment means intended to adjust the distance between the axes of the rollers; said adjustment means comprising a kinematic mechanism that connects said shafts of the rollers, said kinematic mechanism comprising two levers (90a, 90b) hinged at each end of each shaft, wherein the ends of each lever (90a, 90b) of a shaft are hinged to the ends of the levers (90a, 90b) of adjacent shafts; said adjustment means comprising a linear actuator connected to said first roller of said set of rollers to move said first roller in such manner to make said rollers translate with respect to the last roller which is fixed in translation;
A base station for configuring a mobile terminal with CQI, comprising: a configuring unit configured to configure a first CQI index table and a second CQI index table, wherein the first CQI index table includes CQI indices corresponding to all modulation schemes supported by the second CQI index table and a CQI index corresponding to a modulation scheme of higher order that is not supported by the second CQI index table, and the first CQI index table and the second CQI index table have the same number of CQI indices; the configuring unit being further configured to determine whether to use the first CQI index table; and a transmitter configured to transmit CQI index table indication information to the mobile terminal, wherein transmitting the CQI index table indication information indicates to the mobile terminal to use the first CQI index table for CQI index selection on receiving the CQI index table indication information, and when no CQI index table indication information is transmitted, the mobile terminal is indicated to use the second CQI index table for CQI index selection. a configuring unit configured to configure a first CQI index table and a second CQI index table, wherein the first CQI index table includes CQI indices corresponding to all modulation schemes supported by the second CQI index table and a CQI index corresponding to a modulation scheme of higher order that is not supported by the second CQI index table, and the first CQI index table and the second CQI index table have the same number of CQI indices; the configuring unit being further configured to determine whether to use the first CQI index table; and a transmitter configured to transmit CQI index table indication information to the mobile terminal, wherein transmitting the CQI index table indication information indicates to the mobile terminal to use the first CQI index table for CQI index selection on receiving the CQI index table indication information, and when no CQI index table indication information is transmitted, the mobile terminal is indicated to use the second CQI index table for CQI index selection.
Steam boiler for a household appliance, which can be filled, having an interior enclosed by boundary walls (22, 24, 26, 28, 30), wherein an inlet for a liquid is provided in at least one boundary wall, characterised in that the inlet is arranged in respect of a sensor for detecting a fill level in the steam boiler so that a liquid jet entering the steam boiler from the inlet firstly strikes a coupling region of the sensor with the steam boiler, if the inlet releases liquid into the interior of the steam boiler, before the liquid collects in the steam boiler, wherein the inlet with its opening is directed toward the coupling region and the sensor is arranged at a height which corresponds to the nominal height of the liquid level in the steam boiler.
A method for use by a processor, the method comprising evaluating individual grasp patterns of a grasp pattern set for use by a robot by: selecting an individual grasp pattern from the grasp pattern set, wherein each individual grasp pattern of the grasp pattern set corresponds to a motion of a manipulator (110,120) and an end effector (118,128) of the robot for manipulating a target object; establishing a thumb-up vector extending from a top surface of the end effector; simulating the motion of the manipulator and the end effector according to the selected individual grasp pattern; evaluating a direction of the thumb-up vector during at least a portion of the simulated motion of the manipulator and the end effector; and excluding the selected individual grasp pattern from use by the robot if the direction of the thumb-up vector during the simulated motion is outside of one or more predetermined thresholds; the method further comprising: indicating the selected individual grasp pattern as a grasp pattern candidate if the direction of the thumb-up vector during the simulated motion is within the one or more predetermined thresholds; and providing a plurality of grasp pattern candidates to a motion planner module. selecting an individual grasp pattern from the grasp pattern set, wherein each individual grasp pattern of the grasp pattern set corresponds to a motion of a manipulator (110,120) and an end effector (118,128) of the robot for manipulating a target object; establishing a thumb-up vector extending from a top surface of the end effector; simulating the motion of the manipulator and the end effector according to the selected individual grasp pattern; evaluating a direction of the thumb-up vector during at least a portion of the simulated motion of the manipulator and the end effector; and excluding the selected individual grasp pattern from use by the robot if the direction of the thumb-up vector during the simulated motion is outside of one or more predetermined thresholds; the method further comprising: indicating the selected individual grasp pattern as a grasp pattern candidate if the direction of the thumb-up vector during the simulated motion is within the one or more predetermined thresholds; and providing a plurality of grasp pattern candidates to a motion planner module. indicating the selected individual grasp pattern as a grasp pattern candidate if the direction of the thumb-up vector during the simulated motion is within the one or more predetermined thresholds; and providing a plurality of grasp pattern candidates to a motion planner module.
A guide wire connector comprising: a connector housing having a distal end, a proximal end, and an internal passage therebetween; a nosepiece having an opening therein that communicates with the internal passage in the connector housing and has a thread to manipulate the connector housing for movement between a locked position and an unlocked position, wherein when the nosepiece is in the unlocked position a guide wire (222, 232, 242) is insertable into the connector, and when the nosepiece is in the locked position the inserted guide wire is securely engaged by the connector; a collet/bearing assembly disposed within the internal passage of the connector housing, proximal to the nosepiece, the collet/bearing assembly being configured to engage the guide wire, wherein the collet/bearing assembly is configured to permit rotation of the guide wire while the guide wire is coupled to the connector; a contact housing disposed within the internal passage of the connector housing, comprising one or more electrical contacts configured to communicate with one or more conductive bands (227, 237, 238) on the guide wire when the guide wire is inserted into the connector; and a retainer coupled to a nosepiece and to the connector housing, the retainer being configured to limit rotation of the nosepiece, wherein the nosepiece further comprises a stop tab that engages the retainer when in the locked position. a connector housing having a distal end, a proximal end, and an internal passage therebetween; a nosepiece having an opening therein that communicates with the internal passage in the connector housing and has a thread to manipulate the connector housing for movement between a locked position and an unlocked position, wherein when the nosepiece is in the unlocked position a guide wire (222, 232, 242) is insertable into the connector, and when the nosepiece is in the locked position the inserted guide wire is securely engaged by the connector; a collet/bearing assembly disposed within the internal passage of the connector housing, proximal to the nosepiece, the collet/bearing assembly being configured to engage the guide wire, wherein the collet/bearing assembly is configured to permit rotation of the guide wire while the guide wire is coupled to the connector; a contact housing disposed within the internal passage of the connector housing, comprising one or more electrical contacts configured to communicate with one or more conductive bands (227, 237, 238) on the guide wire when the guide wire is inserted into the connector; and a retainer coupled to a nosepiece and to the connector housing, the retainer being configured to limit rotation of the nosepiece, wherein the nosepiece further comprises a stop tab that engages the retainer when in the locked position.
A method of manufacturing adhered components, comprising: a first process of applying an adhesive (20, 20a, 20b) to a plurality of application areas (21a, 21b) on a surface of a first component, the application areas extending linearly and being spaced in a direction intersecting an extending direction in which the application areas extend linearly; a second process of placing a second component above the first component such that the adhesive (20, 20a, 20b) is sandwiched between the first component and the second component; and a third process of compressing the adhesive (20, 20a, 20b) by pressurizing the second component toward the first component with a pressurizer, wherein, in the third process, a load applied to the pressurizer changes such that the load goes through a curvilinear increase period and a rapid increase period in an order of description, the curvilinear increase period being a period in which the load increases in a curved line as an amount of compression of the adhesive (20, 20a, 20b) increases, the rapid increase period being a period in which the load increases in a polygonal line with respect to a trajectory of the load in the curvilinear increase period as the amount of compression of the adhesive increases, and wherein the third process includes performing pressurization by the pressurizer while detecting the load by a load sensor, detecting the rapid increase period based on a detection value of the load sensor, and stopping the pressurization by the pressurizer during the rapid increase period. a first process of applying an adhesive (20, 20a, 20b) to a plurality of application areas (21a, 21b) on a surface of a first component, the application areas extending linearly and being spaced in a direction intersecting an extending direction in which the application areas extend linearly; a second process of placing a second component above the first component such that the adhesive (20, 20a, 20b) is sandwiched between the first component and the second component; and a third process of compressing the adhesive (20, 20a, 20b) by pressurizing the second component toward the first component with a pressurizer, wherein, in the third process, a load applied to the pressurizer changes such that the load goes through a curvilinear increase period and a rapid increase period in an order of description, the curvilinear increase period being a period in which the load increases in a curved line as an amount of compression of the adhesive (20, 20a, 20b) increases, the rapid increase period being a period in which the load increases in a polygonal line with respect to a trajectory of the load in the curvilinear increase period as the amount of compression of the adhesive increases, and wherein the third process includes performing pressurization by the pressurizer while detecting the load by a load sensor, detecting the rapid increase period based on a detection value of the load sensor, and stopping the pressurization by the pressurizer during the rapid increase period.