mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: an inner casing having a storage chamber defined therein, characterized by further comprising: a middle plate to surround an outer surface of the inner casing; a cabinet cover to cover the middle plate and to define a top appearance of the refrigerator; a wireless charging module including a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover, and a module mounting casing fixed to the middle plate and on which the wireless charging module is mounted; wherein the cabinet cover includes a module-receiving recess defined therein for receiving a portion of the wireless charging module. a middle plate to surround an outer surface of the inner casing; a cabinet cover to cover the middle plate and to define a top appearance of the refrigerator; a wireless charging module including a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover, and a module mounting casing fixed to the middle plate and on which the wireless charging module is mounted; wherein the cabinet cover includes a module-receiving recess defined therein for receiving a portion of the wireless charging module.
Process for the production of high strength bainitic steel seamless pipes comprising the following steps: a) providing a steel having a composition comprising 0,23-0,30% by weight of C; 0,05-1,0% by weight of Mn; 1,2-1,65% by weight of Si and 0-0,5% by weight of Al 0,7-1,8% by weight of Cr; 0,2-0,3% by weight of Mo; 0,5-3,6% by weight of Ni; 0-0,005% by weight of S; 0-0,015% by weight of P; 0-0,005% by weight of O; 0-0,003% by weight of Ca; 0-0,01% by weight of N; 0-0,15% by weight of Cu; the remainder being iron and inevitable impurities; b) hot rolling said steel at a predetermined temperature comprised between 1250°C and 950°C such as to obtain a seamless steel pipe; c) continuously cooling the steel pipe from the rolling temperature naturally in air or by a controlled cooling with an average cooling rate comprised between 0,2 and 0,5°C per second in order to obtain a cementite-free bainitic microstructure; wherein after the step c) there is optionally provided a step of tempering at low temperatures comprised in the range 200-350°C. a) providing a steel having a composition comprising 0,23-0,30% by weight of C; 0,05-1,0% by weight of Mn; 1,2-1,65% by weight of Si and 0-0,5% by weight of Al 0,7-1,8% by weight of Cr; 0,2-0,3% by weight of Mo; 0,5-3,6% by weight of Ni; 0-0,005% by weight of S; 0-0,015% by weight of P; 0-0,005% by weight of O; 0-0,003% by weight of Ca; 0-0,01% by weight of N; 0-0,15% by weight of Cu; the remainder being iron and inevitable impurities; b) hot rolling said steel at a predetermined temperature comprised between 1250°C and 950°C such as to obtain a seamless steel pipe; c) continuously cooling the steel pipe from the rolling temperature naturally in air or by a controlled cooling with an average cooling rate comprised between 0,2 and 0,5°C per second in order to obtain a cementite-free bainitic microstructure;
A shunt tube assembly comprising: a shunt tube comprising a first, non-round cross-sectional shape at a first end of the shunt tube; a jumper tube comprising a second, substantially round cross-sectional shape at a first end of the jumper tube, wherein the jumper tube comprises a third, non-round or non-uniform cross-sectional shape along its length, wherein the second cross-sectional shape and the third cross-sectional shape are different and wherein the first cross-sectional shape and the second cross-sectional shape are different; a coupling member comprising a first end and a second end, wherein the coupling member is configured to provide a sealing engagement between the first end of the coupling member and the first end of the shunt tube, and wherein the coupling member is configured to provide a sealing engagement between the second end of the coupling member and the first end of the jumper tube. a shunt tube comprising a first, non-round cross-sectional shape at a first end of the shunt tube; a jumper tube comprising a second, substantially round cross-sectional shape at a first end of the jumper tube, wherein the jumper tube comprises a third, non-round or non-uniform cross-sectional shape along its length, wherein the second cross-sectional shape and the third cross-sectional shape are different and wherein the first cross-sectional shape and the second cross-sectional shape are different; a coupling member comprising a first end and a second end, wherein the coupling member is configured to provide a sealing engagement between the first end of the coupling member and the first end of the shunt tube, and wherein the coupling member is configured to provide a sealing engagement between the second end of the coupling member and the first end of the jumper tube.
Connector for pre-connectorized fiber optic cables comprising: a port body (20, 80) and an adaptor (21, 81) configured to receive an optical connector (101, 201) of a pre-connectorized fiber optic cable, said adaptor (21, 81) being mechanically held by said port body (20, 80); a port cap having a radial aperture dimensioned for allowing an optical connector of a pre-connectorized fiber optic cable to axially pass through the port cap, the port cap having a first end configured for being mechanically coupled to a first end (22, 82) of said port body (20, 80); a seal acting within said port cap and configured for sealing against an outer sheath of a pre-connectorized fiber optic cable; characterised in that the connector further comprises a top cap mounted to a second end of said port cap and rotatable about an axial rotational axis relative to said port cap and in that two rigid teeth are movable along radial directions between a rest position, wherein the two rigid teeth are radially spaced apart for allowing an optical connector of a pre-connectorized fiber optic cable to pass through the port cap, and a gripping position wherein the two rigid teeth are radially approached for gripping an outer sheath of a pre-connectorized fiber optic cable, actuating members for actuating said rigid teeth from the rest position to the gripping position being operative between said top cap and port cap. a port body (20, 80) and an adaptor (21, 81) configured to receive an optical connector (101, 201) of a pre-connectorized fiber optic cable, said adaptor (21, 81) being mechanically held by said port body (20, 80); a port cap having a radial aperture dimensioned for allowing an optical connector of a pre-connectorized fiber optic cable to axially pass through the port cap, the port cap having a first end configured for being mechanically coupled to a first end (22, 82) of said port body (20, 80); a seal acting within said port cap and configured for sealing against an outer sheath of a pre-connectorized fiber optic cable; characterised in that the connector further comprises a top cap mounted to a second end of said port cap and rotatable about an axial rotational axis relative to said port cap and in that two rigid teeth are movable along radial directions between a rest position, wherein the two rigid teeth are radially spaced apart for allowing an optical connector of a pre-connectorized fiber optic cable to pass through the port cap, and a gripping position wherein the two rigid teeth are radially approached for gripping an outer sheath of a pre-connectorized fiber optic cable, actuating members for actuating said rigid teeth from the rest position to the gripping position being operative between said top cap and port cap.
A transfer article comprising: a first flexible liner having opposing first and second surfaces, wherein the first surface has a release value of less than 275.6 g/cm (700 grams per inch) per ASTM D3330/D3330M-04; multi-sized particles adhered to the first surface of the first flexible liner; the multi-sized particles comprising: a plurality of dominant hydrophilic particles having an average primary particle size of no greater than 200 μm; and a plurality of discrete hydrophobic nanoparticles; wherein the dominant particles are disposed in a monolayer; and a second flexible liner having opposing first and second surfaces, wherein the second liner is in physical contact with at least a portion of the multi-sized particles. a first flexible liner having opposing first and second surfaces, wherein the first surface has a release value of less than 275.6 g/cm (700 grams per inch) per ASTM D3330/D3330M-04; multi-sized particles adhered to the first surface of the first flexible liner; the multi-sized particles comprising: a plurality of dominant hydrophilic particles having an average primary particle size of no greater than 200 μm; and a plurality of discrete hydrophobic nanoparticles; wherein the dominant particles are disposed in a monolayer; and a plurality of dominant hydrophilic particles having an average primary particle size of no greater than 200 μm; and a plurality of discrete hydrophobic nanoparticles; wherein the dominant particles are disposed in a monolayer; and a second flexible liner having opposing first and second surfaces, wherein the second liner is in physical contact with at least a portion of the multi-sized particles.
A computer-implemented method for supporting display of a three-dimensional first person view, FPV, comprising: receiving a plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915), which are captured by an imaging device (303, 403) on a movable object (118, 301, 401); obtaining state information (306, 406, 604, 704) of the imaging device (303, 403) on the movable object (118, 301, 401); using the state information (306, 406, 604, 704) of the imaging device (303, 403) on the movable object (118, 301, 401) to configure a pair of image frames (L2, R2) based on the plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915) for supporting the three-dimensional FPV with images for left eye and right eye of a user viewing the three-dimensional FPV, wherein an image frame selected, at a second time point, from the plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915) is used for a first image frame in the pair of image frames (L2, R2); obtaining a transformation relationship between the first image frame in the pair of image frames (L2, R2) and a first image frame, captured by the imaging device (303, 403) at a first time point before the second time point, in a base pair of image frames (L1, R1) obtained for the first time point; obtaining a second image frame in the pair of image frames (L2, R2) based on a second image frame in the base pair of image frames (L1, R1) and the transformation relationship; and providing the pair of image frames (L2, R2) to a displaying device (302, 402) that is adapted to display the three-dimensional FPV. receiving a plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915), which are captured by an imaging device (303, 403) on a movable object (118, 301, 401); obtaining state information (306, 406, 604, 704) of the imaging device (303, 403) on the movable object (118, 301, 401); using the state information (306, 406, 604, 704) of the imaging device (303, 403) on the movable object (118, 301, 401) to configure a pair of image frames (L2, R2) based on the plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915) for supporting the three-dimensional FPV with images for left eye and right eye of a user viewing the three-dimensional FPV, wherein an image frame selected, at a second time point, from the plurality of image frames (311-313, 411-413, 611-613, 711-713, 911-915) is used for a first image frame in the pair of image frames (L2, R2); obtaining a transformation relationship between the first image frame in the pair of image frames (L2, R2) and a first image frame, captured by the imaging device (303, 403) at a first time point before the second time point, in a base pair of image frames (L1, R1) obtained for the first time point; obtaining a second image frame in the pair of image frames (L2, R2) based on a second image frame in the base pair of image frames (L1, R1) and the transformation relationship; and providing the pair of image frames (L2, R2) to a displaying device (302, 402) that is adapted to display the three-dimensional FPV.
A personal mobility device comprising: a frame; a plurality of wheels (150, 160) attached to the frame and comprising a first drive wheel; a first pneumatic motor in operative connection with the first drive wheel, the first pneumatic motor comprising a first forward port and a first rearward port; at least one tank of pressurized gas comprising an outlet; a regulator in fluid connection with the outlet of the tank of pressurized gas, the regulator decreasing pressure from a pressure of the tank of pressurized gas to a lower pressure, and a control system comprising a manually operated actuator, a first forward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first forward port, a first rearward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first rearward port, wherein movement of the manually operated actuator controls actuation of the first forward control valve and the first rearward control valve, wherein actuation of the first forward control valve causes pressurized gas to flow from the regulator into first forward port during forward motion of the first drive wheel and actuation of the first rearward control valve causes pressurized gas to flow from the regulator into first rearward port during rearward motion of the first drive wheel. a frame; a plurality of wheels (150, 160) attached to the frame and comprising a first drive wheel; a first pneumatic motor in operative connection with the first drive wheel, the first pneumatic motor comprising a first forward port and a first rearward port; at least one tank of pressurized gas comprising an outlet; a regulator in fluid connection with the outlet of the tank of pressurized gas, the regulator decreasing pressure from a pressure of the tank of pressurized gas to a lower pressure, and a control system comprising a manually operated actuator, a first forward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first forward port, a first rearward control valve having an inlet in fluid connection with the regulator and an outlet in fluid connection with the first rearward port, wherein movement of the manually operated actuator controls actuation of the first forward control valve and the first rearward control valve, wherein actuation of the first forward control valve causes pressurized gas to flow from the regulator into first forward port during forward motion of the first drive wheel and actuation of the first rearward control valve causes pressurized gas to flow from the regulator into first rearward port during rearward motion of the first drive wheel.
A method of cold storage and at least hot delivery of a brewed beverage, consisting essentially of: obtaining a container that contains a batch quantity of a brewed beverage, wherein said container containing said batch quantity of said brewed beverage is cooled or has been cooled to a cold storage temperature; coupling said container with a dispensing line; coupling said dispensing line with a tankless heat exchanger; providing a serving quantity comprising a single portion of said brewed beverage from said container along said dispensing line coupled to said container; heating said single portion of said brewed beverage with said tankless heat exchanger coupled with said dispensing line to a predefined serving temperature that is greater than said cold storage temperature, wherein said heating occurs on demand at a time of dispensing and at or near a point of dispensing while a remaining brewed batch of said brewed beverage in said container is maintained at said cold storage temperature; and, dispensing said single portion of said brewed beverage from a dispenser tap coupled with said tankless heat exchanger. obtaining a container that contains a batch quantity of a brewed beverage, wherein said container containing said batch quantity of said brewed beverage is cooled or has been cooled to a cold storage temperature; coupling said container with a dispensing line; coupling said dispensing line with a tankless heat exchanger; providing a serving quantity comprising a single portion of said brewed beverage from said container along said dispensing line coupled to said container; heating said single portion of said brewed beverage with said tankless heat exchanger coupled with said dispensing line to a predefined serving temperature that is greater than said cold storage temperature, wherein said heating occurs on demand at a time of dispensing and at or near a point of dispensing while a remaining brewed batch of said brewed beverage in said container is maintained at said cold storage temperature; and, dispensing said single portion of said brewed beverage from a dispenser tap coupled with said tankless heat exchanger.
A method for controlling the operation of a wind turbine comprising (i) a mechanical drive train (222, 228), (ii) an electric generator being mechanically connected to the drive train (111, 228), and (iii) a power converter being electrically connected to the generator, the method comprising determining a frequency of an AC output voltage signal provided by the power converter at a node between a High Voltage Direct Current, HVDC, power transmission system and the power converter, wherein the HVDC power transmission system comprises a rectifier for converting the AC output voltage signal provided by the power converter into a DC power signal being fed into a High Voltage Direct Current, HVDC, power transmission line, a DC-AC converter and a transformer, which deliver a resulting AC power to a power grid; recognizing, whether there has been a modification of the determined frequency with respect to a previously determined frequency, which modification is larger than a given threshold; if the modification of the determined frequency is larger than the given threshold, changing a power reference signal for the wind turbine; providing the changed power reference signal to a controller of the wind turbine; and controlling the operation of the wind turbine on the basis of the changed power reference signal.
Capacitive fill level sensor having: - two electrodes with a plastic sheathing, - a capacitive measurement device for recording the electrical capacitance between the electrodes, - an estimating device for estimating a fill level (h) of a liquid between the electrodes based on the recorded electrical capacitance, with different dielectric constants for sections of the plastic sheathing situated in the liquid and outside the liquid being taken into consideration, wherein, in the liquid, the plastic is soaked with the liquid, and - a compensation device for compensating for a drift of the recorded electrical capacitance, which is due to a change in the dielectric constant of a section of the soaked plastic sheathing when said soaked section dries after the fill level (h) has lowered, wherein the compensation device contains: - a high-pass filter for determining high-frequency changes in the electrical capacitance; - an accumulator (12, 13) for accumulating the high-frequency changes in the electrical capacitance into an accumulation value; - a damping member (14, 15) for periodically damping the accumulation value by a damping rate; and - a summing element which is coupled to the capacitance measurement device and the accumulator (12, 13) for the purpose of compensating for the recorded electrical capacitance by way of the accumulation value. - two electrodes with a plastic sheathing, - a capacitive measurement device for recording the electrical capacitance between the electrodes, - an estimating device for estimating a fill level (h) of a liquid between the electrodes based on the recorded electrical capacitance, with different dielectric constants for sections of the plastic sheathing situated in the liquid and outside the liquid being taken into consideration, wherein, in the liquid, the plastic is soaked with the liquid, and - a compensation device for compensating for a drift of the recorded electrical capacitance, which is due to a change in the dielectric constant of a section of the soaked plastic sheathing when said soaked section dries after the fill level (h) has lowered, - a high-pass filter for determining high-frequency changes in the electrical capacitance; - an accumulator (12, 13) for accumulating the high-frequency changes in the electrical capacitance into an accumulation value; - a damping member (14, 15) for periodically damping the accumulation value by a damping rate; and - a summing element which is coupled to the capacitance measurement device and the accumulator (12, 13) for the purpose of compensating for the recorded electrical capacitance by way of the accumulation value.
A roller for a comestible product sheeter comprising: a cylindrically shaped roller having an outer surface; a plurality of circumferential grooves spaced along the surface of the roller; a hoop made of a thin band positioned in each groove and less wide than the grooves in which each band is placed; wherein the surfaces of the groove and the surface immediately adjacent to either side of each groove is a non-release surface material; wherein the surface material of the roller between the non-release surfaces is a non-stick material. a cylindrically shaped roller having an outer surface; a plurality of circumferential grooves spaced along the surface of the roller; a hoop made of a thin band positioned in each groove and less wide than the grooves in which each band is placed; wherein the surfaces of the groove and the surface immediately adjacent to either side of each groove is a non-release surface material; wherein the surface material of the roller between the non-release surfaces is a non-stick material.