mhurhangee/ep-ind-claims huggingface dataset:
An automatic real-time quantitative amplification system which can perform analysis of various biological samples, comprising: a deck loading a multi-well plate for treating the biological sample, which purifies a target nucleic acid in a target substance contained in the biological sample, cultures the target substance contained in the biological sample and then purifies the target nucleic acid, or purifies a binding target nucleic acid bound with a target antigen contained in the biological sample by an antigen-antibody reaction, and a multi-well plate for PCR, in which a reaction mixture for real-time quantitative PCR is injected; an automatic purification and reaction preparing device which automatically purifies the target nucleic acid or the cultured target nucleic acid from the biological sample and dispenses the purified target nucleic acid or the cultured and purified target nucleic acid to the multi-well plate for PCR, and then mixes the dispensed target nucleic acid with a reagent for real-time quantitative PCR, or which automatically purifies the binding target nucleic acid bound with the target antigen contained in the biological sample by the antigen-antibody reaction, and dispenses the purified binding target nucleic acid to the multi-well plate for PCR, and then mixes the dispensed binding target nucleic acid with the reagent for real-time quantitative PCR; an automatic deck storing and moving device provided with a storing case which has a door (2000C-1) for taking in or out the deck and of which an internal portion can be maintained at predetermined temperature, and a deck transferring unit for transferring the deck to the automatic purification and reaction preparing device; a sealing device for sealing an upper surface of the multi-well plate for PCR, in which the purified target nucleic acid, the cultured and purified target nucleic acid or the purified binding target nucleic acid is dispensed; a centrifugal separator which applies centripetal force to the multi-well plate for PCR so that a substance remained on a side wall of each well formed in the multi-well plate for PCR is separated and then moved to a bottom surface of the each well; a real-time quantitative amplification device which amplifies the target substance in the multi-well plate for PCR; and a moving device for multi-well plate for PCR, which moves the multi-well plate for PCR, in which the purified target nucleic acid, the cultured and purified target nucleic acid or the purified binding target nucleic acid is dispensed, to the sealing device, and moves the multi-well plate for PCR sealed by the sealing device to the centrifugal separator, and also moves the multi-well plate for PCR, to which the centripetal force is applied by the centrifugal separator, to the real-time quantitative amplification device.
A washing method for a washing machine, comprising: applying a first directional torque to rotate the drum greater than 120° in a first direction at an RPM that generates centrifugal force greater than 1g in order that laundry in the drum is rotated in a first direction and lifted; braking the drum before the drum reaches to 180° in order that laundry is dropped; applying a second directional torque, which is a reverse of the first directional torque, to rotate the drum greater than 120° in a second direction at the RPM that generates centrifugal force greater than 1g in order that laundry is rotated in a second direction and lifted; and braking the drum before the drum reaches to 180° in order that the laundry is dropped. applying a first directional torque to rotate the drum greater than 120° in a first direction at an RPM that generates centrifugal force greater than 1g in order that laundry in the drum is rotated in a first direction and lifted; braking the drum before the drum reaches to 180° in order that laundry is dropped; applying a second directional torque, which is a reverse of the first directional torque, to rotate the drum greater than 120° in a second direction at the RPM that generates centrifugal force greater than 1g in order that laundry is rotated in a second direction and lifted; and braking the drum before the drum reaches to 180° in order that the laundry is dropped.
A load testing apparatus comprising: at least two resistance units each configured with a plurality of resistor-groups arranged in stages along z direction, which is a vertical direction, and including a frame (21a - 26a) covering a side face of the resistor-groups, each of the resistor-groups including resistors arrayed along a horizontal direction; and at least two base parts each including a cooling fan and provided separately, wherein at least one of the resistance units is provided on a top of each of the base parts via an insulator, a face of the frame that at least faces another adjacent resistance unit is positioned in an inner side of a side face of the base part, on which the resistance unit is provided, by a first distance when viewed from above, the at least two resistance units are disposed to have a gap between the frames of adjacent resistance units, the gap being equal to or larger than a second distance to provide insulation between the adjacent resistance units, the second distance is twice the first distance, and the first distance is equal to or larger than 45 mm. at least two resistance units each configured with a plurality of resistor-groups arranged in stages along z direction, which is a vertical direction, and including a frame (21a - 26a) covering a side face of the resistor-groups, each of the resistor-groups including resistors arrayed along a horizontal direction; and at least two base parts each including a cooling fan and provided separately, wherein at least one of the resistance units is provided on a top of each of the base parts via an insulator, a face of the frame that at least faces another adjacent resistance unit is positioned in an inner side of a side face of the base part, on which the resistance unit is provided, by a first distance when viewed from above, the at least two resistance units are disposed to have a gap between the frames of adjacent resistance units, the gap being equal to or larger than a second distance to provide insulation between the adjacent resistance units, the second distance is twice the first distance, and the first distance is equal to or larger than 45 mm.
A dose setting mechanism for a drug delivery device, said mechanism comprising an outer housing (40; 204), an inner housing, a driver (30; 209) and a dial sleeve (10; 206) disposed between said outer housing and said inner housing, wherein the inner housing has an external groove, said inner housing being operatively coupled to the driver (30; 209) and guiding said driver to dispense a dose set by said dose setting mechanism and wherein said dial sleeve is rotatably engaged with said external groove of said inner housing and wherein a dose dial grip (12; 202) is provided rotatably coupled to said dial sleeve (10; 206), said dose dial grip non-rotatably coupled to a dose button (5; 216), such that when a dose is set by rotating said dose dial grip of said dose setting mechanism, said dial sleeve is rotated with respect to both said outer housing and said inner housing and said dial sleeve is translated away from both said outer housing and said inner housing..
A method for manufacturing a device comprising or forming an electronic module (1A, 1B, 1C) said module comprising an integrated circuit chip having electrical contact pads (12a, 12b), insulating material covering at least each pad (12a, 12b), and a protruding interconnection portion of an electrical element, which portion is connected directly to each contact pad and extends outwardly, characterized in that each protruding interconnection portion is bonded to each contact pad and is configured to have an interconnection width greater than 100 μm or greater than or equal to the width of each electrical contact pad (12a, 12b), said protruding portion forming a loop 32 having two ends bonded to the same contact pad (12a, 12b).
Method for operating a valve which is operated by means of an actuator (102, 104), in particular an injection valve of an internal combustion engine of a motor vehicle, in which method the actuator (102, 104) is driven by a drive signal which characterizes a desired opening duration (Top*) of the valve, that the drive signal which characterizes the desired opening duration (Top*) is corrected depending on a valve delay time (t11, t2) in order to obtain a corrected drive signal (Icorr) for driving the actuator (102, 104), wherein the valve delay time (t11, t2) represents a time difference between the drive signal and an actual change in an operating state of at least one component of the valve, in particular a valve needle, characterized in that an uncorrected drive duration (ET*) is ascertained depending on operating variables of the internal combustion engine, and in that the uncorrected drive duration (ET*) is corrected by means of a closing delay time correction value (Δt2) which is ascertained depending on an actual closing delay time (t2act), in that a setpoint closing delay time (t2*) is ascertained depending on operating variables of the internal combustion engine, in that a closing delay time adaptation value (t2adap) is ascertained depending on a difference between the actual closing delay time (t2act) and the setpoint closing delay time (t2*), and in that the closing delay time correction value (Δt2) is ascertained depending on operating variables of the internal combustion engine and on the closing delay time adaptation value (t2adap).
A microscope system for stitching a plurality of element images to generate a stitched image, comprising: an element image obtaining unit configured to obtain the element image that constitutes the stitched image; a user image obtaining unit configured to capture a plurality of user-specified areas and to obtain a plurality of user images; wherein each of the plurality of user specified areas is an area of a sample corresponding to a field of view of the user image obtaining unit being set by user operations, and is specified by a user; a rectangle area deciding unit (140, 152) configured to decide a rectangle area comprising the plurality of user-specified areas captured by the user image obtaining unit; a candidate area deciding unit (140, 153) configured to decide, as a candidate area being an area to be a candidate to obtain the element image, each of a plurality of areas having a size of a field of view of the element image obtaining unit arranged in a grid-like manner in the rectangle area so as to fill the rectangle area decided by the rectangle area deciding unit (140, 152); and an element area selecting unit (140, 154) configured to select an element area to obtain the element image, from the plurality of candidate areas decided by the candidate area deciding unit (140, 153). an element image obtaining unit configured to obtain the element image that constitutes the stitched image; a user image obtaining unit configured to capture a plurality of user-specified areas and to obtain a plurality of user images; wherein each of the plurality of user specified areas is an area of a sample corresponding to a field of view of the user image obtaining unit being set by user operations, and is specified by a user; a rectangle area deciding unit (140, 152) configured to decide a rectangle area comprising the plurality of user-specified areas captured by the user image obtaining unit; a candidate area deciding unit (140, 153) configured to decide, as a candidate area being an area to be a candidate to obtain the element image, each of a plurality of areas having a size of a field of view of the element image obtaining unit arranged in a grid-like manner in the rectangle area so as to fill the rectangle area decided by the rectangle area deciding unit (140, 152); and an element area selecting unit (140, 154) configured to select an element area to obtain the element image, from the plurality of candidate areas decided by the candidate area deciding unit (140, 153).
Dispenser niche for a refrigerator, in particular a household refrigerator, with an illuminating device for at least partial illumination of the niche formed from a multiplicity of LEDs, characterised in that the LEDs are arranged on a common circuit board, that a recess is formed in a wall, having a dispensing aperture, of the niche, in order to allow placement of the circuit board in the recess in a single orientation and that electrical contacts (25, 26) of the wall and the circuit board touch each other in the single orientation.
Inertia wheel including a storage ring and a hub connecting the storage ring to a rotation shaft of the wheel, characterized in that the hub, including a central portion forming a hub body connected to the shaft, a peripheral portion forming a rim connected to the storage ring and an intermediate part consisting of a disk between the hub body and the rim, is made from composite material and has a stiffness modulus decreasing from the hub body to the rim.
A power supply device for an electric vehicle, which comprises a battery case for accommodating battery cells for supplying electric power to an electric motor of an electric vehicle and which can be mounted to and detached from the electric vehicle, wherein the power supply device further comprises: an insulator block for accommodating battery case terminals which can be connected to vehicle body terminals provided on a body of the electric vehicle, and a plurality of ribs (94a, 95a, 96a, 94b, 95b, 96b) protruding inwardly from a wall of the battery case and disposed along an outer surface of the insulator block with a predetermined gap between themselves and the outer surface, in order to hold the insulator block inside the battery case; wherein the battery case is provided with an opening through which a part of the insulator block passes so that the battery case terminals are exposed to the outside; and wherein that part of the insulator block which passes through the opening is provided with two flanges (741, 742) making contact with an inner edge of the opening from the inside and outside of the battery case, such that an outer circumferential surface of an intermediate part defined between the two flanges (741, 742) is loosely fitted in the opening with a gap therebetween. an insulator block for accommodating battery case terminals which can be connected to vehicle body terminals provided on a body of the electric vehicle, and a plurality of ribs (94a, 95a, 96a, 94b, 95b, 96b) protruding inwardly from a wall of the battery case and disposed along an outer surface of the insulator block with a predetermined gap between themselves and the outer surface, in order to hold the insulator block inside the battery case; wherein the battery case is provided with an opening through which a part of the insulator block passes so that the battery case terminals are exposed to the outside; and wherein that part of the insulator block which passes through the opening is provided with two flanges (741, 742) making contact with an inner edge of the opening from the inside and outside of the battery case, such that an outer circumferential surface of an intermediate part defined between the two flanges (741, 742) is loosely fitted in the opening with a gap therebetween.
A packet processing method, wherein the method comprises: receiving, by a first node, a first packet, wherein the first packet carries a first bit string, the first bit string comprises M bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether one or more target nodes of the first packet comprise the corresponding node group, and M is an integer greater than or equal to 1; determining, by the first node based on the first bit string and a second bit string, whether to send the first packet to a second node, wherein the second bit string comprises N bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether a node belonging to the corresponding node group exists in one or more related nodes of the first node, and N is an integer greater than or equal to 1; and determining, by the first node based on the first bit string and a third bit string, whether the one or more target nodes of the first packet comprise the first node, wherein the third bit string comprises L bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether the first node belongs to the corresponding node group, and L is an integer greater than or equal to 1. receiving, by a first node, a first packet, wherein the first packet carries a first bit string, the first bit string comprises M bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether one or more target nodes of the first packet comprise the corresponding node group, and M is an integer greater than or equal to 1; determining, by the first node based on the first bit string and a second bit string, whether to send the first packet to a second node, wherein the second bit string comprises N bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether a node belonging to the corresponding node group exists in one or more related nodes of the first node, and N is an integer greater than or equal to 1; and determining, by the first node based on the first bit string and a third bit string, whether the one or more target nodes of the first packet comprise the first node, wherein the third bit string comprises L bit sets, each bit set corresponds to one node group, a value of the bit set is used to indicate whether the first node belongs to the corresponding node group, and L is an integer greater than or equal to 1.
A method for preparing suspension of nanoparticles, the method comprising: computing an interaction energy for a plurality of probable dispersants with respect to a dispersing medium and a metal oxide powder using a molecular modeling technique; selecting a dispersant from the plurality of probable dispersants based on computed interaction energies, wherein the dispersant having the most negative interaction energy among the plurality of probable dispersants is selected; mixing the dispersing medium with the dispersant and the metal oxide powder to form a primary mixture, wherein the metal oxide powder includes particles of at least one metal oxide having an average particle size in the range of 0.1 μm to 100 μm and is present in a range of 10-40 % by weight of the primary mixture; dispersing the primary mixture to form a slurry of the primary mixture; grinding the slurry of the primary mixture to obtain a suspension; adding the dispersant and the dispersing medium to the primary mixture during the grinding after predetermined time intervals; periodically measuring the average particle size of metal oxide particles in the primary mixture; and monitoring and controlling grinding time, size of grinding medium, grinding medium to powder ratio, and primary mixture slurry concentration to obtain the suspension, wherein the primary mixture is ground till the average particle size of the particles is less than 100 nm. computing an interaction energy for a plurality of probable dispersants with respect to a dispersing medium and a metal oxide powder using a molecular modeling technique; selecting a dispersant from the plurality of probable dispersants based on computed interaction energies, wherein the dispersant having the most negative interaction energy among the plurality of probable dispersants is selected; mixing the dispersing medium with the dispersant and the metal oxide powder to form a primary mixture, wherein the metal oxide powder includes particles of at least one metal oxide having an average particle size in the range of 0.1 μm to 100 μm and is present in a range of 10-40 % by weight of the primary mixture; dispersing the primary mixture to form a slurry of the primary mixture; grinding the slurry of the primary mixture to obtain a suspension; adding the dispersant and the dispersing medium to the primary mixture during the grinding after predetermined time intervals; periodically measuring the average particle size of metal oxide particles in the primary mixture; and monitoring and controlling grinding time, size of grinding medium, grinding medium to powder ratio, and primary mixture slurry concentration to obtain the suspension, wherein the primary mixture is ground till the average particle size of the particles is less than 100 nm.
An electronic device comprising a circuit board and a terminal (3, 24, 44) mounted on the circuit board, wherein the terminal (3, 24, 44) comprises at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) and an electrical connector and is configured to connect, to a pole of the circuit board, an electrical conductor connected to the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d), wherein the terminal (3, 24, 44) is configured to connect, to the pole of the circuit board, at least one contact (18a, 39a..39c, 47a..47d) of a plug-in connector (19, 38, 49) connected to the electrical connector, the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) comprises a clamping spring (11a, 31a) for clamping the electrical conductor, the terminal (3, 24, 44) comprises at least one insulating housing (10a, 10b, 30), the clamping spring (11a, 31a) is arranged within the at least one insulating housing (10a, 10b, 30), the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) is a part of the electrical connector characterised in that the clamping spring (11a, 31a) is configured to clamp the at least one contact (18a, 39a..39c, 47a..47d). a circuit board and a terminal (3, 24, 44) mounted on the circuit board, wherein the terminal (3, 24, 44) comprises at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) and an electrical connector and is configured to connect, to a pole of the circuit board, an electrical conductor connected to the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d), wherein the terminal (3, 24, 44) is configured to connect, to the pole of the circuit board, at least one contact (18a, 39a..39c, 47a..47d) of a plug-in connector (19, 38, 49) connected to the electrical connector, the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) comprises a clamping spring (11a, 31a) for clamping the electrical conductor, the terminal (3, 24, 44) comprises at least one insulating housing (10a, 10b, 30), the clamping spring (11a, 31a) is arranged within the at least one insulating housing (10a, 10b, 30), the at least one conductor connection terminal (7a..7e, 25a..25e, 46a..46d) is a part of the electrical connector characterised in that the clamping spring (11a, 31a) is configured to clamp the at least one contact (18a, 39a..39c, 47a..47d).
A manufacturing method of carbon nanofibers having an average external diameter of 5 to 100 nm and an aspect ratio showing a ratio of fiber length to external diameter of 10 or more, wherein an active species including cobalt as a chief component is employed as a catalyst and carbon monoxide is used as a carbon source, and manufacturing is performed under the conditions that said catalyst has 3 to 150 mass % of said active species carried on a carrier composed of a magnesium-containing oxide having a specific surface area of 0.01 to 5 m 2 /g as determined using the method mentioned in the description, a reaction temperature is between 670 and 780 °C, partial pressure of carbon monoxide is between 0.04 and 0.98 MPa, and a flow rate of carbon monoxide gas is 2 NL/(g of active species · min) or more.