mhurhangee/ep-ind-claims huggingface dataset:
A 3-dimensional precast locating system (100; 300) for identifying and tracking 3D location, that includes ground elevation and geographical location, of a precast, wherein the system (100; 300) comprises: an RFID tag embedded within the precast; a precast lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) having a hook (108; 305) for lifting the precast, wherein a 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) is predetermined as a reference; an RFID reader attached to the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) for identifying the precast by operationally reading the RFID tag of the lifted precast; a sensor assembly (121; 312; 114; 311) for detecting an instant 3D location of the hook (108; 305) with reference to the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350); and a position translational controller (112; 154; 310; 354) for holding the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350), the position translational controller (112; 154; 310; 354) is operable to derive an instant 3D location of the lifted precast based on the 3D location of the hook (108; 305) detected by the sensor assembly (121; 312; 114; 311), with reference to the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350). an RFID tag embedded within the precast; a precast lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) having a hook (108; 305) for lifting the precast, wherein a 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) is predetermined as a reference; an RFID reader attached to the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350) for identifying the precast by operationally reading the RFID tag of the lifted precast; a sensor assembly (121; 312; 114; 311) for detecting an instant 3D location of the hook (108; 305) with reference to the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350); and a position translational controller (112; 154; 310; 354) for holding the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350), the position translational controller (112; 154; 310; 354) is operable to derive an instant 3D location of the lifted precast based on the 3D location of the hook (108; 305) detected by the sensor assembly (121; 312; 114; 311), with reference to the predetermined 3D location of the lifting machinery (100A; 150; 201; 202; 203; 204; 301; 350).
Method of comparing quality of two or more affinity chromatography media samples containing blood group A antigen ligands attached to a solid support, the method comprising the steps of: (a) for each of the media samples, providing a solution of purified monoclonal IgM-A antibody of known concentration C1 and volume VM and an affinity chromatography media sample of volume VR; (b) incubating each chromatography media sample with the solution of (a); (c) obtaining a supernatant and measuring the concentration C2 of the IgM-A antibody in the supernatant, for each chromatography media sample; (d) determining the static binding capacity of each chromatography media sample for the IgM-A antibody, wherein the static binding capacity is measured using the equation C 1 − C 2 × VM VR wherein the static binding capacities of the media samples correlates with their ability to remove anti-A antibodies from a sample, thereby providing a comparison of the quality of two or more different affinity chromatography media samples. (a) for each of the media samples, providing a solution of purified monoclonal IgM-A antibody of known concentration C1 and volume VM and an affinity chromatography media sample of volume VR; (b) incubating each chromatography media sample with the solution of (a); (c) obtaining a supernatant and measuring the concentration C2 of the IgM-A antibody in the supernatant, for each chromatography media sample; (d) determining the static binding capacity of each chromatography media sample for the IgM-A antibody, wherein the static binding capacity is measured using the equation C 1 − C 2 × VM VR
A method of transmitting an uplink signal by a user equipment, the method comprising: generating acknowledgement/negative-acknowledgement, ACK/NACK data; and transmitting the ACK/NACK data through a narrowband physical uplink shared channel, NPUSCH, characterized in that: wherein a codeword cover [1 -1 1 -1] is applied to the ACK/NACK data based on a scheduling request, SR, being transmitted through the NPUSCH, and wherein a second codeword cover generated in a form of [1 1 1 1] is applied to a signal that is to be transmitted through the NPUSCH based on the ACK/NACK without the SR being transmitted through the NPUSCH. generating acknowledgement/negative-acknowledgement, ACK/NACK data; and transmitting the ACK/NACK data through a narrowband physical uplink shared channel, NPUSCH, characterized in that: wherein a codeword cover [1 -1 1 -1] is applied to the ACK/NACK data based on a scheduling request, SR, being transmitted through the NPUSCH, and wherein a second codeword cover generated in a form of [1 1 1 1] is applied to a signal that is to be transmitted through the NPUSCH based on the ACK/NACK without the SR being transmitted through the NPUSCH.
Method for driving an electromechanical motor, having a stator (10; 10a, 10b) actuating on an object to be moved in a main displacement direction by drive elements (14; 14a-d), comprising the steps of: providing a first set of voltage signals to a first set of said drive elements (14a, 14c), said first set of voltage signals comprising at least one voltage signal; providing a second set of voltage signals to a second set of said drive elements (14b, 14d), said second set of voltage signals comprising at least one voltage signal; controlling said first set of voltage signals to cause contact portions of said first set of said drive elements (14a, 14c) to move along a first trajectory; controlling said second set of voltage signals to cause contact portions of said second set of said drive elements (14b, 14d) to move along a second trajectory; said first and second trajectories being arranged for causing a motion of said moving object relative to said stator (10; 10a, 10b) by means of repetitions of small steps, ensuring a mechanical contact between said stator (10; 10a, 10b) and said moving object at every instant; and applying a normal force between said stator (10; 10a, 10b) and said object; characterised in that said normal force has a magnitude sufficient for causing an elastic deformation of said stator (10; 10a, 10b) being at least in the same order of magnitude as height uncertainties of said stator (10; 10a, 10b) perpendicular to said main displacement direction of said moving object; and said repetition of small steps has a driving frequency of the same order of magnitude as f r, f r being a resonance frequency of said stator (10; 10a, 10b) and moving object arrangement. providing a first set of voltage signals to a first set of said drive elements (14a, 14c), said first set of voltage signals comprising at least one voltage signal; providing a second set of voltage signals to a second set of said drive elements (14b, 14d), said second set of voltage signals comprising at least one voltage signal; controlling said first set of voltage signals to cause contact portions of said first set of said drive elements (14a, 14c) to move along a first trajectory; controlling said second set of voltage signals to cause contact portions of said second set of said drive elements (14b, 14d) to move along a second trajectory; said first and second trajectories being arranged for causing a motion of said moving object relative to said stator (10; 10a, 10b) by means of repetitions of small steps, ensuring a mechanical contact between said stator (10; 10a, 10b) and said moving object at every instant; and applying a normal force between said stator (10; 10a, 10b) and said object;
A compound represented by Formula, in the formula, R 1a and R 1b are the same as or different from each other and each represent a hydrogen atom or a carboxy protective group; and each of R 2 and R 3 is a hydroxy group, R 2 is a group represented by Formula and R 3 is a group represented by Formula, in the formula, R 4a, R 4b, and R 4c are the same as or different from each other and each represent a hydrogen atom or a hydroxy protective group; and * represents a binding position, and in the formula, * has the same definition as described above, or R 2 and R 3 are bonded to each other and represent a group represented by Formula, * -O-X 1 -O- * in the formula, X 1 is a group represented by Formula or a group represented by Formula; and * has the same definition as described above, in the formula, R 5 is an aryl group which may be substituted; and * has the same definition as described above, and in the formula, * has the same definition as described above.
A radio frequency system comprising: a transmit path comprising a first tunable transmit band stop filter, and a power amplifier coupled to an output of the first tunable transmit band stop filter, wherein the first tunable transmit band stop filter is configured reject a receive frequency and pass a transmit frequency; a receive path comprising a low noise amplifier; and a duplex filter having a transmit path port coupled to an output of the power amplifier, a receive path port coupled to an input of the low noise amplifier, and an antenna port, wherein the duplex filter is configured to pass the transmit frequency and reject the receive frequency between the antenna port and the transmit path port, pass the receive frequency and reject the transmit frequency between the antenna port and the receive path port, characterized in that the transmit path further comprises a second tunable transmit band stop filter coupled to the input of the power amplifier in series with the first tunable transmit band stop filter, and in that the second tunable transmit band stop filter is configured to reject an image of the receive frequency. a transmit path comprising a first tunable transmit band stop filter, and a power amplifier coupled to an output of the first tunable transmit band stop filter, wherein the first tunable transmit band stop filter is configured reject a receive frequency and pass a transmit frequency; a receive path comprising a low noise amplifier; and a duplex filter having a transmit path port coupled to an output of the power amplifier, a receive path port coupled to an input of the low noise amplifier, and an antenna port, wherein the duplex filter is configured to pass the transmit frequency and reject the receive frequency between the antenna port and the transmit path port, pass the receive frequency and reject the transmit frequency between the antenna port and the receive path port, in that the transmit path further comprises a second tunable transmit band stop filter coupled to the input of the power amplifier in series with the first tunable transmit band stop filter, and in that the second tunable transmit band stop filter is configured to reject an image of the receive frequency.
A hinge intended to be used together with a glass door in the form of a shower splashing protection, said hinge comprising a fixed profile attachable to a wall and a pivotable profile supporting the glass door, said pivotable profile pivoting, during the pivoting movement of the door, around upper and lower pivots (15,16) provided on end fittings (13,14) of the hinge in a predetermined distance from the fixed profile, said pivotable profile consisting of a tube having along its mantle surface at least one fixing means for supporting the glass door and at least one bushing (9,10), attached to each free end of the tube, having a centrally located opening (11,12) for supporting and cooperating with the upper and lower pivot (15,16) respectively, and at least one transverse recess, provided in the lower bushing in order to cooperate with a correspondingly formed bulge for position fixation of the pivotening angle position location of the glass door, whereby said bulge is formed on a position washer, which is pivotally provided around the pivot of the lower end fitting between the said end fitting and its adjacent bushing at the same time as the position washer is pivotally adjustable around said pivot over an angle range of 360° into a desired position characterized in that said position washer is lockable in relation to the end fitting by aid of a screw with an inner gripping portion for a tool, said screw extending transversely through a projection from the end fitting and situated outside the washer and abutting against the outer mantle surface of the washer by friction, said screw can be screwed into said projection by a key in achieving the actual closing position of the door, that the bushings (9,10) are fixed into the tube by aid of cams extending in the tube, which are in turn cooperating with corresponding grooves in the bushings (9,10), and that the end fittings (13,14) are attachable in a slot centrally situated in the ends of the profile, by aid of at least one second screw (37;38) at the same time as said profile comprises two flanges (29,30) protruding in a predetermined distance from each other for telescopic cooperation with a wall profile attached to a wall, said wall profile having covering flanges (31,32) provided to enclose the first mentioned flanges (29,30).
A method of assessing the extent of renal injury in a subject, the method comprising analyzing the quantity of NGAL in a urine sample from the subject.
A hydroponic plant grow cabinet, comprising a housing, said housing comprising main plant growing chamber and a pre-growing chamber for seeds/seedlings, main tank and auxiliary tanks (5, 6, 7) for a nutrient solution and pH level regulating solutions, pumps (11, 12, 13, 16, 17, 18) and tubing, lighting means, ventilating means, control means, sensors (20, 30, 32), display means, loudspeaker and user input means, network communication means, connection to electric main, said cabinet comprises in the main chamber at least one module of plant growing pod stands, said module being slidable in and out of the main chamber, where each stand comprises in vertical direction multitude of plant grow pods one above the other, and in the pre-growing chamber at least one holder module for receiving several seed/seedling growing cups, said cup holder module being slidable in and out of the chamber, characterized in that said cabinet comprises connections to water mains and sewage, inside said housing cabinet comprises a module of a refill cartridge system for cartridges (8, 9, 10) with nutrients and chemicals for regulating pH level, where said module of a refill cartridge system comprises three cartridges (8, 9, 10), one cartridge for nutrients for growing plants, one cartridge for chemical for regulating pH level down and one cartridge for chemical for regulating pH level up, the concentration of nutrients in the nutrient solution in the main tank is replenished from the auxiliary tank for a nutrient solution and water from the water main and the pH level of solution in the main tank is regulated by the chemicals from the auxiliary tanks (6, 7) for chemicals for regulating pH level.
A bipolar-electrode electrolytic cell which includes a chassis, an electrode plate formed in a square shape and performing electrolysis in electrolyte solution and generating electrolyzed products, and a plate-shaped spacer having a concavity formed in a square shape and on which the electrode plate is disposed, and in which an unit cell, which is formed by connecting a plurality of spacers in which the electrode plate is disposed on the concavity so that one plate surface of the electrode plate is directed to one direction, is disposed inside the chassis, the cell comprising: an engaged portion which is provided on the concavity of the spacer; and an engaging portion which is formed on the electrode plate, wherein the engaged portion is a projecting wall, and the engaging portion is a cut-out portion which is formed such that an angle portion of the electrode plate is cut in a straight shape and in which, by cutting, two angles formed on the electrode plate are formed to be different from each other, and wherein the engaged portion and the engaging portion are positioned so as not to correspond to each other, and are prevented from disposing the electrode plate inside the concavity, when the other plate surface of the electrode plate is disposed on the concavity toward the one direction. an engaged portion which is provided on the concavity of the spacer; and an engaging portion which is formed on the electrode plate,
A ball joint having a first joint part and a second joint part for connecting a light part to a carrier part of a vehicle headlight, wherein the first joint part has a hollow-spherical bearing shell and the second joint part has a corresponding spherical bearing head to be received in the bearing shell, wherein the first joint part has at least one resiliently mounted fixing element, with which the bearing head in the mounted state of the ball joint can be pressed in the direction of the bearing shell, and the first joint part also has at least one movable locking element, with which, in the mounted state, the fixing element is locked against movement in a direction facing away from the bearing shell, characterised in that at least one control element is provided on the second joint part, with which control element the at least one locking element in the mounted state is held in a position locking the fixing element.
A coated confectionery product comprising: a) a confectionery center; b) a first coating surrounding the confectionery center, wherein the first coating comprises a carbohydrate and a buffered acid; c) a second coating surrounding the first coating, wherein the second coating comprises a carbohydrate and a sucrose ester; d) a third coating surrounding the second coating, wherein the third coating comprises a carbohydrate, a colorant, and a flavorant; and e) optionally a fourth coating surrounding the third coating, wherein the fourth coating comprises a polishing agent. a) a confectionery center; b) a first coating surrounding the confectionery center, wherein the first coating comprises a carbohydrate and a buffered acid; c) a second coating surrounding the first coating, wherein the second coating comprises a carbohydrate and a sucrose ester; d) a third coating surrounding the second coating, wherein the third coating comprises a carbohydrate, a colorant, and a flavorant; and e) optionally a fourth coating surrounding the third coating, wherein the fourth coating comprises a polishing agent.
A stable glutaraldehyde polymer complex solution which includes: (a) glutaraldehyde (OCH(CH 2) 3 CHO) in a 0.005% to 45% m/v concentration; (b) a non-ionic surfactant; (c) a buffer; (d) a sufficient amount of a pH modifier to bring the pH of the solution to within a 6.0 to 9.0 range; and (e) a polyvinyl pyrrolidone polymer. (a) glutaraldehyde (OCH(CH 2) 3 CHO) in a 0.005% to 45% m/v concentration; (b) a non-ionic surfactant; (c) a buffer; (d) a sufficient amount of a pH modifier to bring the pH of the solution to within a 6.0 to 9.0 range; and (e) a polyvinyl pyrrolidone polymer.
Lift truck, in particular for lifting and stacking boats, characterized in that it comprises: - a self-propelled main frame with wheels; - a telescopic boom pivotably connected close to the rear end of said main frame, said telescopic boom being pivotable around a pivot axis which is a substantially horizontal cross-axis regard to a for-and-aft direction of said truck, the telescopic boom rotating from a substantially horizontal laying arrangement to a substantially upright arrangement in which the center of gravity of the telescopic boom 30 is at the rear end of the truck; - a lift assembly comprising a pair of lift forks and a telescopic frame for supporting said pair of forks, said telescopic frame being pivotably connected at the end of said telescopic boom, said lift assembly pivoting around a pivot axis which is a substantially horizontal cross-axis with regard to a for-and-aft direction of said truck; - connection/control means apt to set a relation between the pivoting of said lift assembly around the pivot axis 42 thereof and the pivoting of said telescopic boom around the pivot axis thereof, for keeping said pair of lift forks in a substantially horizontally extending arrangement during said pivoting, characterised in that the lift assembly pivots around pivot axis such that when the telescopic boom has reached a vertical position, a portion of the lift assembly which forms a straight telescopic structure is substantially vertical and parallel to the telescopic boom, with said portion being adapted to be extended downwards. - a self-propelled main frame with wheels; - a telescopic boom pivotably connected close to the rear end of said main frame, said telescopic boom being pivotable around a pivot axis which is a substantially horizontal cross-axis regard to a for-and-aft direction of said truck, the telescopic boom rotating from a substantially horizontal laying arrangement to a substantially upright arrangement in which the center of gravity of the telescopic boom 30 is at the rear end of the truck; - a lift assembly comprising a pair of lift forks and a telescopic frame for supporting said pair of forks, said telescopic frame being pivotably connected at the end of said telescopic boom, said lift assembly pivoting around a pivot axis which is a substantially horizontal cross-axis with regard to a for-and-aft direction of said truck; - connection/control means apt to set a relation between the pivoting of said lift assembly around the pivot axis 42 thereof and the pivoting of said telescopic boom around the pivot axis thereof, for keeping said pair of lift forks in a substantially horizontally extending arrangement during said pivoting,
A closed-die forging method, comprising: placing a heated member to be forged on a lower die; and hammer-forging the member to be forged with a reciprocating upper die, wherein the method further comprises covering the member to be forged with a heat-insulation member including the whole portion of the member to be forged that contacts the lower die prior to forging, but excepting at least a part of a portion that contacts an upper die during forging, and then forging the member to be forged integrally with the metal heat-insulation member, characterized in that: - the member to be forged is a superalloy and the metal heat-insulation member is stainless steel, and - temperature control of the member to be forged takes place through an exposed portion of the member to be forged where the heat-insulation member has been omitted. - the member to be forged is a superalloy and the metal heat-insulation member is stainless steel, and - temperature control of the member to be forged takes place through an exposed portion of the member to be forged where the heat-insulation member has been omitted.