mhurhangee/ep-ind-claims huggingface dataset:
A communication terminal comprising: a video data reception unit for receiving video data; a display unit for displaying the video data received by the video data reception unit; an indication input unit for receiving indication input to the display unit; an indication recognition unit for recognizing whether the indication input is an indication to video displayed on the display unit; a transmission unit for transmitting search data to a search server when the indication recognition unit recognizes the indication to the video, wherein the search data include indicated coordinate information based on the indication and indication timing information at the indication; an object data reception unit for receiving object data searched by the search server based on the search data; and a control unit for controlling the display unit to display the object data received by the object data reception unit, characterized in that the search data include a plurality of indication timing information indicating times before the indication. a video data reception unit for receiving video data; a display unit for displaying the video data received by the video data reception unit; an indication input unit for receiving indication input to the display unit; an indication recognition unit for recognizing whether the indication input is an indication to video displayed on the display unit; a transmission unit for transmitting search data to a search server when the indication recognition unit recognizes the indication to the video, wherein the search data include indicated coordinate information based on the indication and indication timing information at the indication; an object data reception unit for receiving object data searched by the search server based on the search data; and a control unit for controlling the display unit to display the object data received by the object data reception unit, characterized in that the search data include a plurality of indication timing information indicating times before the indication.
A method of synchronizing positions of at least two actuators, wherein the actuators are driven with electric motors which are controlled by frequency converters, and wherein the method comprises, for each actuator, using the frequency converter for estimating a position of the actuator by estimating the rotational speed of the motor, and detecting a time instant of the actuator reaching a certain position by using at least one position indicator in or on the actuator, and wherein the method further comprises controlling a rotational speed of at least one of the electric motors on the basis of the estimated positions of the actuators, calculating at least one time difference between the detected time instants of the at least two actuators reaching their certain positions, and adjusting the rotational speed of the at least one of the electric motors on the basis of the at least one calculated time difference for synchronizing positions of the at least two actuators. controlling a rotational speed of at least one of the electric motors on the basis of the estimated positions of the actuators, calculating at least one time difference between the detected time instants of the at least two actuators reaching their certain positions, and adjusting the rotational speed of the at least one of the electric motors on the basis of the at least one calculated time difference for synchronizing positions of the at least two actuators.
An adhesive composition predominantly comprising one or two polyamides consisting of units chosen from: - at least one unit denoted A with a mean number of carbon atoms per nitrogen atom, denoted C A, ranging from 4 to 8.5, - at least one unit denoted B with a mean number of carbon atoms per nitrogen atom, denoted C B, ranging from 7 to 10, - at least one unit denoted C with a mean number of carbon atoms per nitrogen atom, denoted Cc, ranging from 9 to 18, and - optionally at least one unit Z other than an amide unit; the three units A, B and C being present in said polyamide or together in said polyamides; one of the units A, B or C being in a very predominant proportion in the copolyamide(s) and representing from 80% to 97% by weight relative to the total weight of the copolyamide, the mean number of carbon atoms per nitrogen atom of the units A, B and C also corresponding to the following strict inequality: C A < C B < C C, the heat of fusion of the polyamide or the mass-weighted mean of the heats of fusion of the mixture of polyamides in said composition being greater than 25 J/g measured by DSC in accordance with standard ISO 11357, the melting point of the or of each of the polyamides being greater than 150°C measured by DSC in accordance with standard ISO 11357. - at least one unit denoted A with a mean number of carbon atoms per nitrogen atom, denoted C A, ranging from 4 to 8.5, - at least one unit denoted B with a mean number of carbon atoms per nitrogen atom, denoted C B, ranging from 7 to 10, - at least one unit denoted C with a mean number of carbon atoms per nitrogen atom, denoted Cc, ranging from 9 to 18, and - optionally at least one unit Z other than an amide unit;
An appliance monitoring apparatus comprising, a flow detection unit disposed in a gas flow path in a gas meter and configured to detect a gas flow and to output a gas flow signal; an appliance determination unit configured to determine a gas appliance used by a client from the gas flow and a gas consumption time in accordance with the signal from the gas flow detection unit, and to output the gas flow signal used by the gas appliance; a CO 2 emission data storage unit configured to store, as database, an amount of a CO 2 emission previously determined for each appliance from a plurality of types of gas appliances; a comparative CO 2 emission data storage unit configured to previously store, as database, an amount of CO 2 emission produced during combustion by an appliance to be compared with a gas appliance used by the client; and a CO 2 emission calculation unit configured to: compute, integrate, and store an amount of CO 2 emission based on the CO 2 emission data pertaining to a gas appliance selected from the CO 2 emission data storage unit on receipt of a signal from the appliance determination unit, a gas flow of the selected gas appliance, and a gas consumption time of the selected gas appliance; compute, integrate, and store a comparative amount of CO 2 emission based on CO 2 emission data pertaining to a comparative appliance selected from the comparative CO 2 emission data storage unit, the gas flow of the selected comparative gas appliance on receipt of a signal from the appliance determination unit, and the gas consumption time of the selected comparative gas appliance; and compute and store a difference between the amount of CO 2 emission and the comparative amount of CO 2 emission. compute, integrate, and store an amount of CO 2 emission based on the CO 2 emission data pertaining to a gas appliance selected from the CO 2 emission data storage unit on receipt of a signal from the appliance determination unit, a gas flow of the selected gas appliance, and a gas consumption time of the selected gas appliance; compute, integrate, and store a comparative amount of CO 2 emission based on CO 2 emission data pertaining to a comparative appliance selected from the comparative CO 2 emission data storage unit, the gas flow of the selected comparative gas appliance on receipt of a signal from the appliance determination unit, and the gas consumption time of the selected comparative gas appliance; and compute and store a difference between the amount of CO 2 emission and the comparative amount of CO 2 emission.
A computerized method for determining shallow water flow risk using seismic data comprising: developing a geologic model of shallow water flow risk areas to evaluate seismic data; selecting a control location within the seismic data based on stratigraphic analysis on the seismic data using the geologic model; applying a pre-stack waveform inversion on the seismic data at the selected control location to provide an elastic model, wherein the elastic model comprises pressure-wave velocity and shear-wave velocity; and determining the shallow water flow risk using the elastic model by comparing the pressure-wave velocity to the shear-wave velocity. developing a geologic model of shallow water flow risk areas to evaluate seismic data; selecting a control location within the seismic data based on stratigraphic analysis on the seismic data using the geologic model; applying a pre-stack waveform inversion on the seismic data at the selected control location to provide an elastic model, wherein the elastic model comprises pressure-wave velocity and shear-wave velocity; and determining the shallow water flow risk using the elastic model by comparing the pressure-wave velocity to the shear-wave velocity.
A vane structure (64A, 64B) for a gas turbine engine comprising: a CMC outer ring; a metal alloy inner ring; and a multiple of CMC airfoil sections between said CMC outer ring and said metal alloy inner ring, characterized in that each of said multiple of CMC airfoil sections includes an inner platform structure and an outer platform structure. a CMC outer ring; a metal alloy inner ring; and a multiple of CMC airfoil sections between said CMC outer ring and said metal alloy inner ring, characterized in that each of said multiple of CMC airfoil sections includes an inner platform structure and an outer platform structure.
Fan device to be connected to a gas burner formed to premix a gas-air-mixture prior to delivery to the gas burner having a fan housing comprising a fan outlet and a manifold formed integrally to the fan housing to be connected to the gas burner, wherein the manifold is designed to deliver the gas-air-mixture conveyed by the fan device to the gas burner via an extended surface area compared to the fan outlet, characterized in that the fan outlet, respectively parts thereof, having a predetermined shape to generate a defined flow within the manifold extend into the manifold. a fan housing comprising a fan outlet and a manifold formed integrally to the fan housing to be connected to the gas burner, wherein the manifold is designed to deliver the gas-air-mixture conveyed by the fan device to the gas burner via an extended surface area compared to the fan outlet, characterized in that the fan outlet, respectively parts thereof, having a predetermined shape to generate a defined flow within the manifold extend into the manifold.
A sole for an article of footwear comprising: a base having an outer edge defining a perimeter, the base having a forefoot portion, a midfoot portion and a heel portion; and a plurality of resilient projections extending from the base, wherein the plurality of projections includes a plurality of projections extending non-orthogonally from the base about the perimeter of the base and a plurality of projections extending substantially orthogonally from the base within the non-orthogonal projections, wherein said resilient projections have different sizes, characterised in that four of the resilient projections are larger than the rest of resilient projections and are disposed on the medial side of the sole in the forefoot region, in that the four largest resilient projections are formed in a quadrilateral arrangement, in that two of the four largest resilient projections are disposed about the perimeter and the other two of the four largest resilient projections are interiorly adjacent to these largest resilient projections, and in that a single resilient projection is formed within the four largest resilient projections. a base having an outer edge defining a perimeter, the base having a forefoot portion, a midfoot portion and a heel portion; and a plurality of resilient projections extending from the base, wherein the plurality of projections includes a plurality of projections extending non-orthogonally from the base about the perimeter of the base and a plurality of projections extending substantially orthogonally from the base within the non-orthogonal projections, wherein said resilient projections have different sizes, characterised in that four of the resilient projections are larger than the rest of resilient projections and are disposed on the medial side of the sole in the forefoot region, in that the four largest resilient projections are formed in a quadrilateral arrangement, in that two of the four largest resilient projections are disposed about the perimeter and the other two of the four largest resilient projections are interiorly adjacent to these largest resilient projections, and in that a single resilient projection is formed within the four largest resilient projections.
A scanning microscope comprising: - a stage for holding a sample; - a scan mechanism for translating the stage between at least two axial positions (34, 36) in a scan direction, wherein a transverse position (84, 86) of the stage relative to an ideal transverse position (88, 90) may vary due to the translation wherein an orientation of the stage relative to an ideal orientation may vary, and wherein each of the at least two axial positions (34, 36) of the stage is associated with a corresponding predefined region (24, 25) to be probed of the sample; - a probing system for probing the region (24, 25) of the sample, the probing system comprising an optical element (32, 40, 58) and a photosensor (22, 23) having a readout region, the readout region extending in a direction, which is transverse to the ideal orientation; - a position sensor (26, 80, 82, 94, 96, 98, 100) for measuring the transverse position (84, 86) of the stage and/or the orientation of the stage, wherein the position sensor comprises two measuring devices arranged to measure the position or the distance of the stage with respect to a fixed frame of reference of the scanning microscope, wherein the two measuring devices are offset in the scan direction; and - a controller which is configured to adapt the probing system as a function of the measured transverse position (84, 86) and/or the measured orientation, and wherein the controller is adapted to correct a non-straightness of the translation of the stage. - a stage for holding a sample; - a scan mechanism for translating the stage between at least two axial positions (34, 36) in a scan direction, wherein a transverse position (84, 86) of the stage relative to an ideal transverse position (88, 90) may vary due to the translation wherein an orientation of the stage relative to an ideal orientation may vary, and wherein each of the at least two axial positions (34, 36) of the stage is associated with a corresponding predefined region (24, 25) to be probed of the sample; - a probing system for probing the region (24, 25) of the sample, the probing system comprising an optical element (32, 40, 58) and a photosensor (22, 23) having a readout region, the readout region extending in a direction, which is transverse to the ideal orientation; - a position sensor (26, 80, 82, 94, 96, 98, 100) for measuring the transverse position (84, 86) of the stage and/or the orientation of the stage, wherein the position sensor comprises two measuring devices arranged to measure the position or the distance of the stage with respect to a fixed frame of reference of the scanning microscope, wherein the two measuring devices are offset in the scan direction; and - a controller which is configured to adapt the probing system as a function of the measured transverse position (84, 86) and/or the measured orientation, and
A device for transcatheter treatment for tricuspid regurgitation, the device comprising: a cerclage wire; a coronary sinus tube adapted to be inserted into the coronary sinus; and a tricuspid valve tube adapted to traverse the tricuspid valve,wherein the coronary sinus tube and the tricuspid valve tube communicate with each other or are adjacent to each other within a range of predetermined length at an upper side and are separate from each other at a lower side, a blocking member for blocking a space generated by incomplete closing of the tricuspid valve is provided at the lower part of the tricuspid valve tube or between the coronary sinus tube and the tricuspid valve tube, characterized in that a stopper for preventing an end of the tricuspid valve tube from piercing into the interventricular septum is provided at the lower side of the tricuspid valve tube, a movable tube adapted for moving the stopper is inserted into the tricuspid valve tube, and the stopper is provided at a lower end of the movable tube for moving the stopper, and is adapted to be moved along the cerclage wire according to movement of the movable tube for moving the stopper. a cerclage wire; a coronary sinus tube adapted to be inserted into the coronary sinus; and a tricuspid valve tube adapted to traverse the tricuspid valve,wherein the coronary sinus tube and the tricuspid valve tube communicate with each other or are adjacent to each other within a range of predetermined length at an upper side and are separate from each other at a lower side, a blocking member for blocking a space generated by incomplete closing of the tricuspid valve is provided at the lower part of the tricuspid valve tube or between the coronary sinus tube and the tricuspid valve tube, characterized in that a stopper for preventing an end of the tricuspid valve tube from piercing into the interventricular septum is provided at the lower side of the tricuspid valve tube, a movable tube adapted for moving the stopper is inserted into the tricuspid valve tube, and the stopper is provided at a lower end of the movable tube for moving the stopper, and is adapted to be moved along the cerclage wire according to movement of the movable tube for moving the stopper.
A method for welding electrode tabs comprising: performing main welding through resistance welding to connect electrode tabs protruded from electrode plates provided in a battery and lead parts electrically connecting the electrode tabs to external terminals and having a lead film on the surfaces thereof, wherein, in main welding, a welding part is formed in a partial section of an overlapping region between the electrode tab and the lead part, and a non-welding section is formed between the welding part and the lead film, and wherein main welding is performed using a welding guide member to measure the position of the non-welding section. performing main welding through resistance welding to connect electrode tabs protruded from electrode plates provided in a battery and lead parts electrically connecting the electrode tabs to external terminals and having a lead film on the surfaces thereof, wherein, in main welding, a welding part is formed in a partial section of an overlapping region between the electrode tab and the lead part, and a non-welding section is formed between the welding part and the lead film, and wherein main welding is performed using a welding guide member to measure the position of the non-welding section.
An oral care implement (100, 400, 600) comprising: a body (105, 405, 605) comprising a handle (120, 420, 620), a head (110, 410, 610) coupled to the handle (120, 420, 620), and an internal cavity (140, 440) containing an oral care material (141, 441); a roll-on applicator (130, 430, 630) rotatably mounted to the body (105, 405, 605), such that the oral care material (141, 441) is delivered from the internal cavity (140, 440) to an exposed portion (132a, 132b, 132c, 432) of the roll-on applicator (130, 430, 630) due to rotation of the roll-on applicator (130, 430, 630); and a field of tooth cleaning elements (116, 616) extending from a front surface (111, 611) of the head (110, 610), wherein the roll-on applicator (130, 630) is located on the front surface of the head and within the field of tooth cleaning elements. a body (105, 405, 605) comprising a handle (120, 420, 620), a head (110, 410, 610) coupled to the handle (120, 420, 620), and an internal cavity (140, 440) containing an oral care material (141, 441); a roll-on applicator (130, 430, 630) rotatably mounted to the body (105, 405, 605), such that the oral care material (141, 441) is delivered from the internal cavity (140, 440) to an exposed portion (132a, 132b, 132c, 432) of the roll-on applicator (130, 430, 630) due to rotation of the roll-on applicator (130, 430, 630); and a field of tooth cleaning elements (116, 616) extending from a front surface (111, 611) of the head (110, 610), wherein the roll-on applicator (130, 630) is located on the front surface of the head and within the field of tooth cleaning elements.
A method of producing a copper alloy sheet material for electrical or electronic parts, having an alloy composition containing any one or both of Ni and Co in an amount of 0.5 to 5.0 mass% in total, Si in an amount of 0.2 to 1.5 mass%, optionally Cr in an amount of 0.05 to 0.5 mass%, and optionally at least one selected from the group consisting of Zn, Sn, Mg, Ag, Mn, and Zr in an amount of 0.01 to 1.0 mass% in total, with the balance being Cu and inevitable impurities, wherein the copper alloy sheet material has a 0.2% proof stress in the rolling direction of 500 MPa or more, an electrical conductivity of 30 %IACS or more, a Young's modulus of 110 GPa or less, and a factor of bending deflection of 105 GPa or less, containing, in this order, the steps of: subjecting a copper alloy to give the alloy composition to casting; hot-rolling; cold-rolling 1 at a rolling ratio of 70% or higher; intermediate annealing at 300 to 800°C for 5 seconds to 2 hours; cold-rolling 2 at a rolling ratio of 3 to 60%; solution heat treatment at 600 to 1,000°C for 5 seconds to 300 seconds; aging heat treatment at 400 to 600°C for 0.5 hours to 8 hours; finish cold-rolling at a working ratio of 50% or less; and low-temperature annealing at 300 to 700°C for 10 seconds to 2 hours, wherein the method of producing further contains, conducting at least any one or both of the following steps and: slowly cooling at a cooling speed of 5 K/second or less to a temperature of 350°C, after the hot-rolling; and carrying out the intermediate annealing and the cold-rolling 2, repeatedly two times or more. subjecting a copper alloy to give the alloy composition to casting; hot-rolling; cold-rolling 1 at a rolling ratio of 70% or higher; intermediate annealing at 300 to 800°C for 5 seconds to 2 hours; cold-rolling 2 at a rolling ratio of 3 to 60%; solution heat treatment at 600 to 1,000°C for 5 seconds to 300 seconds; aging heat treatment at 400 to 600°C for 0.5 hours to 8 hours; finish cold-rolling at a working ratio of 50% or less; and low-temperature annealing at 300 to 700°C for 10 seconds to 2 hours, wherein the method of producing further contains, conducting at least any one or both of the following steps and: slowly cooling at a cooling speed of 5 K/second or less to a temperature of 350°C, after the hot-rolling; and carrying out the intermediate annealing and the cold-rolling 2, repeatedly two times or more. slowly cooling at a cooling speed of 5 K/second or less to a temperature of 350°C, after the hot-rolling; and carrying out the intermediate annealing and the cold-rolling 2, repeatedly two times or more.