mhurhangee/patent-ind-claim-en huggingface dataset:
A data processing apparatus comprising: a first acquisition unit configured to acquire first measurement data that is a set of measurement values in a first period among time series data of measurement values of a sensor of interest; a second acquisition unit configured to acquire second measurement data that is a set of measurement values in a second period different from the first period among the time series data of the measurement values of the sensor of interest; a first differential unit configured to calculate, from the first measurement data, a first differential value set that is a set of first differential values in a time direction at a time included in the first period of the measurement values of the sensor of interest; a second differential unit configured to calculate, from the second measurement data, a second differential value set that is a set of second differential values in a time direction at a time included in the second period of the measurement values of the sensor of interest; a first distribution unit configured to generate a first differential value distribution using the first differential value set; a second distribution unit configured to generate a second differential value distribution using the second differential value set; a first output unit configured to output the first differential value distribution; and a second output unit configured to output the second differential value distribution, wherein the first and the second differential values represent time derivatives. a first acquisition unit configured to acquire first measurement data that is a set of measurement values in a first period among time series data of measurement values of a sensor of interest; a second acquisition unit configured to acquire second measurement data that is a set of measurement values in a second period different from the first period among the time series data of the measurement values of the sensor of interest; a first differential unit configured to calculate, from the first measurement data, a first differential value set that is a set of first differential values in a time direction at a time included in the first period of the measurement values of the sensor of interest; a second differential unit configured to calculate, from the second measurement data, a second differential value set that is a set of second differential values in a time direction at a time included in the second period of the measurement values of the sensor of interest; a first distribution unit configured to generate a first differential value distribution using the first differential value set; a second distribution unit configured to generate a second differential value distribution using the second differential value set; a first output unit configured to output the first differential value distribution; and a second output unit configured to output the second differential value distribution, wherein the first and the second differential values represent time derivatives.
A pipe repair device for repairing a leak in a pipe , comprising: a body ; a sensor attached to the body for detecting the leak in the pipe ; a transport mechanism attached to the body for transporting the pipe repair device along the pipe ; a repair mechanism comprising a repair material for repairing the leak ; a power supply, a motor, and a tether , wherein the tether connects the power supply to the motor, the power supply supplying power to the motor; and characterized in that the repair mechanism comprises a stent , the stent reconfigurable between a compressed orientation and an expanded orientation, wherein the stent comprises a spring and a seal , the spring biasing the stent to the expanded orientation. a body ; a sensor attached to the body for detecting the leak in the pipe ; a transport mechanism attached to the body for transporting the pipe repair device along the pipe ; a repair mechanism comprising a repair material for repairing the leak ; a power supply, a motor, and a tether , wherein the tether connects the power supply to the motor, the power supply supplying power to the motor; and characterized in that the repair mechanism comprises a stent , the stent reconfigurable between a compressed orientation and an expanded orientation, wherein the stent comprises a spring and a seal , the spring biasing the stent to the expanded orientation.
An air electrode composition comprising: oxide particles represented by the following Chemical Formula 1 and having a perovskite-type (ABO 3 ) structure; and an electrolyte material: [Chemical Formula 1] Bi x Ba 1-x E O 3-δ wherein, in Chemical Formula 1, 0.2<x<0.8; E is one or more elements selected from the group consisting of magnesium (Mg), aluminum (Al), gallium (Ga), indium (In), chromium (Cr), manganese (Mn), nickel (Ni), cobalt (Co), copper (Cu), zinc (Zn), and iron (Fe); and δ is a value making the oxide particle electrically neutral. oxide particles represented by the following Chemical Formula 1 and having a perovskite-type (ABO 3 ) structure; and an electrolyte material: [Chemical Formula 1] Bi x Ba 1-x E O 3-δ wherein, in Chemical Formula 1, 0.2<x<0.8; E is one or more elements selected from the group consisting of magnesium (Mg), aluminum (Al), gallium (Ga), indium (In), chromium (Cr), manganese (Mn), nickel (Ni), cobalt (Co), copper (Cu), zinc (Zn), and iron (Fe); and δ is a value making the oxide particle electrically neutral. 0.2<x<0.8; E is one or more elements selected from the group consisting of magnesium (Mg), aluminum (Al), gallium (Ga), indium (In), chromium (Cr), manganese (Mn), nickel (Ni), cobalt (Co), copper (Cu), zinc (Zn), and iron (Fe); and δ is a value making the oxide particle electrically neutral.
Carbonate apatite particles for use in a therapeutic method of treating cancer wherein - the carbonate apatite particles are administered with an anticancer agent, - the anticancer agent is not contained in the carbonate apatite particles, and - the therapeutic method is a method of enhancing accumulation of the anticancer agent in tumor tissue. - the carbonate apatite particles are administered with an anticancer agent, - the anticancer agent is not contained in the carbonate apatite particles, and - the therapeutic method is a method of enhancing accumulation of the anticancer agent in tumor tissue.
A refractory anchor comprising an elongated mounting pin having a first end and a second end opposite to the first end seen in the longitudinal direction of the elongated mounting pin , wherein the first end of the elongated mounting pin is weldable to an object, the refractory anchor further comprises two anchor fins of which each has a first anchor fin section having a first side and an opposing second side (11a", 13a") located at a distance of the elongated mounting pin with respect to the first side , wherein the first side is connected to the elongated mounting pin , characterised in that the two first anchor fin sections are located in one virtual plane, and a second anchor fin section is connected to the second side (11a", 13a") of each first anchor fin section , wherein seen from above the refractory anchor , each second anchor fin section branches off in a V-shaped manner from each first anchor fin section such that each first anchor fin section and each second anchor fin section together form a Y-shape on opposing sides to the elongated mounting pin .
A low voltage circuit breaker , in particular a molded case circuit breaker, having a plurality of phases each provided with a lug for electrical connection of said circuit breaker, a venting aperture for venting off gases, and a device for door and phase segregation comprising a conductive element fixed to a corresponding lug of said circuit breaker and provided with electrical connection means for electrical connection of said circuit breaker , whereby said device comprises a first insulating element covering said conductive element and a second insulating element interposed between two adjacent phases of said circuit breaker .
A fixed focal length imaging optical system consisting of, in order from an object side toward an image side: a first lens group (G1) having positive power; a second lens group (G2) having positive power; and a third lens group (G3) having negative power, wherein the second lens group (G2) includes a single lens element having positive power, and upon focusing, the second lens group (G2) moves along an optical axis, and the first lens group (G1) and the third lens group (G3) do not move wherein the first lens group (G1) consists of, in order from the object side toward the image side, - a first A lens group (G1A) having negative power, the first A lens group (G1A) consisting of, in order from the object side toward the image side, a first lens element (L1) having positive power, and a second lens element (L2) having negative power, - aperture diaphragm (A), and - a first B lens group (G1B) having positive power, wherein the second lens group (G2) consists of a single lens element (L7) having positive power, and a condition shown below is satisfied, 1.70 < Nd2G < 1.85 where Nd2G is a refractive index of the second lens group (G2) at a d-line. a first lens group (G1) having positive power; a second lens group (G2) having positive power; and a third lens group (G3) having negative power, wherein the second lens group (G2) includes a single lens element having positive power, and upon focusing, the second lens group (G2) moves along an optical axis, and the first lens group (G1) and the third lens group (G3) do not move wherein the first lens group (G1) consists of, in order from the object side toward the image side, - a first A lens group (G1A) having negative power, the first A lens group (G1A) consisting of, in order from the object side toward the image side, a first lens element (L1) having positive power, and a second lens element (L2) having negative power, - aperture diaphragm (A), and - a first B lens group (G1B) having positive power, - a first A lens group (G1A) having negative power, the first A lens group (G1A) consisting of, in order from the object side toward the image side, a first lens element (L1) having positive power, and a second lens element (L2) having negative power, - aperture diaphragm (A), and - a first B lens group (G1B) having positive power, wherein the second lens group (G2) consists of a single lens element (L7) having positive power, and a condition shown below is satisfied, 1.70 < Nd2G < 1.85 where Nd2G is a refractive index of the second lens group (G2) at a d-line.
Pack for preparing a food or beverage product from one or more food or beverage ingredients comprising an insert and a container where the ingredient or ingredients are stored, the insert comprising at least a fluid inlet configured for introducing an aqueous fluid under the form of a jet in the inner volume of the pack, the insert further comprising at least an air conduit configured to allow introducing air from the exterior of the pack and into the inner volume of the said pack through at least an air nozzle , characterized in that the insert comprises at least two parts moveable with respect to each other, comprising at least one moveable part , moveable with respect to a fixed part and comprising at least an air conduit the insert comprising at least a fluid inlet configured for introducing an aqueous fluid under the form of a jet in the inner volume of the pack, the insert further comprising at least an air conduit configured to allow introducing air from the exterior of the pack and into the inner volume of the said pack through at least an air nozzle , characterized in that the insert comprises at least two parts moveable with respect to each other, comprising at least one moveable part , moveable with respect to a fixed part and comprising at least an air conduit
Carrier for carrying an ophthalmic lens, in particular a contact lens such as a soft contact lens, during its treatment in a bath, the carrier comprising: a basket comprising a basket wall defining a concave cavity for accommodating an ophthalmic lens, the basket further comprising a plurality of recesses arranged in the basket wall at different angular locations along the circumference of the basket , each recess of the plurality of recesses being arranged to extend downwardly from an upper rim of the basket wall; and a retainer comprising a plurality of retainer arms corresponding to the plurality of recesses arranged in the basket wall, the retainer arms being arranged in a star-shaped configuration at angular locations corresponding to the angular locations of the recesses along the circumference of the basket , to in an assembled state of two such carriers extend into a corresponding one of the plurality of recesses in the basket wall to retain the ophthalmic lens in the carrier, wherein the basket wall defining the concave cavity comprises first and second concavely curved sections , the first and second concavely curved sections each having a curvature, characterized in that the curvature of the first concavely curved section is different from the curvature of the second concavely curved section . a basket comprising a basket wall defining a concave cavity for accommodating an ophthalmic lens, the basket further comprising a plurality of recesses arranged in the basket wall at different angular locations along the circumference of the basket , each recess of the plurality of recesses being arranged to extend downwardly from an upper rim of the basket wall; and a retainer comprising a plurality of retainer arms corresponding to the plurality of recesses arranged in the basket wall, the retainer arms being arranged in a star-shaped configuration at angular locations corresponding to the angular locations of the recesses along the circumference of the basket , to in an assembled state of two such carriers extend into a corresponding one of the plurality of recesses in the basket wall to retain the ophthalmic lens in the carrier, wherein the basket wall defining the concave cavity comprises first and second concavely curved sections , the first and second concavely curved sections each having a curvature, characterized in that the curvature of the first concavely curved section is different from the curvature of the second concavely curved section .
Female part of a connector unit , comprising: - a shuttle piston , wherein the shuttle piston comprises - at least one magnetic connecting device for establishing a magnetic connection between the shuttle piston and at least one magnetic connecting aid of a male part of the connector unit , wherein the magnetic connecting device comprises at least one magnetic structure , wherein the magnetic structure comprises a magnet assembly and wherein the magnet assembly comprises at least two sections (38.1, 38.2, 38.3, 40.1, 40.2, 40.3) with differently oriented magnetic poles. - a shuttle piston , wherein the shuttle piston comprises - at least one magnetic connecting device for establishing a magnetic connection between the shuttle piston and at least one magnetic connecting aid of a male part of the connector unit , wherein the magnetic connecting device comprises at least one magnetic structure ,
A LED filament including a linear array of LEDs arranged on a carrier substrate , wherein: the linear array is divided into two separate longitudinal sections, a first longitudinal section including only LEDs configured to emit white light with a color temperature , and a second longitudinal section including only color controllable LEDs configured to emit color controllable light, said color controllable LEDs comprise LED groups each including a red LED , a green LED and a blue LED , within each group the LEDs (27a-c) are arranged non-linearly, e.g. in a triangle fashion, and wherein LEDs in each group are separated by a first, intra-group distance, and wherein groups are separated by a second, inter-group distance, wherein said inter-group distance is greater than said intra-group distance. the linear array is divided into two separate longitudinal sections, a first longitudinal section including only LEDs configured to emit white light with a color temperature , and a second longitudinal section including only color controllable LEDs configured to emit color controllable light, said color controllable LEDs comprise LED groups each including a red LED , a green LED and a blue LED , within each group the LEDs (27a-c) are arranged non-linearly, e.g. in a triangle fashion, and wherein LEDs in each group are separated by a first, intra-group distance, and wherein groups are separated by a second, inter-group distance, wherein said inter-group distance is greater than said intra-group distance.
A motor driven propulsor for an aircraft, the motor driven propulsor comprising: fan blades connected with a fan hub ; magnets disposed in fan shrouds of the fan blades ; a nacelle ; a stator ; characterized in that the stator has individual conductive coils in the nacelle located radially outside of the fan hub ; and in that the motor driven propulsor further comprises a distributed inverter assembly having several inverter power stages and gate drivers , the inverter power stages coupled with the gate drivers and the coils in the stator , wherein the gate drivers are configured to control supply of direct current to the inverter power stages , and the inverter power stages are configured to convert the direct current supplied to the inverter power stages to alternating current that is supplied to the coils in the stator to rotate the magnets and the fan blades around a center line of the fan hub for propelling the aircraft. fan blades connected with a fan hub ; magnets disposed in fan shrouds of the fan blades ; a nacelle ; a stator ; the stator has individual conductive coils in the nacelle located radially outside of the fan hub ; and in that the motor driven propulsor further comprises a distributed inverter assembly having several inverter power stages and gate drivers , the inverter power stages coupled with the gate drivers and the coils in the stator , wherein the gate drivers are configured to control supply of direct current to the inverter power stages , and the inverter power stages are configured to convert the direct current supplied to the inverter power stages to alternating current that is supplied to the coils in the stator to rotate the magnets and the fan blades around a center line of the fan hub for propelling the aircraft. a distributed inverter assembly having several inverter power stages and gate drivers , the inverter power stages coupled with the gate drivers and the coils in the stator , wherein the gate drivers are configured to control supply of direct current to the inverter power stages , and the inverter power stages are configured to convert the direct current supplied to the inverter power stages to alternating current that is supplied to the coils in the stator to rotate the magnets and the fan blades around a center line of the fan hub for propelling the aircraft.
A method for reducing or completely closing an opening in a inner contour of a workpiece by means of a material melted by a laser deposition welding device , comprising the steps of: - providing a workpiece with an inner contour having an opening defined by an edge portion , characterized by - forming a plurality of base webs from molten material by means of laser deposition welding by starting at said edge portion of said inner contour of the workpiece such that the formed base webs protrude from said edge portion at a predetermined angle, - joining adjacent base webs by forming base webs from molten material by means of laser deposition welding in such a way that a support structure comprising base webs and connecting webs is formed, - forming a cover layer which is made of molten material and is connected to said support structure such that the opening of the inner contour is reduced or completely closed. - providing a workpiece with an inner contour having an opening defined by an edge portion , - forming a plurality of base webs from molten material by means of laser deposition welding by starting at said edge portion of said inner contour of the workpiece such that the formed base webs protrude from said edge portion at a predetermined angle, - joining adjacent base webs by forming base webs from molten material by means of laser deposition welding in such a way that a support structure comprising base webs and connecting webs is formed, - forming a cover layer which is made of molten material and is connected to said support structure such that the opening of the inner contour is reduced or completely closed.
Method for encoding a digital datum using a permutation code in which code vectors are constructed by permutations of components of a first code vector, wherein each code vector is indexed by a respective rank, said method comprising: - determining (OP1) a code vector associated with the digital datum; - determining (OP2) the rank of said code vector that has been determined, said rank being written as a sum of partial ranks, the determination of the rank comprising: - calculating (G-4) a partial rank I k d k , said partial rank being a function of combinatorial expressions that include a product and/or a division of factorials, by virtue of decompositions of said combinatorial expressions into powers of prime factors, wherein the decompositions of the combinatorial expressions into powers of prime factors are determined on the basis of prerecorded tables of decompositions of predetermined integers into powers of prime factors, the calculation of the partial rank being determined by an addition and/or a subtraction of exponents derived from the decompositions of the combinatorial expressions into powers of prime factors; - sending said rank to a decoder. - determining (OP1) a code vector associated with the digital datum; - determining (OP2) the rank of said code vector that has been determined, said rank being written as a sum of partial ranks, the determination of the rank comprising: - calculating (G-4) a partial rank I k d k , said partial rank being a function of combinatorial expressions that include a product and/or a division of factorials, by virtue of decompositions of said combinatorial expressions into powers of prime factors, wherein the decompositions of the combinatorial expressions into powers of prime factors are determined on the basis of prerecorded tables of decompositions of predetermined integers into powers of prime factors, the calculation of the partial rank being determined by an addition and/or a subtraction of exponents derived from the decompositions of the combinatorial expressions into powers of prime factors; - calculating (G-4) a partial rank I k d k , said partial rank being a function of combinatorial expressions that include a product and/or a division of factorials, by virtue of decompositions of said combinatorial expressions into powers of prime factors, wherein the decompositions of the combinatorial expressions into powers of prime factors are determined on the basis of prerecorded tables of decompositions of predetermined integers into powers of prime factors, the calculation of the partial rank being determined by an addition and/or a subtraction of exponents derived from the decompositions of the combinatorial expressions into powers of prime factors; - sending said rank to a decoder.