mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising an operational circuit, the operational circuit comprising: a combiner (510; 810, 815) to combine, in response to receiving a request for performing multiplication based on a plurality of integer numbers of a second data type for indicating integers that is different from a first data type for indicating floating-point numbers, a first integer number and a second integer number among the plurality of integer numbers; a multiplier to obtain a product of bits corresponding to mantissas of the floating-point numbers, wherein the bits are distinguished by the first data type, and wherein a third integer number of the plurality of integer numbers is inputted to a first port of the multiplier, and a fourth integer number indicating a combination of the first integer number and the second integer number is inputted to a second port of the multiplier; and a converter (530; 820) to output, in response to identifying a fifth integer number indicating a multiplication of the third integer number and the fourth integer number from a third port of the multiplier that is different from the first port and the second port, a sixth integer number indicating a multiplication of the first integer number and the third integer number, and a seventh integer number indicating a multiplication of the second integer number and the third integer number, based on the identified fifth integer number. a combiner (510; 810, 815) to combine, in response to receiving a request for performing multiplication based on a plurality of integer numbers of a second data type for indicating integers that is different from a first data type for indicating floating-point numbers, a first integer number and a second integer number among the plurality of integer numbers; a multiplier to obtain a product of bits corresponding to mantissas of the floating-point numbers, wherein the bits are distinguished by the first data type, and wherein a third integer number of the plurality of integer numbers is inputted to a first port of the multiplier, and a fourth integer number indicating a combination of the first integer number and the second integer number is inputted to a second port of the multiplier; and a converter (530; 820) to output, in response to identifying a fifth integer number indicating a multiplication of the third integer number and the fourth integer number from a third port of the multiplier that is different from the first port and the second port, a sixth integer number indicating a multiplication of the first integer number and the third integer number, and a seventh integer number indicating a multiplication of the second integer number and the third integer number, based on the identified fifth integer number.
A bonding wire for a semiconductor device comprising: a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein the bonding wire contains In, a concentration of In is 0.031% by mass or more and 1.2% by mass or less relative to the entire wire, wherein the Cu alloy core material contains optionally at least one element selected from Pt, Pd, Rh and Ni, and a concentration of each of the elements contained in the Cu alloy core material is 0.05 to 1.2% by mass and optionally at least one element selected from B, P, Mg, Ga and Ge, and a concentration of each of the elements is 1 to 100 ppm by mass relative to the entire wire and a balance of Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less, in a measurement result when measuring crystal orientations on a surface of the bonding wire, a crystal orientation <111> angled at 15 degrees or less to a longitudinal direction of the bonding wire has a proportion of 30% or more and 100% or less among crystal orientations in the wire longitudinal direction, and when forming a free air ball, precipitates on a surface of the FAB include concentrated In. a Cu alloy core material; and a Pd coating layer formed on a surface of the Cu alloy core material, wherein the bonding wire contains In, a concentration of In is 0.031% by mass or more and 1.2% by mass or less relative to the entire wire, wherein the Cu alloy core material contains optionally at least one element selected from Pt, Pd, Rh and Ni, and a concentration of each of the elements contained in the Cu alloy core material is 0.05 to 1.2% by mass and optionally at least one element selected from B, P, Mg, Ga and Ge, and a concentration of each of the elements is 1 to 100 ppm by mass relative to the entire wire and a balance of Cu and inevitable impurities, and a thickness of the Pd coating layer is 0.015 μm or more and 0.150 μm or less, in a measurement result when measuring crystal orientations on a surface of the bonding wire, a crystal orientation <111> angled at 15 degrees or less to a longitudinal direction of the bonding wire has a proportion of 30% or more and 100% or less among crystal orientations in the wire longitudinal direction, and when forming a free air ball, precipitates on a surface of the FAB include concentrated In.
An absorbent structure with a sequence of layers, comprising at least one liquid absorbent layer, a subsequent liquid storage layer with super absorbent polymer SAP, preferably SAP particles and/or SAP fibers, and a subsequent liquid distribution layer, wherein the layers are connected and form a layer structure, wherein at least the liquid storage layer and the liquid distribution layer at least respectively include an air-laid material as a main component, preferably an air-laid layer which includes cellulose fibers, wherein a portion of the air-laid material in the liquid distribution layer has smaller pores than a portion of the air-laid material in the liquid distribution layer, and wherein the liquid storage layer includes super absorbent polymer, preferably SAP particles, which extends from the liquid storage layer into liquid distribution layer for generating a reverse suction effect for liquid which has entered through the liquid absorption layer and the liquid storage layer into the liquid distribution layer, wherein more than 20% of the SAP particles and/or SAP fibers arranged in the liquid storage layer extend into the liquid distribution layer.
Cracking and shelling mechanism for nuts, for shelling machines, that comprises a plurality of first elongated parallel blocks with a first end (1.1) fastened to alternate movement means in both senses along the longitudinal axis thereof and a plurality of second elongated parallel blocks parallel to the first blocks and arranged in an alternate and adjacent way to the first blocks, wherein all blocks exhibit a first and second ends (1.1, 1.2, 2.1, 2.2) and two sides, in such a way that between the sides of each first and second blocks (1, 2) a plurality of vertical cracking through holes is defined, characterised in that the movement means of each first block comprise a seesaw element which is connected to at least one pair of blocks formed by said first block and an adjacent second block, such that the second blocks exhibit an alternate movement in both senses along the longitudinal axis thereof, and in opposite sense to the movement of said first adjacent block, wherein said seesaw element comprises a fixed central rotation shaft, placed at the same height than the plurality of first and second blocks (1, 2), a first rod connected by a first end (5.1) to the central shaft and connected by a second end (5.2) also to the first end (1.1) of the first block by first connection means or connectors, and a second rod connected by a first end (6.1) to the central shaft, diametrically opposed to the first rod, and connected by a second end (6.2) also to the first end (2.1) of the second blocks, by second connection means or connectors, wherein the first and second rods (5, 6) exhibit the same length.
A piezoelectric composition, characterized in that: a main component is a perovskite-typed oxide represented by formula of ABO 3, wherein, A site comprises Bi, Na, and B site comprises Ti, part of the Ti is substituted by transition metal element Me which is at least one element selected from the group consisting of Mn, Cr, Fe and Co, and according to the conversion of BiMeO 3, the content ratio of Bi and the transition metal element Me accounts for 6∼43 mol% relative to the whole perovskite-typed oxides as the main component. a main component is a perovskite-typed oxide represented by formula of ABO 3, wherein, A site comprises Bi, Na, and B site comprises Ti, part of the Ti is substituted by transition metal element Me which is at least one element selected from the group consisting of Mn, Cr, Fe and Co, and according to the conversion of BiMeO 3, the content ratio of Bi and the transition metal element Me accounts for 6∼43 mol% relative to the whole perovskite-typed oxides as the main component.
An image processing device for detecting a cell nucleus in a cell image (30, 40, 50) in which the cell nucleus is stained, comprising: a region-extracting unit to extract one or more candidate region(s) and region information of a cell nucleus from the cell image; an edge-extracting unit to extract an edge information of a cell nucleus from the cell image; a judging unit to judge, on the basis of the region information of the cell nucleus, whether a plurality of small candidate regions (82a-82f) is present in the region or whether a large candidate region is present in the region and to judge, on the basis of the region information of the cell nucleus and the edge information of the cell nucleus, whether to integrate the plurality of the small candidate regions (82a-82f) or whether to divide the large candidate region; and a correcting unit to correct the plurality of small candidate regions or the large candidate region of the cell nucleus on the basis of a judgement result by the judging unit and to detect the cell nucleus. a region-extracting unit to extract one or more candidate region(s) and region information of a cell nucleus from the cell image; an edge-extracting unit to extract an edge information of a cell nucleus from the cell image; a judging unit to judge, on the basis of the region information of the cell nucleus, whether a plurality of small candidate regions (82a-82f) is present in the region or whether a large candidate region is present in the region and to judge, on the basis of the region information of the cell nucleus and the edge information of the cell nucleus, whether to integrate the plurality of the small candidate regions (82a-82f) or whether to divide the large candidate region; and a correcting unit to correct the plurality of small candidate regions or the large candidate region of the cell nucleus on the basis of a judgement result by the judging unit and to detect the cell nucleus.
A method of controlling device-to-device, D2D, communication, the method comprising: a wireless communication device (10; 700; 900; 1100; 1200) obtaining configuration information defining multiple geographical areas; and via one or more multi-hop D2D paths each formed by one or more intermediate wireless communication devices forwarding the D2D transmission from one D2D path segment to a next D2D path segment, the wireless communication device (10; 700; 900; 1100; 1200) sending an outgoing D2D transmission comprising an area identifier to identify one of the geographical areas as target geographical area of the outgoing D2D transmission and to address the outgoing D2D transmission to one or more wireless communication devices in the identified target geographical area of the outgoing D2D transmission. a wireless communication device (10; 700; 900; 1100; 1200) obtaining configuration information defining multiple geographical areas; and via one or more multi-hop D2D paths each formed by one or more intermediate wireless communication devices forwarding the D2D transmission from one D2D path segment to a next D2D path segment, the wireless communication device (10; 700; 900; 1100; 1200) sending an outgoing D2D transmission comprising an area identifier to identify one of the geographical areas as target geographical area of the outgoing D2D transmission and to address the outgoing D2D transmission to one or more wireless communication devices in the identified target geographical area of the outgoing D2D transmission.
Apparatus for transporting articles, comprising a first, sheet-like structure and a second, sheet-like structure, wherein the first structure forms a planar running surface (1.1), which is directed towards the second structure, wherein the second structure forms a planar contact surface (2.1), which is directed towards the first structure, wherein the running surface (1.1) and the contact surface (2.1) are arranged parallel to one another, wherein the second structure has at least one ball roller (2.2), which is in contact with the running surface (1.1) of the first structure, and wherein the first structure and second structure can be displaced parallel to one another, characterized in that the at least one ball roller (2.2) is accommodated in a rotatable manner in the second structure and at least partially projects through the contact surface (2.1), in the direction of the running surface (1.1), by a distance, and thus defines a gap between the running surface (1.1) and the contact surface (2.1), and in that at least one opening (1.2) is provided in the running surface (1.1) of the first structure, wherein the at least one opening (1.2) is designed such that the at least one ball roller (2.2) can penetrate into the at least one opening (1.2) by at least the distance.
A regenerative brake device that uses a motor of a vehicle that is driven by battery power as a generative brake so as to charge the battery with an electromotive force of the motor, comprising: a brake sensor including a first brake sensor that senses an operation amount of a brake lever inclusive of a play and a second brake sensor that detects an operation force applied to the brake lever, the brake lever being provided for applying a brake through a manual brake equipped in the vehicle; and a power control unit that performs regenerative power control for charging the battery with the electromotive force of the motor based on a detection output signal from the brake sensor so that the regenerative brake is generated in accordance with the operation amount of the brake lever, wherein a manual brake application point at which the manual brake is actuated is detected based on an output signal of the first brake sensor and an output signal of the second brake sensor, and in a stage subsequent to the manual brake application point, the regenerative brake is applied more strongly as compared with a preceding play section. a brake sensor including a first brake sensor that senses an operation amount of a brake lever inclusive of a play and a second brake sensor that detects an operation force applied to the brake lever, the brake lever being provided for applying a brake through a manual brake equipped in the vehicle; and a power control unit that performs regenerative power control for charging the battery with the electromotive force of the motor based on a detection output signal from the brake sensor so that the regenerative brake is generated in accordance with the operation amount of the brake lever, wherein a manual brake application point at which the manual brake is actuated is detected based on an output signal of the first brake sensor and an output signal of the second brake sensor, and in a stage subsequent to the manual brake application point, the regenerative brake is applied more strongly as compared with a preceding play section.
An aromatic polycarbonate resin composition obtained by (i) dissolving an aromatic polycarbonate resin-A having a viscosity-average molecular weight of 11,000-21,000 and an aromatic polycarbonate resin-B having a viscosity-average molecular weight of 67,000-85,000 in a solvent and (ii) removing the solvent from the resulting resin solution, and wherein the aromatic polycarbonate resin composition comprises diffuser microparticles having an average particle size of 1-4 μm as measured by Coulter Counter method within a region with a diameter of 0.4-12 μm, and said diffuser microparticles are selected from the group consisting of polyorganosilsesquioxane microparticles and (meth)acrylic resin microparticles, wherein the resin composition comprises an alkali metal salt of an organic sulfonic acid and the content of the alkali metal salt of the organic sulfonic acid is 0.005-0.1% by mass relative to the total mass (100% by mass) of the aromatic polycarbonate resin-A and the aromatic polycarbonate resin-B, wherein the aromatic polycarbonate resin-A is contained in an amount of 60-90% by mass and the aromatic polycarbonate resin-B is contained in an amount of 10-40% by mass relative to the total amount of the aromatic polycarbonate resin-A and the aromatic polycarbonate resin-B, and wherein a haze value of a plate-like molded article having a thickness of 3.0 mm molded from the aromatic polycarbonate resin composition is 2% or lower, wherein measurement of the haze value for evaluating transparency is carried out in accordance with JIS K-7136, and the number of unmelted polycarbonate pieces having a long diameter of 100 μm or more existing within a region of 5 cm x 3 cm of the plate-like molded article is 10 or less, wherein the number of unmelted polycarbonate pieces having a long diameter of 100 μm or more existing within the region of 5 cm x 3 cm of the 3 mm-thick part of triple-stage plates used for the haze value measurement is counted with a microscope, wherein a test specimen for UL test having a thickness of 1.2 mm molded from the aromatic polycarbonate resin composition satisfies the UL-94 V-0 standard.
A composition for diagnosis of a Leptospira bacterium, the composition comprising a pair of primers of SEQ ID NOS: 1 and 2 and a probe of SEQ ID NO: 3.
A money handling apparatus, comprising: a receptacle configured to receive money; a plurality of storage units each configured to store the money and feed out the stored money; a dispenser configured to dispense the money fed out from the plurality of storage units in the dispensing process; a collection unit configured to store money in a container, the container being detachably mounted to the collection unit; and control circuitry configured to control storage of collection target money, which has been determined to be collected and removed from the money handling apparatus, in the container and at least one storage unit of the plurality of storage units characterized in that the control circuitry is further configured to after an amount of money to be removed from the money handling apparatus is determined, control transport of the collection target money, which constitutes the determined amount of money, from the storage units to the collection unit and control storage of the transported collection target money into the container, in a case that the container becomes full of money while a part of the collection target money remains in the storage units, perform a process to keep the remaining collection target money in the storage units, and control the dispenser to perform the dispensing process by using money other than the collection target money out of money stored in the storage units. a receptacle configured to receive money; a plurality of storage units each configured to store the money and feed out the stored money; a dispenser configured to dispense the money fed out from the plurality of storage units in the dispensing process; a collection unit configured to store money in a container, the container being detachably mounted to the collection unit; and control circuitry configured to control storage of collection target money, which has been determined to be collected and removed from the money handling apparatus, in the container and at least one storage unit of the plurality of storage units characterized in that the control circuitry is further configured to after an amount of money to be removed from the money handling apparatus is determined, control transport of the collection target money, which constitutes the determined amount of money, from the storage units to the collection unit and control storage of the transported collection target money into the container, in a case that the container becomes full of money while a part of the collection target money remains in the storage units, perform a process to keep the remaining collection target money in the storage units, and control the dispenser to perform the dispensing process by using money other than the collection target money out of money stored in the storage units.
Device for distributing power between n cathodes (Ki) of at least one multipolar stimulating electrode further comprising at least one anode, n being equal to or greater than two, and a reconfigurable current mirror comprising n outputs (K'i) capable of being coupled respectively to said n cathodes (Ki), characterised in that said current mirror is adapted to receive a control selecting, for each output, among several values, a coefficient value fixing the ratio between a current supplied to said output and a control current (Idac) of the mirror; said reconfigurable current mirror being adapted to supply to said n outputs (K'i) n complementary fractions (Iki) of said control current (Idac), the ratio between the current supplied to each of said n outputs and the control current (Idac) of the current mirror being fixed by the coefficient value selected for said output, said coefficient values selected for the outputs defining a spatial locating of the stimulation.
A method for wireless communication, comprising: receiving, over a wireless channel, a message from a base station comprising an indication of a quasi-collocation, QCL, relationship between one or more port groups of a first reference signal set and each of a plurality of port groups associated with a second reference signal set; and obtaining reference signal measurements for reference signals associated with the reference signal port groups based at least in part on the indicated QCL relationships. receiving, over a wireless channel, a message from a base station comprising an indication of a quasi-collocation, QCL, relationship between one or more port groups of a first reference signal set and each of a plurality of port groups associated with a second reference signal set; and obtaining reference signal measurements for reference signals associated with the reference signal port groups based at least in part on the indicated QCL relationships.