mhurhangee/ep-ind-claims huggingface dataset:
A power supply device comprising: a battery cell assembly being an assembly of battery cells each having electrodes; and a battery connecting block placed on a side of the battery cell assembly where the electrodes protrude, the battery connecting block comprising a case body including first and second divided fixing portions (12, 13, 15) connected to each other via a flexural deformation portion (14, 16), wherein the flexural deformation portion (14, 16) includes a first rising linear portion having one end fixed to the first divided fixing portion (12, 13, 15), a second rising linear portion having one end fixed to the second divided fixing portion (12, 13, 15), first and second curve portions bent at the other ends of the first and second rising linear portions in a direction to come close to each other, and a linear portion connecting the first and second curve portions to each other, characterized in that the flexural deformation portion (14, 16) includes a first set of reinforcement ribs provided at two ends of a portion for connection between the first rising linear portion and the first divided fixing portion (12, 13, 15) and a second set of reinforcement ribs provided at two ends of a portion for connection between the second rising linear portion and the second divided fixing portion (12, 13, 15). a battery cell assembly being an assembly of battery cells each having electrodes; and a battery connecting block placed on a side of the battery cell assembly where the electrodes protrude, the battery connecting block comprising a case body including first and second divided fixing portions (12, 13, 15) connected to each other via a flexural deformation portion (14, 16), wherein the flexural deformation portion (14, 16) includes a first rising linear portion having one end fixed to the first divided fixing portion (12, 13, 15), a second rising linear portion having one end fixed to the second divided fixing portion (12, 13, 15), first and second curve portions bent at the other ends of the first and second rising linear portions in a direction to come close to each other, and a linear portion connecting the first and second curve portions to each other, a first rising linear portion having one end fixed to the first divided fixing portion (12, 13, 15), a second rising linear portion having one end fixed to the second divided fixing portion (12, 13, 15), first and second curve portions bent at the other ends of the first and second rising linear portions in a direction to come close to each other, and a linear portion connecting the first and second curve portions to each other, characterized in that the flexural deformation portion (14, 16) includes a first set of reinforcement ribs provided at two ends of a portion for connection between the first rising linear portion and the first divided fixing portion (12, 13, 15) and a second set of reinforcement ribs provided at two ends of a portion for connection between the second rising linear portion and the second divided fixing portion (12, 13, 15).
A security information configuration method, comprising: generating (201, 301), by a system on chip, SoC, an asymmetric key pair, wherein the asymmetric key pair comprises a public key and a private key; writing (202, 302), by the SoC, the private key into an electrically programmable fuse, eFuse, of the SoC; encrypting (203, 303), by the SoC, the public key; writing (204, 304), by the SoC, the encrypted public key into a flash memory for storage; obtaining (205, 305), by the SoC, target software information from the flash memory, and generating first digest information according to the target software information, wherein the target software information is used to start target software; using (206, 306), by the SoC, the public key or the private key to make a signature for the first digest information, so as to obtain signature information; and writing (207, 307), by the SoC, the signature information into the flash memory, wherein the encrypting (203, 303), by the SoC, the public key comprises determining, by the SoC, a symmetric key according to the private key, and encrypting the public key by using the symmetric key. generating (201, 301), by a system on chip, SoC, an asymmetric key pair, wherein the asymmetric key pair comprises a public key and a private key; writing (202, 302), by the SoC, the private key into an electrically programmable fuse, eFuse, of the SoC; encrypting (203, 303), by the SoC, the public key; writing (204, 304), by the SoC, the encrypted public key into a flash memory for storage; obtaining (205, 305), by the SoC, target software information from the flash memory, and generating first digest information according to the target software information, wherein the target software information is used to start target software; using (206, 306), by the SoC, the public key or the private key to make a signature for the first digest information, so as to obtain signature information; and writing (207, 307), by the SoC, the signature information into the flash memory, wherein the encrypting (203, 303), by the SoC, the public key comprises determining, by the SoC, a symmetric key according to the private key, and encrypting the public key by using the symmetric key.
A computer implemented method for managing conditions for electronic trade finance transactions utilizing a decentralized blockchain system to provide a cryptographically linked sequence of records, the method comprising: receiving an electronic trade finance transaction request, the request identifying trade finance transaction parameters, and a plurality of conditions of a trade finance transaction associated with computing systems corresponding to one or more inventory management devices or one or more shipping management devices; generating a plurality of blocks on a distributed ledger on one or more nodes of a distributed plurality of nodes maintaining the decentralized blockchain system, each of the plurality of blocks encapsulating a corresponding condition of the plurality of conditions, wherein the plurality of blocks are in a sequential arrangement such that satisfaction of the corresponding condition in a first block of the plurality of blocks must occur prior to satisfaction of the corresponding condition in a second block of the plurality of blocks, and the sequential arrangement is implemented by encapsulating the respective corresponding condition within each respective block with a respective public key associated with the computing system associated with the respective corresponding condition; and generating signals to initiate propagation of the plurality of blocks to the distributed plurality of nodes. receiving an electronic trade finance transaction request, the request identifying trade finance transaction parameters, and a plurality of conditions of a trade finance transaction associated with computing systems corresponding to one or more inventory management devices or one or more shipping management devices; generating a plurality of blocks on a distributed ledger on one or more nodes of a distributed plurality of nodes maintaining the decentralized blockchain system, each of the plurality of blocks encapsulating a corresponding condition of the plurality of conditions, wherein the plurality of blocks are in a sequential arrangement such that satisfaction of the corresponding condition in a first block of the plurality of blocks must occur prior to satisfaction of the corresponding condition in a second block of the plurality of blocks, and the sequential arrangement is implemented by encapsulating the respective corresponding condition within each respective block with a respective public key associated with the computing system associated with the respective corresponding condition; and generating signals to initiate propagation of the plurality of blocks to the distributed plurality of nodes.
A power stage for a DC-to-DC voltage converter, the power stage comprising: a voltage input configured to be coupled to a supply voltage; a high-side n-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the drain terminal being coupled to the voltage input and the source terminal being coupled to a first node that is configured to be coupled to an output stage of the DC-to-DC converter; a high-side p-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the source terminal being coupled to the voltage input and the drain terminal being coupled to the first node; and a low-side n-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the drain terminal being coupled to the first node and the source terminal being coupled to a ground; control circuitry configured to receive information regarding the supply voltage and configured to cause the high-side n-channel transistor to serve as the active high-side transistor of the DC-to-DC converter, while deactivating the high-side p-channel transistor, if the supply voltage is below a predetermined threshold value (Vth), and configured to cause the high-side p-channel transistor to serve as the active high-side transistor of the DC-to-DC converter, while deactivating the high-side n-channel transistor, if the supply voltage is above the predetermined threshold value. a voltage input configured to be coupled to a supply voltage; a high-side n-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the drain terminal being coupled to the voltage input and the source terminal being coupled to a first node that is configured to be coupled to an output stage of the DC-to-DC converter; a high-side p-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the source terminal being coupled to the voltage input and the drain terminal being coupled to the first node; and a low-side n-channel transistor comprising a source terminal, a drain terminal and a gate terminal, the drain terminal being coupled to the first node and the source terminal being coupled to a ground; control circuitry configured to receive information regarding the supply voltage and configured to cause the high-side n-channel transistor to serve as the active high-side transistor of the DC-to-DC converter, while deactivating the high-side p-channel transistor, if the supply voltage is below a predetermined threshold value (Vth), and configured to cause the high-side p-channel transistor to serve as the active high-side transistor of the DC-to-DC converter, while deactivating the high-side n-channel transistor, if the supply voltage is above the predetermined threshold value.
A homogeneous coating solution for forming a light-absorbing layer of a solar cell, the homogeneous solution comprising: at least one metal or metal compound selected from the group consisting of Cu element, Ag element, Al element, Ga element, In element, Cu 2, CuO, Cu 2 O, silver oxide, In 3, indium oxide and gallium oxide; at least one Lewis base solvent selected from the group consisting of dimethylsulfoxide, pyridine, tetramethylurea, tetrahydrofuran, ethyl acetate, acetone, dimethylformamide, acetonitrile, dichloromethane, dimethylacetoamide, N-methylpyrrolidone and N-methylimidazole; and a Lewis acid which is an ammonium salt; the homogeneous coating solution containing no hydrazine, and the at least one metal or metal compound and the Lewis acid being homogeneously dissolved over the entire at least one Lewis base solvent. at least one metal or metal compound selected from the group consisting of Cu element, Ag element, Al element, Ga element, In element, Cu 2, CuO, Cu 2 O, silver oxide, In 3, indium oxide and gallium oxide; at least one Lewis base solvent selected from the group consisting of dimethylsulfoxide, pyridine, tetramethylurea, tetrahydrofuran, ethyl acetate, acetone, dimethylformamide, acetonitrile, dichloromethane, dimethylacetoamide, N-methylpyrrolidone and N-methylimidazole; and a Lewis acid which is an ammonium salt; the homogeneous coating solution containing no hydrazine, and the at least one metal or metal compound and the Lewis acid being homogeneously dissolved over the entire at least one Lewis base solvent.
A resin composition, wherein magnesium oxide particles are blended, in an amount of 0.01 to 5 parts by weight, with 100 parts by weight of at least one resin selected from the group consisting of ABS resins, polypropylene-based resins, polystyrene-based resins, polycarbonate-based resins, polyphenylene-based resins, polyester-based resins and polyamide-based resins, wherein the magnesium oxide particles satisfy the following to: an average particle size is 5 μm or less; a BET specific surface area is 143 m 2 /g or more and 200 m 2 /g or less; and a screen residue by a sieve opening of 45 μm is 0.1% by weight or less. an average particle size is 5 μm or less; a BET specific surface area is 143 m 2 /g or more and 200 m 2 /g or less; and a screen residue by a sieve opening of 45 μm is 0.1% by weight or less.
An apparatus comprising: a memory controller configured to select a target phase change memory cell for a memory access operation, the memory controller comprising: a sense module configured to determine whether a snap back event occurs during a sensing interval; and a write back module configured to transition the target phase change memory cell back to a set state if the snap back event is detected, the set state being associated with a crystalline phase of the phase change memory cell; and switch circuitry comprising a word line, hereinafter termed WL, switch configured to couple a target WL to a WL select voltage source and a bit line, hereinafter termed BL, switch configured to couple a target BL to a BL select voltage source, the target phase change memory cell being coupled to the target WL and the target BL; wherein the memory controller is configured to control the switch circuitry to turn at least one of the WL switch and the BL switch partially OFF at or near the start of the sensing interval; to control the switch circuitry to turn the at least one of the WL switch and the BL switch ON if the snap back event is detected, and to maintain the at least one of the WL switch and the BL switch partially OFF during the sensing interval if no snap back occurs. a memory controller configured to select a target phase change memory cell for a memory access operation, the memory controller comprising: a sense module configured to determine whether a snap back event occurs during a sensing interval; and a write back module configured to transition the target phase change memory cell back to a set state if the snap back event is detected, the set state being associated with a crystalline phase of the phase change memory cell; and a sense module configured to determine whether a snap back event occurs during a sensing interval; and a write back module configured to transition the target phase change memory cell back to a set state if the snap back event is detected, the set state being associated with a crystalline phase of the phase change memory cell; and switch circuitry comprising a word line, hereinafter termed WL, switch configured to couple a target WL to a WL select voltage source and a bit line, hereinafter termed BL, switch configured to couple a target BL to a BL select voltage source, the target phase change memory cell being coupled to the target WL and the target BL; wherein the memory controller is configured to control the switch circuitry to turn at least one of the WL switch and the BL switch partially OFF at or near the start of the sensing interval; to control the switch circuitry to turn the at least one of the WL switch and the BL switch ON if the snap back event is detected, and to maintain the at least one of the WL switch and the BL switch partially OFF during the sensing interval if no snap back occurs.
A method for generating measurement-conformance feedback using a handheld dimensioning system, the method comprising: capturing by a dimensioning-system image-sensor at least one image of at least one object in a handheld dimensioning-system field-of-view; computing by a dimensioning-system processor using the at least one image a measurement geometry comprising the spatial relationship between the handheld dimensioning system and the at least one object; deriving by a dimensioning-system processor a measurement accuracy corresponding to the measurement geometry; identifying by a dimensioning-system processor at least one conformance criteria based on the measurement accuracy; obtaining by a dimensioning-system processor using the at least one image a volumetric measurement; comparing by a dimensioning-system processor the volumetric measurement to the conformance criteria for conformance; and generating (70, 80) by a dimensioning-system processor measurement-conformance feedback corresponding to the results of comparing the volumetric measurement to the conformance criteria, wherein, if the volumetric measurement does not comply with the conformance criteria, the measurement-conformance feedback comprises either an adjustment message with instructive prompts directing necessary spatial adjustments of the handheld dimensioning system relative to the at least one object for adjusting the measurement geometry, or an error message if no adjustment solution is obtained. capturing by a dimensioning-system image-sensor at least one image of at least one object in a handheld dimensioning-system field-of-view; computing by a dimensioning-system processor using the at least one image a measurement geometry comprising the spatial relationship between the handheld dimensioning system and the at least one object; deriving by a dimensioning-system processor a measurement accuracy corresponding to the measurement geometry; identifying by a dimensioning-system processor at least one conformance criteria based on the measurement accuracy; obtaining by a dimensioning-system processor using the at least one image a volumetric measurement; comparing by a dimensioning-system processor the volumetric measurement to the conformance criteria for conformance; and generating (70, 80) by a dimensioning-system processor measurement-conformance feedback corresponding to the results of comparing the volumetric measurement to the conformance criteria, wherein, if the volumetric measurement does not comply with the conformance criteria, the measurement-conformance feedback comprises either an adjustment message with instructive prompts directing necessary spatial adjustments of the handheld dimensioning system relative to the at least one object for adjusting the measurement geometry, or an error message if no adjustment solution is obtained.
A method of calibrating a modular phased array antenna after replacement of a sub-array of the modular phased array antenna, the modular phased array antenna comprising a replaced pre-calibrated sub-array, and a plurality of sub-arrays (102, 104), each sub-array of the plurality of sub-arrays comprising a plurality of antenna elements (1, 2, 3, 4, 5, 6, 7, 8), the method comprising: determining a complex correction coefficient for correcting a phase and an amplitude of a first antenna element of the plurality of antenna elements in the replaced sub-array of the plurality of sub-arrays using mutual coupled measurements to and from elements in neighboring sub-arrays; applying the determined correction coefficient to each of the antenna elements in the first sub-array to align the global phase and amplitude of the sub-arrays. determining a complex correction coefficient for correcting a phase and an amplitude of a first antenna element of the plurality of antenna elements in the replaced sub-array of the plurality of sub-arrays using mutual coupled measurements to and from elements in neighboring sub-arrays; applying the determined correction coefficient to each of the antenna elements in the first sub-array to align the global phase and amplitude of the sub-arrays.
Ingenol derivative compounds, characterized in that they have the formula I wherein A is phenyl, CH3- or CH 2 =CH-, and B is -CH=CH-, [-CH 2 -] x or [-CH 2 -] y, where x is an integer ranging between 1 and 10, where y is an integer ranging between 1 and 10, provided that: when A is phenyl, B is -CH=CH-; when A is CH 3 -, B is [-CH 2 -] x; when A is CH 2 =CH-, B is [-CH 2 -] y for use in the treatment of cancer. wherein A is phenyl, CH3- or CH 2 =CH-, and B is -CH=CH-, [-CH 2 -] x or [-CH 2 -] y, where x is an integer ranging between 1 and 10, where y is an integer ranging between 1 and 10, provided that: when A is phenyl, B is -CH=CH-; when A is CH 3 -, B is [-CH 2 -] x; when A is CH 2 =CH-, B is [-CH 2 -] y for use in the treatment of cancer. when A is phenyl, B is -CH=CH-; when A is CH 3 -, B is [-CH 2 -] x; when A is CH 2 =CH-, B is [-CH 2 -] y for use in the treatment of cancer.
A compound of the formula I: or a pharmaceutically acceptable salt, hydrate, solvate or a mixture thereof, wherein: (a) each occurrence of m is independently an integer ranging from 0 to 5; (b) each occurrence of n is independently an integer ranging from 3 to 7; (c) X is (CH 2) z, wherein z is 0; (d) each occurrence of R 1, R 2, R 11, and R 12 is independently H or methyl, wherein R 1, R 2, R 11, and R 12 are not each simultaneously H; and (e) each occurrence of Y 1 and Y 2 is independently OH or COOH. (a) each occurrence of m is independently an integer ranging from 0 to 5; (b) each occurrence of n is independently an integer ranging from 3 to 7; (c) X is (CH 2) z, wherein z is 0; (d) each occurrence of R 1, R 2, R 11, and R 12 is independently H or methyl, wherein R 1, R 2, R 11, and R 12 are not each simultaneously H; and (e) each occurrence of Y 1 and Y 2 is independently OH or COOH.
A set of two operating levers (9a,b) for mounting on a secondary leaf of a casement window, characterised in that every operating lever of the set comprises an oblong body, an operating arm at an end hingedly connected to the oblong body, a sliding element, and a connecting arm at its one end hingedly connected to the sliding element and at its other end hingedly connected to the operating arm, whereby each operating lever is configured such that a rotation of the operating arm is converted into a translation of the sliding element, and each operating lever can be coupled to a slideable upper latch and lower latch, whereby, in mounted condition on the secondary leaf, the operating levers are coupled with the slideable upper latch and lower latch respectively and the operating lever coupled to the upper latch is configured in a mirrored way relative to the operating lever coupled to the lower latch, and whereby the oblong body near a longitudinal side is provided with an upright rib which in closed condition of the operating lever acts as stop for the operating arm.