mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting module, comprising: a carrier comprising a lighting portion and an extending portion; a plurality of light-emitting units disposed on the lighting portion; and a protection layer covering the plurality of light-emitting units and the lighting portion, wherein the extending portion is exposed from the protection layer, and characterized in that each light-emitting unit has one individual substrate (313, 323, 333), one individual light-emitting stack (319, 325, 335) formed on the substrate, and one individual conductive adhesion layer (314, 324, 334) formed between the light-emitting stack (319, 325, 335) and the substrate (313, 323, 333). a carrier comprising a lighting portion and an extending portion; a plurality of light-emitting units disposed on the lighting portion; and a protection layer covering the plurality of light-emitting units and the lighting portion, wherein the extending portion is exposed from the protection layer, and characterized in that each light-emitting unit has one individual substrate (313, 323, 333), one individual light-emitting stack (319, 325, 335) formed on the substrate, and one individual conductive adhesion layer (314, 324, 334) formed between the light-emitting stack (319, 325, 335) and the substrate (313, 323, 333).
A blinker lamp mounting structure of a saddled vehicle applied to a saddled vehicle having a front cowl disposed in contact with an outer edge of a headlight, an inner panel disposed in a vicinity of a back surface side of the front cowl and supporting a meter device, and a pair of left and right blinker lamps, characterized in that an exposed portion which is not covered by the front cowl as viewed in a side view of a vehicle body is formed on the inner panel, and a mounting hole of the blinker lamp is formed in the exposed portion.
Method to control the ratio between electrical energy injected into and extracted from an electric energy supply grid with a number of participants, which include energy producers and consumers and preferably also storage devices, where a grid state variable is used as a control variable whose value depends on the ratio between energy injected and extracted, and which can be determined by the grid participants from the grid itself, and at least some of the grid participants determine this grid state variable in a decentralised way from the grid and use it at least indirectly to control their own behaviour concerning the injection of electric energy into the electric grid, characterized in that, also at least some of the consumers determine this grid state variable in a decentralized way and use it at least indirectly to control their own behaviour concerning the extraction of electric energy from the energy supply grid, that the grid state variable is coupled with a valuation variable such that this valuation variable has a base value if the ratio between electric energy injected into and extracted from the grid is optimal, and if this ratio deviates from this optimum the valuation variable deviates from the base value such that in case of surplus of electrical energy injected, injection of energy into the grid creates a malus and extraction a bonus value, and, in case of surplus energy extracted, injection of energy into the grid creates a bonus and extraction a malus value, and the grid participants which control their own specific grid participation behaviour that depends on the grid state variable and/or the valuation variable, determine the grid state variable within certain intervals or continuously and use it to control their own specific participation behaviour, and use a specific algorithm which considers a specific time dependent demand function and includes predictions of likely future developments of the value of the valuation variable, the specific algorithm combining the specific time dependent demand function with the predictions such that as little malus and/or as many bonus values as possible are generated.
A LED lamp shaped as a conventional luminous tube, the LED lamp comprising an elongated tubular glass tube, a socket (11, 11') arranged at both ends, a LED unit comprising a plurality of LED circuits arranged on an elongated circuit board, and at least one conductor (18, 27, 31), the LED unit being fixated against the first side of a support structure, the support structure serving, in the operation of the LED lamp, to conduct heat away from the LED circuits, a second side, the abutment side, of the support structure abuts against the inside of the glass tube, the support structure extending in the longitudinal direction of the LED lamp such that a distance (a) is attained between the support structure and the socket (11, 11'), characterized in that the abutment surface of the support structure has a radius, seen transversely to the longitudinal direction of the support structure, which corresponds to the radius of the inside of the glass tube, wherein the second side of the support structure facing away from the LED unit with its main surface or abutment surface abuts against the inside of the glass tube through contact with the glass tube via a glue joint.
A compound represented by formula or a pharmaceutically acceptable salt, R 1 is selected from H or F; R 2 is selected from H or CH 3; while R 2 is not H, the configuration of the carbon atom bonded to R 2 is R or S; A is selected from the group consisting of phenyl, pyridyl, pyrazolyl, isoxazolyl, isothiazolyl and thiazolyl, each of which is optionally substituted by 1, 2 or 3 R 3; R 3 is selected from CN, halogen, C(=O)NH 2, or is selected from the group consisting of C 1-6 alkyl, C 1-6 heteroalkyl, and C 3-6 cycloalkyl, each of which is optionally substituted by 1, 2 or 3 R 0; R 0 is selected from F, Cl, Br, I, OH, CN, NH 2, C(=O)NH 2, or is selected from the group consisting of C 1-3 alkyl and C 1-3 heteroalkyl, each of which is optionally substituted by 1, 2 or 3 R'; R' is selected from F, Cl, Br, I, CN, OH, NH 2, CH 3, CH 3 CH 2, CF 3, CHF 2 or CH 2 F; the "hetero" in the C 1-3 heteroalkyl or C 1-6 heteroalkyl is selected from the group consisting of -O-, - C(=O)NR'-, -C(=O)NH-, -NR'-, and -NH-; in any of the above cases, the number of the heteroatom or the heteroatomic group is independently selected from 1, 2 or 3. R 1 is selected from H or F; R 2 is selected from H or CH 3; while R 2 is not H, the configuration of the carbon atom bonded to R 2 is R or S; A is selected from the group consisting of phenyl, pyridyl, pyrazolyl, isoxazolyl, isothiazolyl and thiazolyl, each of which is optionally substituted by 1, 2 or 3 R 3; R 3 is selected from CN, halogen, C(=O)NH 2, or is selected from the group consisting of C 1-6 alkyl, C 1-6 heteroalkyl, and C 3-6 cycloalkyl, each of which is optionally substituted by 1, 2 or 3 R 0; R 0 is selected from F, Cl, Br, I, OH, CN, NH 2, C(=O)NH 2, or is selected from the group consisting of C 1-3 alkyl and C 1-3 heteroalkyl, each of which is optionally substituted by 1, 2 or 3 R'; R' is selected from F, Cl, Br, I, CN, OH, NH 2, CH 3, CH 3 CH 2, CF 3, CHF 2 or CH 2 F; the "hetero" in the C 1-3 heteroalkyl or C 1-6 heteroalkyl is selected from the group consisting of -O-, - C(=O)NR'-, -C(=O)NH-, -NR'-, and -NH-; in any of the above cases, the number of the heteroatom or the heteroatomic group is independently selected from 1, 2 or 3.
Method for manufacturing a membrane-electrode assembly for a fuel cell, the method comprising the following steps: - A first step during which a reinforcement is deposited on a first face of an ion-exchanging membrane, the membrane being held on a support film, - A second step during which the membrane is unglued from the support film, - A third step during which a reinforcement is deposited on the second face of the ion-exchanging membrane, and - A fourth step during which a chemical catalyst element is deposited on the parts left free of the first and second faces of the membrane, the membrane being held on its periphery by the reinforcing elements (2,2'). - A first step during which a reinforcement is deposited on a first face of an ion-exchanging membrane, the membrane being held on a support film, - A second step during which the membrane is unglued from the support film, - A third step during which a reinforcement is deposited on the second face of the ion-exchanging membrane, and - A fourth step during which a chemical catalyst element is deposited on the parts left free of the first and second faces of the membrane, the membrane being held on its periphery by the reinforcing elements (2,2').
An ultrasonic diagnostic apparatus comprising: a transmitter/receiver that causes an ultrasonic probe to transmit on each scanning line at least three ultrasonic pulses each having an identical frequency, and that generates a plurality of reception signals corresponding to the respective ultrasonic pulses; a signal processor that combines the plurality of the reception signals and that generates a composite signal; and an image generator that generates ultrasonic image data based on the composite signal, Characterised In That: the signal processor performs composite processing in which a fundamental wave component and a low-frequency component generated by a second-order nonlinear phenomenon are removed from the plurality of the reception signals, wherein, for transmitting the at least three ultrasonic pulses each having an identical frequency on each scanning line, the transmitter/receiver performs on each scanning line at least one set of transmissions in any order, the one set of transmissions comprising: a first transmission with a first phase; a second transmission with a second phase different from the first phase by 90 degrees; and a third transmission with a third phase different from the first phase by 180 degrees, and wherein the signal processor, in composite processing of three reception signals obtained through the one set of tranmissions, subtracts a reception signal in the second transmission from a reception signal in the first transmission and adds the signal obtained by rotating a phase of a reception signal in the second transmission by 90 degrees to the subtracted signal, and generates the composite signal by subtracting a signal obtained by rotating a phase of a reception signal in the third transmission by 90 degrees from the added signal. a first transmission with a first phase; a second transmission with a second phase different from the first phase by 90 degrees; and a third transmission with a third phase different from the first phase by 180 degrees, and wherein the signal processor, in composite processing of three reception signals obtained through the one set of tranmissions, subtracts a reception signal in the second transmission from a reception signal in the first transmission and adds the signal obtained by rotating a phase of a reception signal in the second transmission by 90 degrees to the subtracted signal, and generates the composite signal by subtracting a signal obtained by rotating a phase of a reception signal in the third transmission by 90 degrees from the added signal.
An apparatus comprising: a ribbon wire for attachment to a solar panel; a lower junction box assembly comprising a bottom side comprising a raised protrusion formed on the bottom side of the lower junction box assembly, the bottom side comprising a slot adapted to allow entry of the ribbon wire exiting from a back side of the solar panel; wherein the ribbon wire enters the lower junction box assembly through the slot and extends along a first region on the bottom side to a first side of the raised protrusion, is bent over the raised protrusion and formed to be substantially in the same shape as the raised protrusion, and extends along a second region on the bottom side to a second side of the raised protrusion; and a clamping plate, having an aperture through which the raised protrusion projects, that is attached to the bottom side so as to clamp the ribbon wire to the first and second regions of the bottom side; wherein the lower junction box assembly is adapted for attachment to the back side of the solar panel. a ribbon wire for attachment to a solar panel; a lower junction box assembly comprising a bottom side comprising a raised protrusion formed on the bottom side of the lower junction box assembly, the bottom side comprising a slot adapted to allow entry of the ribbon wire exiting from a back side of the solar panel; wherein the ribbon wire enters the lower junction box assembly through the slot and extends along a first region on the bottom side to a first side of the raised protrusion, is bent over the raised protrusion and formed to be substantially in the same shape as the raised protrusion, and extends along a second region on the bottom side to a second side of the raised protrusion; and a clamping plate, having an aperture through which the raised protrusion projects, that is attached to the bottom side so as to clamp the ribbon wire to the first and second regions of the bottom side; wherein the lower junction box assembly is adapted for attachment to the back side of the solar panel.
A quay crane, comprising a double-trapezoid four-track girder, whereby upper-trolley running tracks on inner sides of the double-trapezoid four-track girder are configured for an upper trolley to travel on, a lower trolley is suspended upside down on lower-trolley running tracks on outer sides of the double-trapezoid four-track girder, and a container hoisted by the upper trolley via a hoist is able to pass through the lower trolley; characterised in that the double-trapezoid four-track girder comprises original box beams, plates-A, plates-B, and track bearing beams; tops of the two original box beams are interconnected by a connecting frame of a quay crane, structures of the two original box beams are symmetrically disposed relative to the center of the connecting frame, sections of bottom parts of the two original box beams are of right-angled trapezoids, each of the right-angled trapezoids comprises a right-angled side, an oblique side, an upper base, and a lower base, the oblique sides of the bottom parts of the two original box beams are both located on inner sides of the quay crane, the right-angled sides thereof are both located on outer sides of the quay crane, and the two oblique sides are provided with the upper-trolley running tracks which are symmetrically arranged; each of the plates-B is laid along the longitudinal direction of a corresponding original box beam, each of the plates-B is located on an outer side of a corresponding lower base, one side of each of the plates-B is connected with one side of the corresponding lower base, and each of the plates-B is located on the same horizontal height as the corresponding lower base; each of the plates-A is laid along the longitudinal direction of a corresponding original box beam, one side of each of the plates-A is connected with the other side, away from a corresponding lower base, of a corresponding plate-B, and the other side of each of the plates-A is connected with an outer side of the corresponding original box beam; and each of the track bearing beams is mounted on one end, away from a corresponding lower base, of a corresponding plate-B, and each of the lower-trolley running tracks is laid on a corresponding track bearing beam.
A process for reducing the stickiness of a composition of a chewing gum core to an internal contact surface of a first chewing gum processing machinery in a chewing gum preparation process comprising the following steps: a) providing isomaltulose in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomaltulose particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomaltulose provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomaltulose-containing composition of a chewing gum core, wherein step c) is carried out on the internal contact surface of the first chewing gum processing machinery, and wherein the amount of isomaltulose provided in step a) is at least 10 weight-% of the isomaltulose-containing composition of the chewing gum core obtained in step c). a) providing isomaltulose in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomaltulose particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomaltulose provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomaltulose-containing composition of a chewing gum core,
A compound of general formula: in which X represents CH or N; Y represents CR 3 or N; Z represents CH or N, wherein if X represents N, Y represents CR 3 and Z represents CH, and if X represents CH, Y represents N and Z represents CH, and if Z represents N, Y represents N, X represents CH and R 2 represents trifluoromethyl; R 1 represents C 3 -C 5 -hydroxyalkyl, wherein said C 3 -C 5 -hydroxyalkyl groups are optionally substituted one to three times with fluoro, or cyclopentyl substituted once with hydroxy, or tetrahydrothiophenyl substituted once with hydroxy; R 2 represents chloro, methyl, difluoromethyl, trifluoromethyl, methoxy or -NR 8 R 9; R 3 represents hydrogen; R 4 represents hydrogen, fluoro or chloro; R 5 represents hydrogen or fluoro; R 6 represents hydrogen or fluoro; R 8 and R 9 represent methyl; their polymorphs, enantiomeres, diastereomeres, racemates, tautomeres, N-oxides, hydrates and solvates, as well as their physiological acceptable salts and solvates of these salts, as well as mixtures of the same. X represents CH or N; Y represents CR 3 or N; Z represents CH or N, wherein if X represents N, Y represents CR 3 and Z represents CH, and if X represents CH, Y represents N and Z represents CH, and if Z represents N, Y represents N, X represents CH and R 2 represents trifluoromethyl; R 1 represents C 3 -C 5 -hydroxyalkyl, wherein said C 3 -C 5 -hydroxyalkyl groups are optionally substituted one to three times with fluoro, or cyclopentyl substituted once with hydroxy, or tetrahydrothiophenyl substituted once with hydroxy; R 2 represents chloro, methyl, difluoromethyl, trifluoromethyl, methoxy or -NR 8 R 9; R 3 represents hydrogen; R 4 represents hydrogen, fluoro or chloro; R 5 represents hydrogen or fluoro; R 6 represents hydrogen or fluoro; R 8 and R 9 represent methyl;
A method for identifying a cleaning agent for a cleaning device, which method is carried out by at least one device and comprises: - determining an identification characteristic of a cleaning agent, wherein the identification characteristic is determined by a sensor apparatus (20, 20'), wherein the sensor apparatus is selected from the list comprising: a conductivity sensor, a gas sensor and a sound sensor, - checking, based at least in part on the obtained identification characteristic of the cleaning agent, whether an initiation of a cleaning process of the cleaning device using the cleaning agent is permissible, wherein the check includes checking a compatibility of the cleaning agent with the cleaning process to be initiated or at least one parameter thereof. - determining an identification characteristic of a cleaning agent, wherein the identification characteristic is determined by a sensor apparatus (20, 20'), wherein the sensor apparatus is selected from the list comprising: a conductivity sensor, a gas sensor and a sound sensor, - checking, based at least in part on the obtained identification characteristic of the cleaning agent, whether an initiation of a cleaning process of the cleaning device using the cleaning agent is permissible, wherein the check includes checking a compatibility of the cleaning agent with the cleaning process to be initiated or at least one parameter thereof.
A method for implementing visible light communication, characterized by comprising: presetting a mapping relationship between each constellation modulated signal and a location where a luminescent light source is located; after performing constellation modulation on data to be sent, a sending end mapping the modulated signal to a corresponding luminescent light source; and transmitting the data to be sent to a receiving end through an optical signal, and the receiving end converting the received optical signal into an electrical signal; and the receiving end determining a constellation modulated signal according to a luminescent light source corresponding to the received signal, and demodulating the constellation modulated signal to obtain received data; wherein, said mapping the modulated signal to a corresponding luminescent light source comprises: mapping a constellation point corresponding to the modulated signal to a luminescent light source corresponding to the constellation point according to the mapping relationship. presetting a mapping relationship between each constellation modulated signal and a location where a luminescent light source is located; after performing constellation modulation on data to be sent, a sending end mapping the modulated signal to a corresponding luminescent light source; and transmitting the data to be sent to a receiving end through an optical signal, and the receiving end converting the received optical signal into an electrical signal; and the receiving end determining a constellation modulated signal according to a luminescent light source corresponding to the received signal, and demodulating the constellation modulated signal to obtain received data; wherein, said mapping the modulated signal to a corresponding luminescent light source comprises: mapping a constellation point corresponding to the modulated signal to a luminescent light source corresponding to the constellation point according to the mapping relationship.
A method for managing reliability of a solid-state storage, comprising: reading encoded data encoded by an encoder and stored in the solid-state storage; decoding, by a decoder, the encoded data accessed to provide decoded data as soft decisions representing probabilities of the decoded data; assessing the probabilities of the decoded data; and adjusting a code rate of the encoder and the decoder responsive to the assessment. reading encoded data encoded by an encoder and stored in the solid-state storage; decoding, by a decoder, the encoded data accessed to provide decoded data as soft decisions representing probabilities of the decoded data; assessing the probabilities of the decoded data; and adjusting a code rate of the encoder and the decoder responsive to the assessment.
A method for manufacturing a non-alkali glass, comprising: forming a non-alkali glass; supplying SO 2 gas and a SO 2 gas oxidation catalyst to the non-alkali glass under an oxidation environment to form a CaSO 4 lubricant layer at the lower surface of the non-alkali glass; and annealing the non-alkali glass. forming a non-alkali glass; supplying SO 2 gas and a SO 2 gas oxidation catalyst to the non-alkali glass under an oxidation environment to form a CaSO 4 lubricant layer at the lower surface of the non-alkali glass; and annealing the non-alkali glass.