mhurhangee/ep-ind-claims huggingface dataset:
A signal sending method performed by a terminal device, the method comprising: a.) generating a first signal comprising at least one block, wherein each block of the at least one block comprises multiple symbols, wherein, for each block of the at least one block, a cyclic prefix, CP, of the block includes either only one symbol or includes two symbols (step 101); b.) performing, for each block of the at least one block, on a per symbol basis dot multiplication or conjugate dot multiplication between a part other than the CP of the block and a target code division sequence, wherein the target code division sequence is a code division sequence in a code division sequence set, wherein any two code division sequences in the code division sequence set meet orthogonality and shift orthogonality; c1.) for those blocks containing the CP including the only one symbol, performing for the block a same processing on the CP as on a last symbol in the block, thereby generating a second signal; c2.) for those blocks containing the CP including the two symbols that are a first symbol in the block and a subsequent second symbol in the block, performing for the block a same processing on the first symbol of the CP as a processing on a second to last symbol in the block and performing a same processing on the second symbol of the CP as a processing on a last symbol in the block, thereby generating the second signal (step 102); d.) sending the second signal to a base station at a corresponding time-frequency resource location (step 103). a.) generating a first signal comprising at least one block, wherein each block of the at least one block comprises multiple symbols, wherein, for each block of the at least one block, a cyclic prefix, CP, of the block includes either only one symbol or includes two symbols (step 101); b.) performing, for each block of the at least one block, on a per symbol basis dot multiplication or conjugate dot multiplication between a part other than the CP of the block and a target code division sequence, wherein the target code division sequence is a code division sequence in a code division sequence set, wherein any two code division sequences in the code division sequence set meet orthogonality and shift orthogonality; c1.) for those blocks containing the CP including the only one symbol, performing for the block a same processing on the CP as on a last symbol in the block, thereby generating a second signal; c2.) for those blocks containing the CP including the two symbols that are a first symbol in the block and a subsequent second symbol in the block, performing for the block a same processing on the first symbol of the CP as a processing on a second to last symbol in the block and performing a same processing on the second symbol of the CP as a processing on a last symbol in the block, thereby generating the second signal (step 102); d.) sending the second signal to a base station at a corresponding time-frequency resource location (step 103).
An electronic device comprising a first encapsulating film in direct contact with a light-receiving and transmitting film and a second encapsulating film in direct contact with a back sheet, the first encapsulating film having a zero shear viscosity greater than that of the second encapsulating film.
Use of an aqueous composition comprising 0.01 -5 vol.%, preferably 0.01 -2 vol.%, more preferably 0.02-1 vol.%, of at least one polyethylene glycol with a molecular weight of 300-20000 Da, preferably of 300-8000 Da, wherein said at least one polyethylene glycol is used as an insecticidal and/or acaricidal active ingredient, for controlling the infestation by and/or the spread of phytophagous insects and/or mites on plants.
A lamp for a vehicle comprising: a housing; an axial symmetric lens coupled to the housing and defining an optical axis and a focal point; a first light source positioned within the housing, the first light source being positioned behind the focal point of the axial symmetric lens relative to the optical axis; a second light source positioned within the housing, the second light source being positioned in front of the focal point of the axial symmetric lens relative to the optical axis; and an image shifting lens positioned within the housing between the second light source and the axial symmetric lens; the first light source is configured to emit first light along a first optical path that extends from the first light source, toward the axial symmetric lens below the optical axis, and through the axial symmetric lens to define a low beam illumination pattern, and the second light source is configured to emit second light along a second optical path that extends, from the second light source, through the image shifting lens, towards the axial symmetric lens above the optical axis, and through the axial symmetric lens to define a high beam illumination pattern. a housing; an axial symmetric lens coupled to the housing and defining an optical axis and a focal point; a first light source positioned within the housing, the first light source being positioned behind the focal point of the axial symmetric lens relative to the optical axis; a second light source positioned within the housing, the second light source being positioned in front of the focal point of the axial symmetric lens relative to the optical axis; and an image shifting lens positioned within the housing between the second light source and the axial symmetric lens; the first light source is configured to emit first light along a first optical path that extends from the first light source, toward the axial symmetric lens below the optical axis, and through the axial symmetric lens to define a low beam illumination pattern, and the second light source is configured to emit second light along a second optical path that extends, from the second light source, through the image shifting lens, towards the axial symmetric lens above the optical axis, and through the axial symmetric lens to define a high beam illumination pattern.
An additive composition for lubricating oils comprising 1 to 50 wt% of a propylene copolymer having a density of 875 kg/m 3 or less measured according to the method described in ASTM D1505, and 50 to 99 wt% of an oil with the proviso that the weight % of said and are calculated based on the total amount of and in the additive composition, wherein said propylene copolymer comprises 60 to 85 mole% of structural units derived from propylene, 5 to 20 mole% of structural units derived from ethylene and 5 to 30 mole% of structural units derived from α-olefin having 4 to 20 carbon atoms with the proviso that the total of all structural units is 100 mole%.
Use of at least one benzyl alcohol of formula i) as a partitioning tracer in a petroleum reservoir. wherein each of R 1 to R 5 is independently selected from H, F, Cl, Br, I, CF 3 CF 2 Cl, CFCl 2 and CCl 3 and wherein at least one of R 1 to R 5 is not H.
An arrangement convertible into baby care items comprising: - a two sided foldable material having a first side and a second side, which material comprises fixing points for carrying means (212, 404), - carrying means (212, 404) connected to the fixing points of the material for carrying and fastening the arrangement, - first fixing means attached to the first side of the material, and - second fixing means attached to the second side of the material, wherein the arrangement is configured to form an infant carrier when it is arranged into an unfolded form and the material is set the second side up; a chair padding when it is arranged into a semi-folded form, and a bag when it is arranged into a folded form, characterized in that the arrangement is further configured to form a changing mat for diaper changing when it is arranged into an unfolded form and the material is set the first side up, and in that the arrangement further comprises an openable compartment for said first fixing means to be hidden, when said first side is used as the changing mat. - a two sided foldable material having a first side and a second side, which material comprises fixing points for carrying means (212, 404), - carrying means (212, 404) connected to the fixing points of the material for carrying and fastening the arrangement, - first fixing means attached to the first side of the material, and - second fixing means attached to the second side of the material,
Method for storing information from messages incoming via a serial data bus of a communication network in a communication module of a subscriber connected to the data bus that are filtered by means of a filter arrangement, wherein the messages have a respective identifier for identification and the properties of the filter arrangement are defined by identifiers of messages, which identifiers are stored in at least one list of the filter arrangement, characterized in that the list has, as list elements, one or more filter elements that contain memory control information, and in that the memory control information is taken as a basis for checking whether information about an incoming message needs to be stored, and information about an incoming message is stored if the checking has revealed that the information needs to be stored.
A retreaded tire manufacturing method, the tire comprising a tread including a tread groove (11, 12, 13, 14), a belt layer formed of a plurality of belts (5A, 5B, 5C) and a belt reinforcement member disposed radially outside and spaced apart from the belt layer comprising steps of: forming a tread application surface (B, B1, B2, B3), to which new tread rubber is applied, by abrading away tread rubber of the tire circumferentially, wherein at first time of retreading, the tread application surface (B, B1) is formed within a range radially inside of a groove bottom (11A, 12A, 13A, 14A) of the tread groove (11,12,13,14) and radially outside of the belt reinforcement member, and; at second time retreading, a position where the tread application surface (B,B2) is formed is located radially inside of the position where the tread application surface (B,B1) is formed by the first time of retreading, wherein the belt reinforcement member is abraded away and reinstalled during the second time retreading, and; at third time retreading, by abrading away the tread rubber until the belt located in a radially outermost position of the belt layer is exposed, a position where the tread application surface (B,B3) is formed is radially inside of the position where the tread application surface (B,B2) is formed by the second time of retreading. forming a tread application surface (B, B1, B2, B3), to which new tread rubber is applied, by abrading away tread rubber of the tire circumferentially, wherein at first time of retreading, the tread application surface (B, B1) is formed within a range radially inside of a groove bottom (11A, 12A, 13A, 14A) of the tread groove (11,12,13,14) and radially outside of the belt reinforcement member, and; at second time retreading, a position where the tread application surface (B,B2) is formed is located radially inside of the position where the tread application surface (B,B1) is formed by the first time of retreading, wherein the belt reinforcement member is abraded away and reinstalled during the second time retreading, and; at third time retreading, by abrading away the tread rubber until the belt located in a radially outermost position of the belt layer is exposed, a position where the tread application surface (B,B3) is formed is radially inside of the position where the tread application surface (B,B2) is formed by the second time of retreading.
A cooling device of a component comprising at least one channel in which a first cooling fluid flows designed to cool a hot area of the component, characterized in that it comprises: - a thermoelectric module in thermal contact with the hot area are at a first end and with the at channel at a second end, the thermoelectric module being configured to measure the temperature difference between the hot area of the component and the channel; and - a control circuit configured to modulate the flowrate of the first cooling fluid in the channel according to the temperature difference. - a thermoelectric module in thermal contact with the hot area are at a first end and with the at channel at a second end, the thermoelectric module being configured to measure the temperature difference between the hot area of the component and the channel; and - a control circuit configured to modulate the flowrate of the first cooling fluid in the channel according to the temperature difference.
Control device for controlling an inverter, which has switching arms (102G, 102D, 104G, 104D, 106G, 106D) that are each associated with at least one end of a coil (102, 104, 106) of an electric machine, each switching arm (102G, 102D, 104G, 104D, 106G, 106D) having: a high-side switch, which is intended to be selectively closed so as to connect the end to a positive terminal (+) of a battery and opened so as to disconnect the end from the positive terminal (+) of the battery, and a low-side switch, which is intended to be selectively closed so as to connect the end to a negative terminal (-) of the battery and opened so as to disconnect the end from the negative terminal (-) of the battery, the control device including: - a first driver, which is configured to drive at least one first switch in accordance with opening/closing commands, - N electronic circuits (144, 146, 148), N being greater than or equal to three, one of the electronic circuits being configured to send the opening/closing commands to the first driver, the control device being characterized in that the first driver is further configured, if a deactivation command is received, to ignore the received opening/closing commands and to supply each first switch with a predetermined opening or closing signal, and in that each one of the N electronic circuits is configured to send a command to deactivate the first driver, and in that it further includes: - an electronic selection circuit, which is configured to: - receive the deactivation commands sent by the N electronic circuits (144, 146, 148), and, - if deactivation commands have been received from at least M electronic circuits (144, 146, 148), M being greater than N/2, transfer the deactivation command to the first driver. - a first driver, which is configured to drive at least one first switch in accordance with opening/closing commands, - N electronic circuits (144, 146, 148), N being greater than or equal to three, one of the electronic circuits being configured to send the opening/closing commands to the first driver, - an electronic selection circuit, which is configured to: - receive the deactivation commands sent by the N electronic circuits (144, 146, 148), and, - if deactivation commands have been received from at least M electronic circuits (144, 146, 148), M being greater than N/2, transfer the deactivation command to the first driver. - receive the deactivation commands sent by the N electronic circuits (144, 146, 148), and, - if deactivation commands have been received from at least M electronic circuits (144, 146, 148), M being greater than N/2, transfer the deactivation command to the first driver.
Anti-panic push bar for actuating a door lock of an escape door or emergency exit door, comprising a base profile that can be mounted to rest on a door leaf, an actuation handle extending in parallel to the longitudinal direction of the base profile, a sliding device having an outer slide, an inner slide, as well as a connecting rod and an output follower for actuating the door lock, and a transfer device for transferring a movement of the actuation handle to the sliding device, and a drive device that can be connected to the sliding device and that comprises a drive motor and a spring accumulator that can be charged by the drive motor and/or by the actuation handle, characterised in that the drive device is arranged between the base profile and the actuation handle and has a common mounting plate on which both the drive motor and the spring accumulator are fixed, and the sliding device and the transfer device and the drive device are held on a continuous carrier profile, and the carrier profile can be inserted into the base profile and can be connected to the base profile.
An underground thermal energy storage having a shape selected from substantially cylindrical and an n-gonal prism, having an axial direction that in use is vertical, and comprising an inner volume for holding a liquid, said energy storage device comprising a peripheral outer wall, a peripheral inner wall around said inner volume, and a filling layer between said inner wall and said outer wall, - said inner wall comprising a series of modular wall parts provided with a heat exchanger for exchanging thermal energy with said liquid, said modular wall parts arranged in rings and said modular wall parts each having opposite radial surfaces that are in use vertical, an inner tangential surface contacting said inner volume, an outer tangential surface directed towards said outer wall, and opposite axial surfaces that are in use horizontal, said modular wall parts comprising an elastic sealing between a joint of adjacent radial surfaces for limiting liquid flow between the inner volume and the filling layer and taking up thermal expansion of the modular wall parts, and - said filling layer comprising an insulating layer extending over at least part of a height of the underground energy storage, having a thermal resistance R value where R= d/λ [m2K/W], in which d is a layer thickness of the insulating layer, and λ the thermal conductivity of said insulating layer, and R is designed for providing said outer wall at a temperature of below 30°C when said inner volume is at a temperature of at least 90°C, and a structural layer for maintaining said insulating layer and said modular inner wall parts in position. - said inner wall comprising a series of modular wall parts provided with a heat exchanger for exchanging thermal energy with said liquid, said modular wall parts arranged in rings and said modular wall parts each having opposite radial surfaces that are in use vertical, an inner tangential surface contacting said inner volume, an outer tangential surface directed towards said outer wall, and opposite axial surfaces that are in use horizontal, said modular wall parts comprising an elastic sealing between a joint of adjacent radial surfaces for limiting liquid flow between the inner volume and the filling layer and taking up thermal expansion of the modular wall parts, and - said filling layer comprising an insulating layer extending over at least part of a height of the underground energy storage, having a thermal resistance R value where R= d/λ [m2K/W], in which d is a layer thickness of the insulating layer, and λ the thermal conductivity of said insulating layer, and R is designed for providing said outer wall at a temperature of below 30°C when said inner volume is at a temperature of at least 90°C, and a structural layer for maintaining said insulating layer and said modular inner wall parts in position.
A method for determining whether or not all of pythiums contained in a test sample are non-phytopathogenic, the method comprising: (a) putting the test sample on a front surface of a film comprising a through-hole having a cross-sectional area of not less than 0.785 square micrometers and not more than 7.065 square micrometers; (b) leaving the test sample at rest for six hours after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that all of the pythiums contained in the test sample are non-phytopathogenic, if pseudohyphae are not found on the back surface of the film in the step (c). (a) putting the test sample on a front surface of a film comprising a through-hole having a cross-sectional area of not less than 0.785 square micrometers and not more than 7.065 square micrometers; (b) leaving the test sample at rest for six hours after the step (a); (c) observing a back surface of the film after the step (b); and (d) determining that all of the pythiums contained in the test sample are non-phytopathogenic, if pseudohyphae are not found on the back surface of the film in the step (c).
A wireless power transmitter device, comprising: a first coil configured to transmit power to a wireless power receiver, characterized in that the first coil is further configured for low frequency noise measurement and the wireless power transmitter device further comprises: a second coil configured for high frequency noise measurement; and a small signal receiver configured to: select one of the first coil or the second coil according to a frequency range for noise measurement; receive noise signals at the selected coil; and provide a noise profile of the noise signals, the noise profile comprising a spectrum profile. a first coil configured to transmit power to a wireless power receiver, characterized in that the first coil is further configured for low frequency noise measurement and the wireless power transmitter device further comprises: a second coil configured for high frequency noise measurement; and a small signal receiver configured to: select one of the first coil or the second coil according to a frequency range for noise measurement; receive noise signals at the selected coil; and provide a noise profile of the noise signals, the noise profile comprising a spectrum profile. a second coil configured for high frequency noise measurement; and a small signal receiver configured to: select one of the first coil or the second coil according to a frequency range for noise measurement; receive noise signals at the selected coil; and provide a noise profile of the noise signals, the noise profile comprising a spectrum profile. select one of the first coil or the second coil according to a frequency range for noise measurement; receive noise signals at the selected coil; and provide a noise profile of the noise signals, the noise profile comprising a spectrum profile.