mhurhangee/patent-ind-claim-en huggingface dataset:
A lower vehicle-body structure of an electric vehicle in which a kick-up having a closed cross-sectional part (S1) and extending transversely between a pair of left and right side sills in a vehicle width direction is disposed between a front floor panel and a rear floor panel , a battery unit being disposed under both floor panels (1; 12), wherein each of left and right side portions in the vehicle width direction of the kick-up is bent substantially downward from a position inward of a rear side frame toward one of the side sills and connected to the side sill ; and wherein a bending facilitating portion that is configured to facilitate bending under a lateral-collision load is formed outward of a bent portion of the kick-up and an outer side portion of the battery unit , at a position inward of an inner end of the rear side frame or at substantially the same position as the inner end of the rear side frame. each of left and right side portions in the vehicle width direction of the kick-up is bent substantially downward from a position inward of a rear side frame toward one of the side sills and connected to the side sill ; and wherein a bending facilitating portion that is configured to facilitate bending under a lateral-collision load is formed outward of a bent portion of the kick-up and an outer side portion of the battery unit , at a position inward of an inner end of the rear side frame or at substantially the same position as the inner end of the rear side frame.
A medical device comprising a magnetic suspension system , the magnetic suspension system comprising: a plate-shaped support structure having an area provided with a ferromagnetic characteristic, and a carriage comprising a magnet exerting a magnetic attraction force between the carriage and the support structure , wherein the carriage comprises a friction reducing device , and a drive device configured to drive a motion of the carriage upon the support structure in an arbitrary predetermined direction, the drive device being separate from the friction reducing device , wherein the medical device comprises a supply main for supplying the medical device with at least one of energy, gases and control signals, and magnetic carriers configured to support and guide the supply main , the magnetic carriers respectively comprising a magnet and being attachable to the support structure by magnetic force, wherein the medical device is configured to supply and carry medical apparatuses, the medical device being a ceiling mounted support system or a modular boom. a plate-shaped support structure having an area provided with a ferromagnetic characteristic, and a carriage comprising a magnet exerting a magnetic attraction force between the carriage and the support structure , wherein the carriage comprises a friction reducing device , and a drive device configured to drive a motion of the carriage upon the support structure in an arbitrary predetermined direction, the drive device being separate from the friction reducing device , wherein the medical device comprises a supply main for supplying the medical device with at least one of energy, gases and control signals, and magnetic carriers configured to support and guide the supply main , the magnetic carriers respectively comprising a magnet and being attachable to the support structure by magnetic force, wherein the medical device is configured to supply and carry medical apparatuses, the medical device being a ceiling mounted support system or a modular boom.
A laser light supply system for fiber-optic data communication, comprising: a laser light generator configured to simultaneously generate a plurality of wavelengths of continuous wave laser light, the laser light generator having an optical output, the laser light generator configured to transmit each of the plurality of wavelengths of continuous wave laser light through the optical output as a laser light supply, wherein the laser light generator includes a plurality of lasers , each laser in the plurality of lasers (501-1 to 501-N) configured to generate continuous wave laser light at a different wavelength, wherein each laser in the plurality of lasers (501-1 to 501-N) is mounted in thermal contact with a common thermally conductive substrate configured to distribute heat emanating from each laser in the plurality of lasers, wherein each laser in the plurality of lasers (501-1 to 501-N) does not have active temperature control; an optical conveyance device connected to receive the laser light supply from the optical output of the laser light generator; and an optical distribution network having an optical input connected to the optical conveyance device to receive the laser light supply from the laser light generator , the optical distribution network configured to transmit the laser light supply to each of one or more optical transceivers (311-1 to 311-N), wherein the laser light generator is physically separate from each of the one or more optical transceivers (311-1 to 311-N). a laser light generator configured to simultaneously generate a plurality of wavelengths of continuous wave laser light, the laser light generator having an optical output, the laser light generator configured to transmit each of the plurality of wavelengths of continuous wave laser light through the optical output as a laser light supply, wherein the laser light generator includes a plurality of lasers , each laser in the plurality of lasers (501-1 to 501-N) configured to generate continuous wave laser light at a different wavelength, wherein each laser in the plurality of lasers (501-1 to 501-N) is mounted in thermal contact with a common thermally conductive substrate configured to distribute heat emanating from each laser in the plurality of lasers, wherein each laser in the plurality of lasers (501-1 to 501-N) does not have active temperature control; an optical conveyance device connected to receive the laser light supply from the optical output of the laser light generator; and an optical distribution network having an optical input connected to the optical conveyance device to receive the laser light supply from the laser light generator , the optical distribution network configured to transmit the laser light supply to each of one or more optical transceivers (311-1 to 311-N), wherein the laser light generator is physically separate from each of the one or more optical transceivers (311-1 to 311-N).
A thermal container comprising at least one flat rear cushion and one flat front cushion extending in another plane above the rear cushion , which cushions are connected to one another at opposite side edges and at a further side edge of the thermal container , are formed in one piece or merge into one another via a connecting piece, in such a way that a cavity is formed between the rear cushion and the front cushion , the rear cushion and the front cushion each being formed from at least one bag or at least one compartment and a fibrous material located inside the at least one bag or at least one compartment , wherein the fibrous material comprises a stack of a plurality of flat superimposed single layers made of creped fibrous material, characterized in that the fibrous material further comprises at least one random layer of lose paper scraps and/or hemp shred being arranged respectively between two of the single layers formed from randomly laying fibers with a respective crepe height (d) of ≥ 0.3 mm and < 1 mm, which random layer is not enveloped separately.
A radio base station, comprising a Radio Equipment Control, REC , and Radio Equipment, RE , at least two Common Public Radio Interface, CPRI, links exist between the REC and the RE ; and in-phase/quadrature phase, I/Q, data between the REC and the RE is transmitted over the at least two CPRI links, characterized in that the REC is an REC that supports multiple modes, two CPRI links exist between two ports of the RE and two ports of a module supporting a first mode in the REC , and a data link exists between a module supporting the first mode and a module supporting a second mode in the REC .
A process for preparing an isocyanate product, the process comprising: providing a phosgene inlet stream and an amine-in-solvent inlet stream to a phosgenation mixer, the amine-in-solvent inlet stream including one or more amines and one or more inert solvents; and during steady state operation compensating for a fouling pressure drop increase by decreasing a pressure drop in the phosgenation mixer over a time period divided into at least a first period of time T 1 and a second period of time T 2 that is subsequent to the first period of time T 1 , during the second period of time T 2 an amine concentration of the one or more amines in the amine-in-solvent stream is higher than during the first period of time T 1 , and during the second period of time T 2 a phosgene-to-amine ratio value in the phosgenation mixer is higher than during the first period of time T 1 . providing a phosgene inlet stream and an amine-in-solvent inlet stream to a phosgenation mixer, the amine-in-solvent inlet stream including one or more amines and one or more inert solvents; and during steady state operation compensating for a fouling pressure drop increase by decreasing a pressure drop in the phosgenation mixer over a time period divided into at least a first period of time T 1 and a second period of time T 2 that is subsequent to the first period of time T 1 , during the second period of time T 2 an amine concentration of the one or more amines in the amine-in-solvent stream is higher than during the first period of time T 1 , and during the second period of time T 2 a phosgene-to-amine ratio value in the phosgenation mixer is higher than during the first period of time T 1 .
A timepiece with a wireless function, comprising: an antenna ; a reception unit that is configured to process a signal from the antenna ; a solar panel ; a storage battery ; a back cover ; and a charging coil disposed opposite the back cover ; characterized by further comprising: a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil ; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate . an antenna ; a reception unit that is configured to process a signal from the antenna ; a solar panel ; a storage battery ; a back cover ; and a charging coil disposed opposite the back cover ; characterized by further comprising: a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil ; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate . a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil ; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate .
A network node for a wireless communication system , the network node comprising: a processor configured to determine a resource indicator , the resource indicator comprising a single resource allocation value indicative of a first start index and a first number of frequency resource blocks; and a transceiver configured to transmit a transmission grant comprising the resource indicator to a user device , wherein the first start index and the first number of frequency resource blocks are configured to be used for allocating a first set of contiguous frequency resources within a first sub-band and a corresponding first set of contiguous frequency resources within a second sub-band, and wherein the first sub-band and the second sub-band are non-overlapping; characterized in that the allocation of the first set of contiguous frequency resources within the first sub-band is identical to the allocation of the corresponding first set of contiguous frequency resources within the second sub-band. a processor configured to determine a resource indicator , the resource indicator comprising a single resource allocation value indicative of a first start index and a first number of frequency resource blocks; and a transceiver configured to transmit a transmission grant comprising the resource indicator to a user device , wherein the first start index and the first number of frequency resource blocks are configured to be used for allocating a first set of contiguous frequency resources within a first sub-band and a corresponding first set of contiguous frequency resources within a second sub-band, and wherein the first sub-band and the second sub-band are non-overlapping; characterized in that the allocation of the first set of contiguous frequency resources within the first sub-band is identical to the allocation of the corresponding first set of contiguous frequency resources within the second sub-band.
A refrigerator comprising: a cabinet defining a storage space; a door disposed at a front side of the cabinet to close the storage space and having an opening ; a panel assembly configured to shield the opening and comprising a see-through part ; and a storage chamber light installed on an inner side-wall of the cabinet ; wherein the panel assembly comprises: a front panel ; a rear panel disposed to be spaced backward from the front panel ; a display disposed in a space between the front panel and the rear panel ; a light guide plate disposed to be spaced backward from the display ; and a backlight disposed on an end-side of the light guide plate , wherein the light guide plate comprises a light diffuser , and light emitted from the backlight is scattered by the light diffuser , characterized in that the light diffuser includes spherical particles and is configured to refract light emitted to the light guide plate , to uniformly illuminate an entire surface of the light guide plate without providing a reflection layer or pattern on the light guide plate when the light is emitted to the light guide plate . a cabinet defining a storage space; a door disposed at a front side of the cabinet to close the storage space and having an opening ; a panel assembly configured to shield the opening and comprising a see-through part ; and a storage chamber light installed on an inner side-wall of the cabinet ; wherein the panel assembly comprises: a front panel ; a rear panel disposed to be spaced backward from the front panel ; a display disposed in a space between the front panel and the rear panel ; a light guide plate disposed to be spaced backward from the display ; and a backlight disposed on an end-side of the light guide plate , a front panel ; a rear panel disposed to be spaced backward from the front panel ; a display disposed in a space between the front panel and the rear panel ; a light guide plate disposed to be spaced backward from the display ; and a backlight disposed on an end-side of the light guide plate , wherein the light guide plate comprises a light diffuser , and light emitted from the backlight is scattered by the light diffuser , characterized in that the light diffuser includes spherical particles and is configured to refract light emitted to the light guide plate , to uniformly illuminate an entire surface of the light guide plate without providing a reflection layer or pattern on the light guide plate when the light is emitted to the light guide plate .
An apparatus comprising means for: providing a model for a system for mitigating unwanted components in a received signal, wherein the unwanted components are due to first and second sources in the system, and wherein the first and second sources relate to non-linear effects; determining a first curve, a corr , by performing autocorrelation of the model ; determining a second curve, Xcorr env , by performing cross-correlation of the model and the received signal comprising the unwanted components ; and estimating first and second delays associated with respective first and second sources based on the first and second curves, a corr , Xcorr env . providing a model for a system for mitigating unwanted components in a received signal, wherein the unwanted components are due to first and second sources in the system, and wherein the first and second sources relate to non-linear effects; determining a first curve, a corr , by performing autocorrelation of the model ; determining a second curve, Xcorr env , by performing cross-correlation of the model and the received signal comprising the unwanted components ; and estimating first and second delays associated with respective first and second sources based on the first and second curves, a corr , Xcorr env .
A footswitch assembly for controlling an adjustable bed, including: a footswitch for controlling an adjustable bed, the footswitch having an operative element and being configured to be actuated in response to pressure of a foot or part of a foot upon the operative element ; a guard member movable between a guarding position and a non-guarding position; wherein in the guarding position the guard member is configured to overlie a portion of the operative element to inhibit actuation of the footswitch , and wherein in the non-guarding position the guard member is configured to allow access to the operative element for actuation of the footswitch , further comprising a validation element being configured, in response to movement of the guard member into the non-guarding position, to validate actuation of the footswitch , characterised in that the validation element is configured to be coupled to a control mechanism of the bed, the validation element being configured to receive at least one actuation signal from the footswitch and wherein validating the actuation of the footswitch includes sending a signal to the control mechanism of the bed corresponding to the actuation signal received from the footswitch . a footswitch for controlling an adjustable bed, the footswitch having an operative element and being configured to be actuated in response to pressure of a foot or part of a foot upon the operative element ; a guard member movable between a guarding position and a non-guarding position; wherein in the guarding position the guard member is configured to overlie a portion of the operative element to inhibit actuation of the footswitch , and wherein in the non-guarding position the guard member is configured to allow access to the operative element for actuation of the footswitch , further comprising a validation element being configured, in response to movement of the guard member into the non-guarding position, to validate actuation of the footswitch , characterised in that the validation element is configured to be coupled to a control mechanism of the bed, the validation element being configured to receive at least one actuation signal from the footswitch and wherein validating the actuation of the footswitch includes sending a signal to the control mechanism of the bed corresponding to the actuation signal received from the footswitch .
A method for writing information into nucleic acid sequences, the method comprising: (a) translating said information into a string of symbols, wherein each symbol in said string of symbols has one of two possible symbol values; (b) encoding said string of symbols to a plurality of identifiers, wherein an individual identifier of said plurality of identifiers comprises a corresponding plurality of components, wherein each component in said plurality of components comprises a distinct nucleic caid sequence with first and second ends, a first hybridization region on the first end of the distinct nucleic acid sequence and a second hybridization region on the second end of the distinct nucleic acid sequence, wherein the plurality of components are divided into M layers, wherein each layer of said M layers comprises a distinct set of components and wherein each said individual identifier of said plurality of identifiers corresponds to an individual symbol of said string of symbols; (c) constructing individual identifiers of said plurality of identifiers by depositing the corresponding plurality of components into a compartment and assembling, via one or more reactions, one component from each of the M layers in a fixed order; and (d) constructing an identifier library comprising said individual identifiers corresponding to said string of symbols, wherein the symbol value at each position of said string of symbols is represented by a presence or absence of a distinct identifier in the identifier library. (a) translating said information into a string of symbols, wherein each symbol in said string of symbols has one of two possible symbol values; (b) encoding said string of symbols to a plurality of identifiers, wherein an individual identifier of said plurality of identifiers comprises a corresponding plurality of components, wherein each component in said plurality of components comprises a distinct nucleic caid sequence with first and second ends, a first hybridization region on the first end of the distinct nucleic acid sequence and a second hybridization region on the second end of the distinct nucleic acid sequence, wherein the plurality of components are divided into M layers, wherein each layer of said M layers comprises a distinct set of components and wherein each said individual identifier of said plurality of identifiers corresponds to an individual symbol of said string of symbols; (c) constructing individual identifiers of said plurality of identifiers by depositing the corresponding plurality of components into a compartment and assembling, via one or more reactions, one component from each of the M layers in a fixed order; and (d) constructing an identifier library comprising said individual identifiers corresponding to said string of symbols, wherein the symbol value at each position of said string of symbols is represented by a presence or absence of a distinct identifier in the identifier library.