mhurhangee/patent-ind-claim-en huggingface dataset:
Illumination module for a motor vehicle, in particular projection module for a motor vehicle, comprising two illumination units , an upper illumination unit and a lower illumination unit , and a lens , preferably a projection lens, wherein the light radiated by the at least one illumination unit onto the lens is projected by the lens - in a mounted state of the illumination module - to a region located in front of the motor vehicle, wherein each illumination unit comprises a reflector and a light source located in a focal point of the reflector, and wherein the illumination module further comprises a horizontal diaphragm arranged on an optical module axis (X), having an optically effective edge facing the lens and configured to produce a cut-off line, wherein the lens is divided into two lens portions , an upper lens portion and a lower lens portion , wherein the division into lens portions is realized on the light entry surface of the lens, and wherein the lens portions are different with respect to their imaging properties, and wherein in each lens portion , light is irradiated only from an illumination unit associated with the lens portion , characterized in that a focal plane of the lens passes through second focal points of the two reflectors , and with the upper illumination unit and the lower lens portion a dipped beam distribution (LVb, LVb') is generated, and with the lower illumination unit and the upper lens portion a part of a main beam distribution (LVa, LVa') is generated, and wherein a main beam distribution (LV, LV') is generated when both illumination units are activated, and wherein, in order to achieve a closed main beam distribution (LV'), the upper lens portion is inclined from the module axis (X) towards the illumination units, an optical axis of the lower lens portion is parallel to the module axis (X), and the lens has a flat light entry surface.
Method for guiding a motor vehicle in a parking lot , wherein - a trajectory in the parking lot from a starting position to a target position is ascertained externally to the motor vehicle, wherein - at least a portion of the trajectory is transmitted to the motor vehicle via a communication network , wherein - the trajectory is ascertained on the basis of a property of the motor vehicle , wherein - the motor vehicle , when travelling the portion, is monitored for a deviation when autonomously travelling the portion by way of a monitoring system external to the motor vehicle, and wherein - the ascertained trajectory is divided into portions that are transmitted to the motor vehicle individually, such that the motor vehicle is able to travel the trajectory in portions, characterized in that - the respective length of a portion is dependent on a degree of difficulty concerning the travelling of the portion. - a trajectory in the parking lot from a starting position to a target position is ascertained externally to the motor vehicle, wherein - at least a portion of the trajectory is transmitted to the motor vehicle via a communication network , wherein - the trajectory is ascertained on the basis of a property of the motor vehicle , wherein - the motor vehicle , when travelling the portion, is monitored for a deviation when autonomously travelling the portion by way of a monitoring system external to the motor vehicle, and wherein - the ascertained trajectory is divided into portions that are transmitted to the motor vehicle individually, such that the motor vehicle is able to travel the trajectory in portions, - the respective length of a portion is dependent on a degree of difficulty concerning the travelling of the portion.
A method for detecting a reversibly photoswitchable chemical species in a sample, comprising the steps of: a) illuminating the sample (S) with a first light at a first wavelength suitable to be absorbed by the chemical species triggering a reaction affecting at least one optical property of the chemical species, said first light having an average intensity, and being periodically-modulated at a fundamental modulation frequency and b) measuring a signal representing the evolution of the optical property of the chemical species; characterized in that it further comprises the steps of: c) extracting at least one of: - an in-phase component at a frequency which is an even multiple, different from zero, of the fundamental modulation frequency; and - a quadrature component at a frequency which is an odd multiple of the fundamental modulation frequency, greater than the fundamental modulation frequency itself, of the signal representing said evolution; and d) using the extracted component or components for detecting the chemical species. a) illuminating the sample (S) with a first light at a first wavelength suitable to be absorbed by the chemical species triggering a reaction affecting at least one optical property of the chemical species, said first light having an average intensity, and being periodically-modulated at a fundamental modulation frequency and b) measuring a signal representing the evolution of the optical property of the chemical species; c) extracting at least one of: - an in-phase component at a frequency which is an even multiple, different from zero, of the fundamental modulation frequency; and - a quadrature component at a frequency which is an odd multiple of the fundamental modulation frequency, greater than the fundamental modulation frequency itself, of the signal representing said evolution; and - an in-phase component at a frequency which is an even multiple, different from zero, of the fundamental modulation frequency; and - a quadrature component at a frequency which is an odd multiple of the fundamental modulation frequency, greater than the fundamental modulation frequency itself, of the signal representing said evolution; and d) using the extracted component or components for detecting the chemical species.
An antenna structure integrated in a printed circuit board comprising : first and second dielectric layers having the same dielectric constant but different thicknesses, the first and second dielectric layers each having a first face and a second face , a balanced spiral radiating element on a first face of the first dielectric layer and a balanced antenna feed through a balanced twin-wire line having the same impedance as the spiral radiating element , the antenna structure being characterised in that the balanced twin-wire line interconnects the balanced spiral antenna to a pair of balanced microstrip transmission lines positioned on a second face of the second layer , where each microstrip transmission line is adapted to have an impedance equal to half the impedance of the twin-wire transmission line and it further comprises a ground plane positioned on the first face of the second layer and on the second face of the first layer , in correspondence with the microstrip lines , the ground plane being configured to determine, as a function of the thickness of the second dielectric layer and of the distance between the wires of the balanced twin-wire line , the transmission impedance of the microstrip transmission lines . first and second dielectric layers having the same dielectric constant but different thicknesses, the first and second dielectric layers each having a first face and a second face , a balanced spiral radiating element on a first face of the first dielectric layer and a balanced antenna feed through a balanced twin-wire line having the same impedance as the spiral radiating element , the antenna structure being characterised in that the balanced twin-wire line interconnects the balanced spiral antenna to a pair of balanced microstrip transmission lines positioned on a second face of the second layer , where each microstrip transmission line is adapted to have an impedance equal to half the impedance of the twin-wire transmission line and it further comprises a ground plane positioned on the first face of the second layer and on the second face of the first layer , in correspondence with the microstrip lines , the ground plane being configured to determine, as a function of the thickness of the second dielectric layer and of the distance between the wires of the balanced twin-wire line , the transmission impedance of the microstrip transmission lines .
A device for moving a movable building part of a building, in particular for opening and/or closing a window , a window sash or a door, comprising a moving element for moving the building part, with a handle in the manner of a window catch, which can be brought into cooperation with the moving element for manually moving the building part, and comprising an electromotive drive , wherein the drive is arranged in the handle, wherein the housing of the drive is designed as a handle, wherein the drive interacts with the moving element to move the building part in a non-manual manner, wherein the drive can be brought into and/or out of interaction with the moving element by the drive being slidably mounted along the moving element in the axial direction, characterised in that the drive is slidably mounted such that it is coupled to the moving element to move the building part in a non-manual manner and is decoupled from the moving element to move the building part in a manual manner and the handle is coupled into the moving element, and wherein the moving element not interacting with the drive for manually moving the building part can be manually moved by means of the handle coupled into the moving element , wherein a clip is arranged on the housing of the handle, and in that the clip is moveable along an inclined plane on the housing such that upon movement of the clip the drive is decoupled from the moving element and the clip is coupled into the moving element together with the housing .
A method for transmitting a physical uplink control channel, PUCCH, signal, the method comprising: transmitting the PUCCH signal based on a shortened PUCCH format; and transmitting a demodulation reference signal, DMRS, for the PUCCH signal, wherein a last orthogonal frequency division multiplexing, OFDM, symbol in the subframe is not used for the shortened PUCCH format, wherein the last OFDM symbol is not applied with an orthogonal sequence, and wherein the DMRS is transmitted in one OFDM symbol per a slot in the subframe. transmitting the PUCCH signal based on a shortened PUCCH format; and transmitting a demodulation reference signal, DMRS, for the PUCCH signal, wherein a last orthogonal frequency division multiplexing, OFDM, symbol in the subframe is not used for the shortened PUCCH format, wherein the last OFDM symbol is not applied with an orthogonal sequence, and wherein the DMRS is transmitted in one OFDM symbol per a slot in the subframe.
Method for operating a technical plant comprising a work area for producing ready-to-ship products from delivered goods, wherein the technical plant comprises a plurality of load carriers for transporting goods and for transporting products, wherein each load carrier comprises a controller, a drive connected to the controller, and a communication interface, wherein goods are delivered to the technical plant , wherein delivered goods are transported into the work area by the load carriers , wherein products are produced in the work area from the goods transported into the work area , wherein produced products are transported out of the work area by the load carriers , and wherein products transported out of the work area are shipped out from the technical plant , characterized in that products are produced from the goods on the load carriers in the work area , and in that at least one of the load carriers comprises a lifting device, which has a platform for receiving products and goods, the platform being movable in a vertical direction between a loading position and a working position, a first group of conveyor rollers, which are arranged upstream of the lifting device in a conveying direction, and a second group of conveyor rollers, which are arranged downstream of the lifting device in the conveying direction. a work area for producing ready-to-ship products from delivered goods, wherein the technical plant comprises a plurality of load carriers for transporting goods and for transporting products, wherein each load carrier comprises a controller, a drive connected to the controller, and a communication interface, wherein goods are delivered to the technical plant , wherein delivered goods are transported into the work area by the load carriers , wherein products are produced in the work area from the goods transported into the work area , wherein produced products are transported out of the work area by the load carriers , and wherein products transported out of the work area are shipped out from the technical plant , characterized in that products are produced from the goods on the load carriers in the work area , and in that at least one of the load carriers comprises a lifting device, which has a platform for receiving products and goods, the platform being movable in a vertical direction between a loading position and a working position, a first group of conveyor rollers, which are arranged upstream of the lifting device in a conveying direction, and a second group of conveyor rollers, which are arranged downstream of the lifting device in the conveying direction.
A build plate for a three-dimensional printer comprising: a rigid, optically transparent, gas-impermeable planar base having an upper surface and a lower surface; a flexible, optically transparent, gas-permeable sheet having an upper and lower surface, the sheet upper surface comprising a build surface for forming a three-dimensional object, the sheet lower surface positioned on the base upper surface, wherein the sheet is adhered to the planar base by an adhesive layer ; and a channel layer between the planar base and the sheet ; wherein the channel layer defines channels therein to provide a gas flow enhancing feature configured to increase gas flow to the build surface. a rigid, optically transparent, gas-impermeable planar base having an upper surface and a lower surface; a flexible, optically transparent, gas-permeable sheet having an upper and lower surface, the sheet upper surface comprising a build surface for forming a three-dimensional object, the sheet lower surface positioned on the base upper surface, wherein the sheet is adhered to the planar base by an adhesive layer ; and a channel layer between the planar base and the sheet ; wherein the channel layer defines channels therein to provide a gas flow enhancing feature configured to increase gas flow to the build surface.
An imaging system for enabling creation of spherical images, the imaging system comprising: a support frame; four image sensors carried by the support frame; each image sensor comprising a lens system having an optical axis and a focal plane array aligned with the optical axis of the lens system; each image sensor having a field of view that is at least coterminous with the field of view of each adjacent image sensor; the image sensors arranged according to one notional regular tetrahedron so that: the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron ; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron. a support frame; four image sensors carried by the support frame; each image sensor comprising a lens system having an optical axis and a focal plane array aligned with the optical axis of the lens system; each image sensor having a field of view that is at least coterminous with the field of view of each adjacent image sensor; the image sensors arranged according to one notional regular tetrahedron so that: the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron ; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron. the optical axis of each respective lens system is collinear with the respective median of the notional regular tetrahedron ; each focal plane array is positioned between the lens system of its respective image sensor and the centroid of the notional regular tetrahedron; and each image sensor faces outwardly relative to the centroid of the notional regular tetrahedron.
A virtual or augmented reality display system comprising: a display having a plurality of waveguides configured to display imagery for a plurality of depth planes, each of the plurality of waveguides being associated with a particular one of the plurality of depth planes and being configured to display the imagery corresponding to that particular depth plane; a graphics processor configured to produce rendered virtual or augmented reality imagery data, wherein the virtual or augmented reality display system is configured to generate and embed shift information in the rendered imagery data; and a display controller configured to receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display . a display having a plurality of waveguides configured to display imagery for a plurality of depth planes, each of the plurality of waveguides being associated with a particular one of the plurality of depth planes and being configured to display the imagery corresponding to that particular depth plane; a graphics processor configured to produce rendered virtual or augmented reality imagery data, wherein the virtual or augmented reality display system is configured to generate and embed shift information in the rendered imagery data; and a display controller configured to receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display . receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display .
Method of operating a regasification terminal, the method comprising: a) obtaining a re-gas stream of LNG from one or more LNG storage tanks , the one or more storage tanks being at a first pressure, wherein the first pressure is in the range of 0.9 - 1.2 bar, b) passing the re-gas stream through a regasifier unit to obtain a regasified natural gas stream , wherein the method further comprises c) receiving a feed stream of pressurized LNG at a second pressure, the second pressure being greater than the first pressure, the second pressure being above 2 bar, d) generating a cooling stream comprising at least a portion of the re-gas stream , e) processing the feed stream of pressurized LNG at the second pressure into a processed feed stream comprising LNG by e1) expanding the feed stream , and e2) cooling the feed stream against the cooling stream , f) passing the processed feed stream to at least one of the LNG storage tanks , wherein the cooling stream is generated by splitting the re-gas stream in a side-stream of the re-gas stream (13") and a remainder of the re-gas stream . a) obtaining a re-gas stream of LNG from one or more LNG storage tanks , the one or more storage tanks being at a first pressure, wherein the first pressure is in the range of 0.9 - 1.2 bar, b) passing the re-gas stream through a regasifier unit to obtain a regasified natural gas stream , wherein the method further comprises c) receiving a feed stream of pressurized LNG at a second pressure, the second pressure being greater than the first pressure, the second pressure being above 2 bar, d) generating a cooling stream comprising at least a portion of the re-gas stream , e) processing the feed stream of pressurized LNG at the second pressure into a processed feed stream comprising LNG by e1) expanding the feed stream , and e2) cooling the feed stream against the cooling stream , e1) expanding the feed stream , and e2) cooling the feed stream against the cooling stream , f) passing the processed feed stream to at least one of the LNG storage tanks ,
A compound having the structure of formula (II): wherein: R 2 is independently hydrogen, halo, C 1-6 alkyl, or C 1-6 haloalkyl; R 4a and R 4b are each independently hydrogen, halo, C 1-6 alkyl, or C 1-6 haloalkyl; or R 4a and R 4b , together with the carbon to which they are both attached, form a cycloalkyl; each R 6 is independently hydrogen or C 1-6 alkyl; R 11 is halo, C 1-6 haloalkyl, -N(R 6 ) 2 , -C 1-6 alkyl-N(R 6 ) 2 , or -C(O)N(R 6 ) 2 ; each R 12 is independently -OH, -CN, halo, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, -N(R 6 ) 2 , -C 1-6 alkyl-N(R 6 ) 2 , -C(O)R 6 , -C(O)OR 6 , -C(O)N(R 6 ) 2 , aryl, aralkyl, cycloalkyl, heterocyclyl, or heteroaryl; and n is 0, 1, 2, 3, or 4; as an individual stereoisomer, enantiomer or tautomer thereof or a mixture thereof; or a pharmaceutically acceptable salt or solvate thereof. R 2 is independently hydrogen, halo, C 1-6 alkyl, or C 1-6 haloalkyl; R 4a and R 4b are each independently hydrogen, halo, C 1-6 alkyl, or C 1-6 haloalkyl; or R 4a and R 4b , together with the carbon to which they are both attached, form a cycloalkyl; each R 6 is independently hydrogen or C 1-6 alkyl; R 11 is halo, C 1-6 haloalkyl, -N(R 6 ) 2 , -C 1-6 alkyl-N(R 6 ) 2 , or -C(O)N(R 6 ) 2 ; each R 12 is independently -OH, -CN, halo, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, -N(R 6 ) 2 , -C 1-6 alkyl-N(R 6 ) 2 , -C(O)R 6 , -C(O)OR 6 , -C(O)N(R 6 ) 2 , aryl, aralkyl, cycloalkyl, heterocyclyl, or heteroaryl; and n is 0, 1, 2, 3, or 4; as an individual stereoisomer, enantiomer or tautomer thereof or a mixture thereof;
An accessible buffer assembly for a buffer of an elevator car , the assembly comprising: an elevator car ; and a buffer ; wherein the buffer is movably attached to the elevator car and configured to provide a safety feature to the elevator car , wherein the buffer is movable from a first position to a second position, the first position being a secured, operational position of the buffer to provide the safety feature, and the second position being an inspection position that is removed from the first position; further comprising a release mechanism (210, 310, 410, ,510, 610) configured to enable disengagement of the buffer from the first position; and characterized by the elevator car having an access panel . an elevator car ; and a buffer ; wherein the buffer is movably attached to the elevator car and configured to provide a safety feature to the elevator car , wherein the buffer is movable from a first position to a second position, the first position being a secured, operational position of the buffer to provide the safety feature, and the second position being an inspection position that is removed from the first position; further comprising a release mechanism (210, 310, 410, ,510, 610) configured to enable disengagement of the buffer from the first position; and characterized by the elevator car having an access panel .