mhurhangee/patent-ind-claim-en huggingface dataset:
An optical module comprising at least one set of: conductive cover block an optical port ; an optical processing circuit optically connected to the optical port ; an electro-optical transducer optically connected to the optical processing circuit ; two or more high-frequency transmission lines connected to the electro-optical transducer , wherein a ground electrode is inserted between adjacent high-frequency transmission lines out of the two or more high-frequency transmission lines ; and electrical ports connected to the high-frequency transmission lines , the optical module comprising a conductive cover block which is provided above the high-frequency transmission lines so as to cover at least a part of each of the high-frequency transmission lines , and the conductive cover block is connected to ground. conductive cover block an optical port ; an optical processing circuit optically connected to the optical port ; an electro-optical transducer optically connected to the optical processing circuit ; two or more high-frequency transmission lines connected to the electro-optical transducer , wherein a ground electrode is inserted between adjacent high-frequency transmission lines out of the two or more high-frequency transmission lines ; and electrical ports connected to the high-frequency transmission lines , the optical module comprising a conductive cover block which is provided above the high-frequency transmission lines so as to cover at least a part of each of the high-frequency transmission lines , and the conductive cover block is connected to ground.
A radiation source module for use in a fluid treatment system , the radiation source module comprising: (a) a frame element comprising a bottom frame element , a top frame element , a first side frame element and a second side frame element ; (b) a plurality of elongate radiation source elements secured to the frame element each elongate radiation source element having a longitudinal axis; (c) a first drive element secured to a first side portion of the frame element ; (d) a second drive element secured to a second side portion of the frame element ; (e) the two drive elements are disposed on opposed sides of the frame element ; (f) the two side frame elements and the two drive elements are arranged parallel to each other; (g) the two drive elements are configured to reversably translate the plurality of elongate radiation source elements in a direction parallel to the longitudinal axis, thereby supporting the modul . (a) a frame element comprising a bottom frame element , a top frame element , a first side frame element and a second side frame element ; (b) a plurality of elongate radiation source elements secured to the frame element each elongate radiation source element having a longitudinal axis; (c) a first drive element secured to a first side portion of the frame element ; (d) a second drive element secured to a second side portion of the frame element ; (e) the two drive elements are disposed on opposed sides of the frame element ; (f) the two side frame elements and the two drive elements are arranged parallel to each other; (g) the two drive elements are configured to reversably translate the plurality of elongate radiation source elements in a direction parallel to the longitudinal axis, thereby supporting the modul .
A method of wireless communication, the method comprising: determining , by a processor, a number of antenna ports to be used for wireless communication; determining that the number of antenna ports is equal to or less than a first threshold number of antenna ports; determining frequency resources allocated for the transmission of a mini-slot; allocating , by the processor, a first plurality of frequency resources for the transmission of a channel state information reference signal, CSIRS, based on the determined number of antenna ports, wherein the first plurality of frequency resources includes or corresponds to the frequency resources allocated for the transmission of the mini-slot when the number of antenna ports is equal to or less than the first threshold number of antenna ports; and transmitting , by the processor, the CSIRS over the first plurality of frequency resources. determining , by a processor, a number of antenna ports to be used for wireless communication; determining that the number of antenna ports is equal to or less than a first threshold number of antenna ports; determining frequency resources allocated for the transmission of a mini-slot; allocating , by the processor, a first plurality of frequency resources for the transmission of a channel state information reference signal, CSIRS, based on the determined number of antenna ports, wherein the first plurality of frequency resources includes or corresponds to the frequency resources allocated for the transmission of the mini-slot when the number of antenna ports is equal to or less than the first threshold number of antenna ports; and transmitting , by the processor, the CSIRS over the first plurality of frequency resources.
Air spring control device for a rail vehicle bogie with two air springs, comprising a differential pressure compensation valve , wherein two compressed-air ports are provided and are designed for connection to one air spring each and conduct the respective air spring pressure to one port each of the differential pressure compensation valve , characterised in that the air spring control device comprises a medium pressure value and a return valve , wherein the compressed-air ports conduct the respective air spring pressure to a port of the medium-pressure valve in each case, wherein a medium pressure which can be generated by the medium-pressure valve is conducted to a medium-pressure port and wherein one of the air spring pressures is conducted to a return valve , which is connected at its output to a return valve port . comprising a differential pressure compensation valve , wherein two compressed-air ports are provided and are designed for connection to one air spring each and conduct the respective air spring pressure to one port each of the differential pressure compensation valve , characterised in that the air spring control device comprises a medium pressure value and a return valve , wherein the compressed-air ports conduct the respective air spring pressure to a port of the medium-pressure valve in each case, wherein a medium pressure which can be generated by the medium-pressure valve is conducted to a medium-pressure port and wherein one of the air spring pressures is conducted to a return valve , which is connected at its output to a return valve port .
A computer-implemented method for operating an autonomous vehicle, comprising: receiving driving environment data of the autonomous vehicle, wherein the driving environment data includes a route segment; segmenting the route segment into a plurality of route sub-segments; assigning a specific driving scenario to each of the plurality of route sub-segments along which the autonomous vehicle is travelling, wherein each specific driving scenario is included in a set of driving scenarios; wherein the specific driving scenario is assigned utilizing map and route information included in the driving environment data to determine a specific area on a map, with which the route sub segment is associated, characterized in the specific area including an urban area, a highway area, a parking lot area or an unmapped area, wherein the set of driving scenarios includes an urban scenario, a highway scenario, a parking lot scenario, and an unmapped scenario; assigning a first motion planning algorithm according to a first assigned driving scenario included in the set of driving scenarios; invoking the first motion planning algorithm to generate a first set of trajectories; and controlling the autonomous vehicle based on the first set of trajectories. receiving driving environment data of the autonomous vehicle, wherein the driving environment data includes a route segment; segmenting the route segment into a plurality of route sub-segments; assigning a specific driving scenario to each of the plurality of route sub-segments along which the autonomous vehicle is travelling, wherein each specific driving scenario is included in a set of driving scenarios; wherein the specific driving scenario is assigned utilizing map and route information included in the driving environment data to determine a specific area on a map, with which the route sub segment is associated, characterized in the specific area including an urban area, a highway area, a parking lot area or an unmapped area, wherein the set of driving scenarios includes an urban scenario, a highway scenario, a parking lot scenario, and an unmapped scenario; assigning a first motion planning algorithm according to a first assigned driving scenario included in the set of driving scenarios; invoking the first motion planning algorithm to generate a first set of trajectories; and controlling the autonomous vehicle based on the first set of trajectories.
An electrochemical well pipe cutting instrument, applicable in particular for cutting any type of metal pipes accessing underground works with conductive fluid inside, and which is an instrument that cuts by means of an electrochemical process, comprising • at least means for ensuring electrical continuity • at least one electrode • at least means for ensuring mechanical fixation of the instrument in the pipe characterized in that the means for ensuring electrical continuity are also the means for ensuring mechanical fixation, said means are constituted by a plurality of anchors articulated and arranged radially at the same level, the anchors being adapted to open to reach the inner wall of the pipe for fixing the instrument in the pipe. • at least means for ensuring electrical continuity • at least one electrode • at least means for ensuring mechanical fixation of the instrument in the pipe
A pharmaceutical composition for use in treating or preventing neuropathic pain, said composition comprising choline alfoscerate as an active ingredient.
Inkjet printing apparatus comprising an inkjet print head arranged to be moveable in a direction of movement along a guiding assembly, the guiding assembly comprising a. a support beam providing a first flat surface extending substantially horizontally and a mounting surface extending substantially vertically; b. a flat element adhered to the mounting surface , the flat element providing a second flat surface extending substantially vertically, the second flat surface being substantially perpendicular to the first flat surface, wherein the second flat surface is substantially straight in the direction of movement of the inkjet print head; c. a guide element arranged on the first flat surface, the guide element being substantially straight in the direction of movement of the inkjet print head and extending in parallel to the second flat surface ; d. a carriage support frame for supporting a print head carriage ; e. an air bearing unit ; wherein the flat element is mounted to the mounting surface of the support beam such that the straightness of the flat element in the direction of movement is obtained and maintained and wherein the carriage support frame is arranged such that the air bearing unit is operatively coupled to the guiding surface . a. a support beam providing a first flat surface extending substantially horizontally and a mounting surface extending substantially vertically; b. a flat element adhered to the mounting surface , the flat element providing a second flat surface extending substantially vertically, the second flat surface being substantially perpendicular to the first flat surface, wherein the second flat surface is substantially straight in the direction of movement of the inkjet print head; c. a guide element arranged on the first flat surface, the guide element being substantially straight in the direction of movement of the inkjet print head and extending in parallel to the second flat surface ; d. a carriage support frame for supporting a print head carriage ; e. an air bearing unit ; wherein the flat element is mounted to the mounting surface of the support beam such that the straightness of the flat element in the direction of movement is obtained and maintained and wherein the carriage support frame is arranged such that the air bearing unit is operatively coupled to the guiding surface .
A projection display apparatus comprising: a plurality of solid-state light sources; an image generating section including a display device that modulates light emitted from the plurality of solid-state light sources; a light source optical system that guides the light emitted from the plurality of solid-state light sources to the image generating section; a projection optical system that projects image light generated in the image generating section; the light source optical system including a first reflection device having a plurality of reflection regions and a plurality of transmission regions ; the plurality of transmission regions being arranged in substantially same direction as a minor-axis direction in an elliptical cross-sectional shape of light emitted from the plurality of solid-state light sources; a first light source section and a second light source section each including the plurality of solid-state light sources, wherein the light source optical system includes the first reflection device in a direction in which light is emitted from the first light source section and includes a second reflection device in a direction in which light is emitted from the second light source section; and a third light source section and a fourth light source section that are diametrically opposed to the first light source section and the second light source section, respectively. a plurality of solid-state light sources; an image generating section including a display device that modulates light emitted from the plurality of solid-state light sources; a light source optical system that guides the light emitted from the plurality of solid-state light sources to the image generating section; a projection optical system that projects image light generated in the image generating section; the light source optical system including a first reflection device having a plurality of reflection regions and a plurality of transmission regions ; the plurality of transmission regions being arranged in substantially same direction as a minor-axis direction in an elliptical cross-sectional shape of light emitted from the plurality of solid-state light sources; a first light source section and a second light source section each including the plurality of solid-state light sources, wherein the light source optical system includes the first reflection device in a direction in which light is emitted from the first light source section and includes a second reflection device in a direction in which light is emitted from the second light source section; and a third light source section and a fourth light source section that are diametrically opposed to the first light source section and the second light source section, respectively.
A vibration device, comprising: a vibration array including: a plurality of vibration modules (210A - 210D); a first protection member connected to a first surface of each of the plurality of vibration modules (210A - 210D) in common by a first adhesive layer ; and a second protection member connected to a second surface opposite to the first surface of each of the plurality of vibration modules (210A - 210D) in common by a second adhesive layer , wherein each of the vibration modules (210A - 210D) is arranged at a same plane between the first protection member and the second protection member and surrounded by the first and second adhesive layers , and wherein the vibration modules (210A - 210D) are spaced apart from one another by a first interval (D1) of less than 3 cm in a first direction (X). a plurality of vibration modules (210A - 210D); a first protection member connected to a first surface of each of the plurality of vibration modules (210A - 210D) in common by a first adhesive layer ; and a second protection member connected to a second surface opposite to the first surface of each of the plurality of vibration modules (210A - 210D) in common by a second adhesive layer , wherein each of the vibration modules (210A - 210D) is arranged at a same plane between the first protection member and the second protection member and surrounded by the first and second adhesive layers , and wherein the vibration modules (210A - 210D) are spaced apart from one another by a first interval (D1) of less than 3 cm in a first direction (X).
A method for manufacturing a sandwich panel as a semi-finished product where at least one layer of a non-metallic material is positioned between at least two metallic layers , whereby at least one of the metal layers is shaped into a three dimensional layer in the form of a corrugated metal strip, providing metallic contacts between the metallic layers , characterized in that the metal layers are joined by tack welds by a resistance welding process worked out by a resistance roller seam weld with an electrode force between 1.0 kN - 3.0 kN, and a welding speed more than 4.0 m/min, to enable resistance weldability of the semi-finished product.
Revision prosthesis shaft of a revision joint endoprosthesis for anchoring in an epimetaphyseal region of an elongate bone , in particular femur, which comprises an epimetaphysis , a diaphysis and a distal epimetaphysis , wherein the revision prosthesis shaft has, at the upper end, a neck part for receiving a joint piece and, adjoining the neck part , a shaft part whose surface is designed for adhesive agent-free fastening in the epimetaphysis and diaphysis and whose length is dimensioned such that it reaches into the diaphysis of the bone, characterized in that a distal epimetaphyseal extension for the shaft is provided at the far end of the shaft part , the length of which extension is dimensioned such that its tip reaches into the distal epimetaphysis of the bone, wherein the extension is designed for fastening in the distal epimetaphysis with an adhesive agent , in particular bone cement.
A method for examining an object with periodic structures, comprising determining a volume in which a Talbot interference pattern will be formed, said Talbot interference pattern to be formed using a source of x-rays and an x-ray beam splitting grating ; placing an object having periodic structures into said volume; establishing the Talbot interference pattern, wherein the x-ray beam splitting grating is configured to produce an interference pattern having a pitch corresponding to the periodic structures of the object to be examined; aligning the periodic structures of the object with the anti-nodes of the Talbot interference pattern; and detecting an x-ray signal resulting from the interaction of the Talbot interference pattern and the periodic structures of the object .
A non-dairy frozen confection comprising 30 to 60 wt. % of coconut cream based on the total weight of the frozen confection, 20 to 30 wt. % of the coconut cream being fat and the coconut cream having a total solid content of 25 to 40%, 15 to 40 wt. % non-fat solids and water, and being free from stabilizers or comprises as the only stabilizer fruit or vegetable based stabilizer or a combination thereof, and wherein the non-fat solids comprises non-fat solids selected from the group consisting of sucrose or sugar, glucose, fructose, maltose, glucose syrup, fibres, protein or combinations thereof.
A navigation system , comprising: an instrument that is operable to be moved relative to a subject and having an exterior wall that defines an instrument axis ; a holding portion defined by the instrument substantially within a surface of the exterior wall; and a tracking device formed of at least a first portion having a first conductive wire wound around a first core , wherein the first portion has the first core that defines a shaped member having a first wider center portion and a pair of tapered ends, said wire being wrapped around the first wider central portion and the tapered ends, wherein the first portion defines a first navigation vector, wherein at least one of said pair of tapered ends has a generally flat surface, characterized in that the first portion is positioned in the holding portion of the instrument and wherein the holding portion includes a first depression to receive the first portion, positioning the generally flat surface against a surface of the first depression. an instrument that is operable to be moved relative to a subject and having an exterior wall that defines an instrument axis ; a holding portion defined by the instrument substantially within a surface of the exterior wall; and a tracking device formed of at least a first portion having a first conductive wire wound around a first core , wherein the first portion has the first core that defines a shaped member having a first wider center portion and a pair of tapered ends, said wire being wrapped around the first wider central portion and the tapered ends, wherein the first portion defines a first navigation vector, wherein at least one of said pair of tapered ends has a generally flat surface, characterized in that the first portion is positioned in the holding portion of the instrument and wherein the holding portion includes a first depression to receive the first portion, positioning the generally flat surface against a surface of the first depression.
A fuel injector for a turbomachine, comprising: an outer heat shield configured to sit on and/or within a combustor dome to orient the fuel injector relative to the combustor dome and/or a fuel manifold , wherein an inner surface of the outer heat shield includes an outer heat shield seal surface ; and a fuel prefilmer seated at least partially within the outer heat shield , wherein an outer surface of the fuel prefilmer includes a prefilmer seal surface configured to mate with the outer heat shield seal surface such that the fuel prefilmer seats on the outer heat shield seal surface and such that the prefilmer seal surface is configured to allow the surfaces to slide relative to one another in both a radial and axial direction, wherein the outer heat shield seal surface and the prefilmer seal surface are frustoconical shaped. an outer heat shield configured to sit on and/or within a combustor dome to orient the fuel injector relative to the combustor dome and/or a fuel manifold , wherein an inner surface of the outer heat shield includes an outer heat shield seal surface ; and a fuel prefilmer seated at least partially within the outer heat shield , wherein an outer surface of the fuel prefilmer includes a prefilmer seal surface configured to mate with the outer heat shield seal surface such that the fuel prefilmer seats on the outer heat shield seal surface and such that the prefilmer seal surface is configured to allow the surfaces to slide relative to one another in both a radial and axial direction, wherein the outer heat shield seal surface and the prefilmer seal surface are frustoconical shaped.