mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing wireless transmissions from multiple transmitters, the method comprising: upon establishing a first service and a second service, performing an authorization procedure of a first device for the first service and of a second device for the second service; and upon successful authorization of the first device and the second device, registering the first device with the first service and registering the second device with the second service; indicating , by a network entity to the first device providing the first service, a first grant, the first grant including a first resource for transmitting for the first service and a second resource for retransmitting for the first service; indicating , by the network entity to the second device providing the second service, a second grant, the second grant including the first resource for transmitting for the second service and a third resource for retransmitting for the second service, wherein the first grant is indicated to the first device and the second grant is indicated to the second device to transmit without scheduling transmissions for the first service and the second service, wherein the first resource, the second resource, and the third resource are sub-transmission time intervals, sub-TTIs, or selected symbols within a TTI; and indicating , by the network entity to a third device providing a third service, a third grant, the third grant including the first resource for transmitting for the third service, wherein the first service and the second service have higher transmission reliability requirements than the third service. upon establishing a first service and a second service, performing an authorization procedure of a first device for the first service and of a second device for the second service; and upon successful authorization of the first device and the second device, registering the first device with the first service and registering the second device with the second service; indicating , by a network entity to the first device providing the first service, a first grant, the first grant including a first resource for transmitting for the first service and a second resource for retransmitting for the first service; indicating , by the network entity to the second device providing the second service, a second grant, the second grant including the first resource for transmitting for the second service and a third resource for retransmitting for the second service, wherein the first grant is indicated to the first device and the second grant is indicated to the second device to transmit without scheduling transmissions for the first service and the second service, wherein the first resource, the second resource, and the third resource are sub-transmission time intervals, sub-TTIs, or selected symbols within a TTI; and indicating , by the network entity to a third device providing a third service, a third grant, the third grant including the first resource for transmitting for the third service, wherein the first service and the second service have higher transmission reliability requirements than the third service.
A computer-implemented method for calculating a future position of an intraoral object of a patient's intraoral cavity, the method comprising: receiving first digital data representative of an actual state of the intraoral cavity at a first time point; receiving second digital data representative of an actual state of the intraoral cavity at a second time point different from the first time point; processing data including the first and second digital data so as to generate a comparison of a characteristic of the intraoral cavity over the first and second time points; and calculating a predicted future position of said intraoral object based on said processed data. receiving first digital data representative of an actual state of the intraoral cavity at a first time point; receiving second digital data representative of an actual state of the intraoral cavity at a second time point different from the first time point; processing data including the first and second digital data so as to generate a comparison of a characteristic of the intraoral cavity over the first and second time points; and calculating a predicted future position of said intraoral object based on said processed data.
A gear comprising: a deaerator shaft comprising a central ring positioned about an axis; wherein the deaerator shaft comprises a plurality of vanes within an interior of the deaerator shaft, each of the plurality of vanes terminating at an inner wall of the deaerator shaft at a point 120 degrees apart from an adjacent vane, and extending axially along a length of the deaerator shaft, wherein each of the plurality of vanes forms a channel having capacity equal to the other vanes; opposing tabs that extend axially from a first axial side of the central ring; and a shouldered ring that extends from a second axial side of the central ring , the shouldered ring having a lip that extends radially inward toward the axis. a deaerator shaft comprising a central ring positioned about an axis; wherein the deaerator shaft comprises a plurality of vanes within an interior of the deaerator shaft, each of the plurality of vanes terminating at an inner wall of the deaerator shaft at a point 120 degrees apart from an adjacent vane, and extending axially along a length of the deaerator shaft, wherein each of the plurality of vanes forms a channel having capacity equal to the other vanes; opposing tabs that extend axially from a first axial side of the central ring; and a shouldered ring that extends from a second axial side of the central ring , the shouldered ring having a lip that extends radially inward toward the axis.
Cable connector comprising: an insulating body comprising a frame which defines a region therein; a plurality of electrical terminals fixed to the insulating body and extending into the region ; and a plurality of cables electrically connected to the electrical terminals respectively in the region ; wherein the region is filled with an insulator to embed the electrical terminals and the cables ; the cable connector further comprising a mounting plate substantially perpendicular to an extension direction of the cables , the mounting plate having a plurality of circular holes through which the cables pass, and wherein the mounting plate with the cables is mounted to the frame and configured to position ends of the cables at the electrical terminals to permit connection of the ends of the cables to the electrical terminals , wherein the cable connector further comprises a capacitor disposed in the region , which has two terminals respectively welded to the corresponding electrical terminals ; and ends of the cables and the terminals of the capacitor are respectively welded to opposite surfaces of the electrical terminals ; and characterized in that the frame is a hollow frame, the cable connector further comprising two opposite covers respectively coupled to two sides of the frame , the frame having four sidewalls , one of the sidewalls having a notch for fitting the mounting plate ; and the insulating body is made of moulded plastic material, the electrical terminals are provided in the insulating body in a moulding operation. an insulating body comprising a frame which defines a region therein; a plurality of electrical terminals fixed to the insulating body and extending into the region ; and a plurality of cables electrically connected to the electrical terminals respectively in the region ; wherein the region is filled with an insulator to embed the electrical terminals and the cables ; the cable connector further comprising a mounting plate substantially perpendicular to an extension direction of the cables , the mounting plate having a plurality of circular holes through which the cables pass, and wherein the mounting plate with the cables is mounted to the frame and configured to position ends of the cables at the electrical terminals to permit connection of the ends of the cables to the electrical terminals , wherein the cable connector further comprises a capacitor disposed in the region , which has two terminals respectively welded to the corresponding electrical terminals ; and ends of the cables and the terminals of the capacitor are respectively welded to opposite surfaces of the electrical terminals ; and characterized in that the frame is a hollow frame, the cable connector further comprising two opposite covers respectively coupled to two sides of the frame , the frame having four sidewalls , one of the sidewalls having a notch for fitting the mounting plate ; and the insulating body is made of moulded plastic material, the electrical terminals are provided in the insulating body in a moulding operation.
A fluid-carrying application , comprising: a first sheet , provided with a first surface (S1) and a second surface (S2); a second sheet , provided with a third surface (S3) and a fourth surface (S4), a part of the third surface (S3) and a part of the second surface (S2) of the first sheet are welded or adhered to at least one band-shaped region , thereby forming a first chamber (R1) having at least a first drainage port , and an inside of the first chamber (R1) can communicate with an outside through the first drainage port ; an adhesive layer , provided on the fourth surface (S4) of the second sheet ; and a release layer , covering at least a part of the adhesive layer ; wherein the first drainage port is formed at the first sheet or an open portion where the second surface (S2) of the first sheet and the third surface (S3) adjacent to an edge of the second sheet are not welded or adhered to each other; characterised in that the first chamber (R1) is expandable and thereby causes the second sheet to apply pressure on soft tissue of a part of a body covered by the fluid-carrying application . a first sheet , provided with a first surface (S1) and a second surface (S2); a second sheet , provided with a third surface (S3) and a fourth surface (S4), a part of the third surface (S3) and a part of the second surface (S2) of the first sheet are welded or adhered to at least one band-shaped region , thereby forming a first chamber (R1) having at least a first drainage port , and an inside of the first chamber (R1) can communicate with an outside through the first drainage port ; an adhesive layer , provided on the fourth surface (S4) of the second sheet ; and a release layer , covering at least a part of the adhesive layer ; wherein the first drainage port is formed at the first sheet or an open portion where the second surface (S2) of the first sheet and the third surface (S3) adjacent to an edge of the second sheet are not welded or adhered to each other; characterised in that the first chamber (R1) is expandable and thereby causes the second sheet to apply pressure on soft tissue of a part of a body covered by the fluid-carrying application .
Method for producing a photochromic material comprising the steps of: first the formation on a substrate of a layer of an oxygen free metal hydride with a predetermined thickness using a physical vapor deposition process wherein the metal in the metal hydride is chosen from the groups of rare earth metals, lanthanides and/or alkalis; and second, exposing the metal hydride layer to oxygen, where the oxygen reacts with the metal hydride, thus providing a metal hydride material with photochromic properties. first the formation on a substrate of a layer of an oxygen free metal hydride with a predetermined thickness using a physical vapor deposition process wherein the metal in the metal hydride is chosen from the groups of rare earth metals, lanthanides and/or alkalis; and second, exposing the metal hydride layer to oxygen, where the oxygen reacts with the metal hydride, thus providing a metal hydride material with photochromic properties.
A swiveling work machine comprising: a swivel base ; a prime mover provided on the swivel base ; a work device provided on the swivel base ; a support mechanism to support a fuel cylinder storing fuel for the prime mover ; and a hood defining an engine compartment (E) incorporating the prime mover , characterised in that the support mechanism is configured to support the fuel cylinder above the hood . a swivel base ; a prime mover provided on the swivel base ; a work device provided on the swivel base ; a support mechanism to support a fuel cylinder storing fuel for the prime mover ; and a hood defining an engine compartment (E) incorporating the prime mover , characterised in that the support mechanism is configured to support the fuel cylinder above the hood .
A method for reversibly mating a last for an article of footwear to a last extension , the method comprising: providing a last , the last having a first cavity and a second cavity on the last ; providing a last extension , the last extension comprising: a body ; a generally planar lower surface of the body ; characterized by a first protrusion and a second protrusion protruding from the lower surface of the body , and moving the openings of the cavities along the lower surface of the body of the last extension , such that the cavities at least partially envelop the protrusions ; and wherein the cavities opening to an exterior surface of the last , wherein the first cavity opens toward a back side of the last and the second cavity opens toward a side of the last ; and the method comprising: moving the opening of the first cavity along the lower surface of the last extension , such that the first cavity at least partially envelops the first protrusion ; and rotating the last about the first protrusion , such that the second cavity at least partially envelops the second protrusion . providing a last , the last having a first cavity and a second cavity on the last ; providing a last extension , the last extension comprising: a body ; a generally planar lower surface of the body ; characterized by a first protrusion and a second protrusion protruding from the lower surface of the body , and a body ; a generally planar lower surface of the body ; characterized by a first protrusion and a second protrusion protruding from the lower surface of the body , and moving the openings of the cavities along the lower surface of the body of the last extension , such that the cavities at least partially envelop the protrusions ; and wherein the cavities opening to an exterior surface of the last , wherein the first cavity opens toward a back side of the last and the second cavity opens toward a side of the last ; and the method comprising: moving the opening of the first cavity along the lower surface of the last extension , such that the first cavity at least partially envelops the first protrusion ; and rotating the last about the first protrusion , such that the second cavity at least partially envelops the second protrusion . moving the opening of the first cavity along the lower surface of the last extension , such that the first cavity at least partially envelops the first protrusion ; and rotating the last about the first protrusion , such that the second cavity at least partially envelops the second protrusion .
An interventional catheter for treating an artery, comprising: an elongated body sized and shaped to be transcervically introduced into a common carotid artery at an access location in the neck, the elongated body sized and shaped to be navigated distally to an intracranial artery through the common carotid artery via the access location in the neck; and an internal lumen in the elongated body, the internal lumen forming a proximal opening in a proximal region of the elongated body and a distal opening in a distal region of the elongated body; wherein the elongated body has a proximal most section and a distal most section wherein the proximal most section is a stiffest portion of the elongated body, and wherein the elongated body has an overall length and a distal most section length such that the distal most section can be positioned in an intracranial artery and while simultaneously at least a portion of the proximal most section is positioned in the common carotid artery during use, wherein the distal most section of the catheter has an inner diameter of 0.889mm to 1.574mm (.035 to .062 inch), wherein the catheter can navigate around a 180° bend with a radius of 2.54mm (.100") without kinking; and the catheter is configured to resist collapse when connected to a vacuum up to 84.660 kPa (25 inHg) while navigating around a 180° bend with a radius of 2.54mm (.100"), wherein the catheter has a Polytetrafluoroethylene (PTFE) inner liner having a thickness of 0.0127mm to 0.0254mm (0.0005 inch to 0.0010 inch). an elongated body sized and shaped to be transcervically introduced into a common carotid artery at an access location in the neck, the elongated body sized and shaped to be navigated distally to an intracranial artery through the common carotid artery via the access location in the neck; and an internal lumen in the elongated body, the internal lumen forming a proximal opening in a proximal region of the elongated body and a distal opening in a distal region of the elongated body; wherein the elongated body has a proximal most section and a distal most section wherein the proximal most section is a stiffest portion of the elongated body, and wherein the elongated body has an overall length and a distal most section length such that the distal most section can be positioned in an intracranial artery and while simultaneously at least a portion of the proximal most section is positioned in the common carotid artery during use, wherein the distal most section of the catheter has an inner diameter of 0.889mm to 1.574mm (.035 to .062 inch), wherein the catheter can navigate around a 180° bend with a radius of 2.54mm (.100") without kinking; and the catheter is configured to resist collapse when connected to a vacuum up to 84.660 kPa (25 inHg) while navigating around a 180° bend with a radius of 2.54mm (.100"), wherein the catheter has a Polytetrafluoroethylene (PTFE) inner liner having a thickness of 0.0127mm to 0.0254mm (0.0005 inch to 0.0010 inch).
Hand-operated cleaning and care device, in particular for floor coverings, preferably tiled floor or wooden floor coverings, having a handle for hand guidance, in particular a handle adjustable in length, a motor housing which accommodates at least one electric motor and at least one transmission, and having at least one drive shaft driven by the electric motor, which acts on the at least one transmission with a transmission output shaft , wherein the cleaning and care device comprises at least two processing devices, a first processing device and a second processing device, wherein the first and second processing devices are designed in such a way that they are interchangeable with one another, preferably interchangeable without tools, and can be driven by the transmission output shaft , wherein the first processing device is a disc in the form of a joint brush and comprises a guide device, and the first processing device is positioned on the motor axis eccentrically to the shaft and the second processing device is a roller in the form of a roller brush with a roller surface, wherein the roller brush is arranged parallel to the motor and symmetrically to the shaft, wherein the guide device comprises an running wheel on the opposite side of the joint brush, which ensures a stable position of the shaft.
A method of generating an image comprising: receiving, from an emission filter , a transmission spectrum corresponding to a selected wavelength range of an emission spectrum emitted from a luminescent source, wherein the emission spectrum illuminates the emission filter at a plurality of angles of incidence that deviate from a normal angle of incidence with respect to the emission filter; measuring an intensity of the transmission spectrum; characterized in that the method further comprises: obtaining a convolution function by performing, for one or more positions of a field of view of the emission filter, a convolution of (i) a function characterizing a known emission spectrum of the luminescent source , and (ii) a function characterizing a known transmission spectrum for an angle of incidence corresponding to a position of the one or more positions; obtaining, based on the convolution function and based on a spectral response of the emission filter as a function of the plurality of angles of incidence, a corrected intensity for the transmission spectrum; and generating, based on the transmission spectrum and the corrected intensity, an image. receiving, from an emission filter , a transmission spectrum corresponding to a selected wavelength range of an emission spectrum emitted from a luminescent source, wherein the emission spectrum illuminates the emission filter at a plurality of angles of incidence that deviate from a normal angle of incidence with respect to the emission filter; measuring an intensity of the transmission spectrum; obtaining a convolution function by performing, for one or more positions of a field of view of the emission filter, a convolution of (i) a function characterizing a known emission spectrum of the luminescent source , and (ii) a function characterizing a known transmission spectrum for an angle of incidence corresponding to a position of the one or more positions; obtaining, based on the convolution function and based on a spectral response of the emission filter as a function of the plurality of angles of incidence, a corrected intensity for the transmission spectrum; and generating, based on the transmission spectrum and the corrected intensity, an image.
A liquid pharmaceutical composition comprising dihydroergotamine (DHE) or salt thereof, for use in a method of acutely treating migraine headache with or without aura by intranasal administration, characterized in that the method comprises intranasally administering to a subject with migraine headache an effective dose of the liquid pharmaceutical composition; wherein the dose comprises about 1.45 mg of DHE or salt thereof, and is administered to the nose as a plurality of divided doses over a period of no more than 1 minute by a manually actuated, propellant-driven metered-dose intranasal delivery device.
A method of obtaining human arterial endothelial cells, the method comprising culturing human mesodermal cells in a serum-free, albumin-free, chemically defined culture medium that is substantially free of insulin and comprises a fibroblast growth factor (FGF), a vascular endothelial growth factor (VEGF), and at least one of a Notch agonist, a TGF-beta inhibitor, and an inhibitor of inositol monophosphatase, whereby a cell population comprising at least 80% human arterial endothelial cells is obtained, wherein arterial endothelial cells of the population express Ephrin B2 (EFNB2), neuropilin1 (NRP-1), Delta-like 4 (DLL4), CXCR4/CD184, Gap Junction Protein Alpha-4 (GJA4), and Heyl, and one or more markers selected from the group consisting of Jagged-1 (JAG1), Notch1, and Notch4.