mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an engine ; a step-variable transmission having gears; and a continuously variable transmission (CVT) coupled between the engine and the step-variable transmission , wherein the CVT comprises a variator and a drive-transmitting member , wherein the system further comprises an engine controller configured to cause the variator of the CVT to change a current transmission ratio continuously between a lower transmission ratio of the CVT and a higher transmission ratio of the CVT before signaling the step-variable transmission to shift from one gear to another gear, characterised in that the CVT further comprises a plurality of planetary members in rolling contact with an inner race and an outer race , and wherein a radial distance between the planetary members and the drive-transmitting member corresponds to a current transmission ratio of the CVT . an engine ; a step-variable transmission having gears; and a continuously variable transmission (CVT) coupled between the engine and the step-variable transmission , wherein the CVT comprises a variator and a drive-transmitting member , wherein the system further comprises an engine controller configured to cause the variator of the CVT to change a current transmission ratio continuously between a lower transmission ratio of the CVT and a higher transmission ratio of the CVT before signaling the step-variable transmission to shift from one gear to another gear, characterised in that the CVT further comprises a plurality of planetary members in rolling contact with an inner race and an outer race , and wherein a radial distance between the planetary members and the drive-transmitting member corresponds to a current transmission ratio of the CVT .
An expandable balloon coupled to a distal end of a shaft for insertion into an organ of a patient, the expandable balloon comprising: an expandable membrane ; one or more electrodes disposed over an external surface of the membrane , each electrode of the one or more electrodes comprising a perimeter; and one or more respective conductive coils , each disposed proximate a respective electrode wherein the one or more conductive coils are configured as magnetic sensors, characterized in that each of the one or more conductive coils is wound around the perimeter of the respective electrode . an expandable membrane ; one or more electrodes disposed over an external surface of the membrane , each electrode of the one or more electrodes comprising a perimeter; and one or more respective conductive coils , each disposed proximate a respective electrode wherein the one or more conductive coils are configured as magnetic sensors, characterized in that each of the one or more conductive coils is wound around the perimeter of the respective electrode .
A cold spray nozzle assembly, comprising: a conduit (14; 92) for carrying at least one of a heated gas and a powder; a nozzle ; and a compression tube fitting (50; 82) connecting the nozzle to the conduit , wherein the compression tube fitting (50; 82) comprises a receiving fitting attached to the conduit (14; 92) and receiving an end of the nozzle , a compression ring and a compression nut , the compression ring being mounted between the receiving fitting and the compression nut and surrounding the nozzle ,and the receiving fitting having a neck portion extending away from threads for receiving the nozzle and a step on an inside diameter of the neck portion for engaging an edge of the nozzle , the inside diameter being sized to closely fit an outside diameter of the nozzle ; characterised in that : the neck portion further comprises outer threads on an outside diameter for engaging with the compression nut , whereby tightening the compression nut onto the receiving fitting compresses the compression ring onto the nozzle . a conduit (14; 92) for carrying at least one of a heated gas and a powder; a nozzle ; and a compression tube fitting (50; 82) connecting the nozzle to the conduit , wherein the compression tube fitting (50; 82) comprises a receiving fitting attached to the conduit (14; 92) and receiving an end of the nozzle , a compression ring and a compression nut , the compression ring being mounted between the receiving fitting and the compression nut and surrounding the nozzle ,and the receiving fitting having a neck portion extending away from threads for receiving the nozzle and a step on an inside diameter of the neck portion for engaging an edge of the nozzle , the inside diameter being sized to closely fit an outside diameter of the nozzle ; characterised in that : the neck portion further comprises outer threads on an outside diameter for engaging with the compression nut , whereby tightening the compression nut onto the receiving fitting compresses the compression ring onto the nozzle .
Exchangeable piston-cylinder unit for a dispenser , wherein the piston-cylinder unit has at least one axially oriented information carrier section which partially specifies the type of the piston-cylinder unit and which has a geometrical extent in an axial direction (A k ) by means of which an acquirable information is encoded, and a fastening section , wherein - the axially oriented information carrier section and the fastening section are provided on a piston head of the piston-cylinder unit , - the fastening section is arranged separately from the axially oriented information carrier section , and - the fastening section is designed such that a piston actuator of the dispenser can grip the piston head on it. - the axially oriented information carrier section and the fastening section are provided on a piston head of the piston-cylinder unit , - the fastening section is arranged separately from the axially oriented information carrier section , and - the fastening section is designed such that a piston actuator of the dispenser can grip the piston head on it.
A reciprocating compressor, comprising: a shell provided with a discharge pipe ; a cylinder provided inside of the shell and having a compression chamber (C); a muffler assembly having a discharge chamber in which refrigerant compressed in the compression chamber (C) flows; and a discharge hose that extends from the muffler assembly to discharge the refrigerant, the discharge hose being coupled to the discharge pipe , characterized in that at least one portion of the muffler assembly and the discharge hose are integrally formed using injection molding. a shell provided with a discharge pipe ; a cylinder provided inside of the shell and having a compression chamber (C); a muffler assembly having a discharge chamber in which refrigerant compressed in the compression chamber (C) flows; and a discharge hose that extends from the muffler assembly to discharge the refrigerant, the discharge hose being coupled to the discharge pipe , characterized in that at least one portion of the muffler assembly and the discharge hose are integrally formed using injection molding.
A method, comprising: receiving , at a control plane system, a first boot request from a first node at an edge location; generating , in response to the first boot request, a first boot response including an identifier for the first node and information associated with an operating system, OS, provider service on the control plane system, wherein the first boot response is transmitted via a virtual private network, VPN; causing the OS provider service to provide an OS file to the first node, wherein providing the OS file to the first node causes the first node to instantiate an OS instance on the first node, wherein the OS instance provides a local instance of the OS provider service on the first node, and wherein the OS file is provided via a different network than the VPN; receiving , at the control plane system, a second boot request from a second node at the edge location; and providing , to the second node in response to the second boot request and based on a determination that the OS instance is instantiated on the first node, a second boot response including instructions associated with obtaining the OS file from the first node. receiving , at a control plane system, a first boot request from a first node at an edge location; generating , in response to the first boot request, a first boot response including an identifier for the first node and information associated with an operating system, OS, provider service on the control plane system, wherein the first boot response is transmitted via a virtual private network, VPN; causing the OS provider service to provide an OS file to the first node, wherein providing the OS file to the first node causes the first node to instantiate an OS instance on the first node, wherein the OS instance provides a local instance of the OS provider service on the first node, and wherein the OS file is provided via a different network than the VPN; receiving , at the control plane system, a second boot request from a second node at the edge location; and providing , to the second node in response to the second boot request and based on a determination that the OS instance is instantiated on the first node, a second boot response including instructions associated with obtaining the OS file from the first node.
An apparatus, comprising: a repeater having a signal analysis and classification block ; wherein the signal analysis and classification block comprises a signal analysis block and a classification block ; wherein the signal analysis block is configured to receive a digital signal which is a digital version of an input signal received by the repeater ; wherein the signal analysis block is configured to provide signal information regarding the digital signal to the classification block ; wherein the classification block is configured to provide classification information to classify the digital signal using the signal information provided as being a waveform type of a group of waveform types; and wherein the classification block is coupled to at least one of a crest factor reduction block or a digital pre-distortion block configured to provide the classification information for selecting parametric input based on the waveform type. a repeater having a signal analysis and classification block ; wherein the signal analysis and classification block comprises a signal analysis block and a classification block ; wherein the signal analysis block is configured to receive a digital signal which is a digital version of an input signal received by the repeater ; wherein the signal analysis block is configured to provide signal information regarding the digital signal to the classification block ; wherein the classification block is configured to provide classification information to classify the digital signal using the signal information provided as being a waveform type of a group of waveform types; and wherein the classification block is coupled to at least one of a crest factor reduction block or a digital pre-distortion block configured to provide the classification information for selecting parametric input based on the waveform type.
A method of using a computer for automatically determining a position of one or more calorimetric peaks in a set of calorimetric data, comprising: a) providing a non-linear fit for the calorimetric data; b) locating one or more peaks in the calorimetric data; c) calculating a residual by subtracting the non-linear fit from the calorimetric data; d) calculating an error based on the residual, optionally using a root mean square error; e) comparing the error with a predetermined error; f) if the error is greater than the predetermined error, repeating said steps a) to e) with one more peak; and g) if the error is less than the predetermined error, confirming the non-linear fit for the calorimetric data. a) providing a non-linear fit for the calorimetric data; b) locating one or more peaks in the calorimetric data; c) calculating a residual by subtracting the non-linear fit from the calorimetric data; d) calculating an error based on the residual, optionally using a root mean square error; e) comparing the error with a predetermined error; f) if the error is greater than the predetermined error, repeating said steps a) to e) with one more peak; and g) if the error is less than the predetermined error, confirming the non-linear fit for the calorimetric data.
An electrical energy supply network of an aircraft provided with a plurality of electrical loads (C1, C2, C3, C4) to be supplied, said supply network comprising at least two generators configured to be part of a turbogenerator of the aircraft and adapted to provide an electrical energy source comprising, each, at least one stator associated with a rectifier (20a, 20b, 20c; 30a, 30b, 30c), the stators of the generators being connected to at least two distribution buses arranged to supply the plurality of electrical loads (C1, C2, C3, C4), the electrical energy supply network comprising contactors adapted to electrically connect or disconnect the distribution buses from each other, the rectifiers (20a, 20b, 20c; 30a, 30b, 30c) of the generators being mounted alternately on the distribution buses .
A floating offshore platform for hydrocarbon storage, production, and/or offloading, comprising: a hull ; a pontoon coupled to the hull ; and at least one keel skirt assembly having at least one keel skirt and a support structure coupled with the keel skirt, characterized in that the keel skirt assembly is coupled with the peripheral surface of the pontoon and configured to be extended and lowered from a stored position above the pontoon into a deployed position adjacent to the pontoon and extended outward from the pontoon , the keel skirt assembly being inside the peripheral surface of the pontoon in the stored position. a hull ; a pontoon coupled to the hull ; and at least one keel skirt assembly having at least one keel skirt and a support structure coupled with the keel skirt, characterized in that the keel skirt assembly is coupled with the peripheral surface of the pontoon and configured to be extended and lowered from a stored position above the pontoon into a deployed position adjacent to the pontoon and extended outward from the pontoon , the keel skirt assembly being inside the peripheral surface of the pontoon in the stored position.
Polypropylene film comprising 4 layers (A) to (D) which are arranged in the order of (A) to (D), wherein layers (B) to (D) comprise biaxially oriented polypropylene and wherein layer (A) comprises polyurethane and nanoparticles and has a layer thickness of 25 to 300 nm, layer (B) comprises polymers having functional groups which can form covalent bonds with polyurethane and is bonded directly to layer (A), layer (C) has at least a layer thickness of 50% of the total thickness of the film and layer (D) is an outer layer of the film and comprises an antiblock agent. layer (A) comprises polyurethane and nanoparticles and has a layer thickness of 25 to 300 nm, layer (B) comprises polymers having functional groups which can form covalent bonds with polyurethane and is bonded directly to layer (A), layer (C) has at least a layer thickness of 50% of the total thickness of the film and layer (D) is an outer layer of the film and comprises an antiblock agent.
Apparatus for feeding welding wire and process gas to a welding apparatus, with a wire feeding nozzle , which has a welding wire channel , a nozzle block , which is detachably connected to the wire feeding nozzle , a profile , which is detachably or fixedly connected to the nozzle block , has a welding wire channel and can be connected to a welding wire conveying device, and a process gas feeding device, which has a process gas channel and can be connected to a process gas reservoir, wherein the process gas channel of the process gas feeding device is arranged at least partially within the profile , and the nozzle block is provided with multiple boreholes , which adjoin the process gas channel and are arranged parallel or at an acute angle of ±5° to the welding wire channel of the wire feeding nozzle and around the wire feeding nozzle , wherein the nozzle block is formed cylindrically in the direction of an end having the wire feeding nozzle , wherein the boreholes arranged within the nozzle block run out into recesses on the surface of the nozzle block , characterized in that the profile is formed as a profile tube and the process gas channel and the welding wire channel are arranged therein.
A method, comprising: encoding or decoding a picture by selectively enabling color compensation using a block level syntax element on a block basis of two color components in a prediction of the picture, also having one luminance component, using an offset relating to color data between the two color components of the picture and the corresponding components of another picture, wherein each color component uses a separate offset for compensation, and the luminance component has one luminance offset, the picture and the other picture having different viewpoints and both corresponding to multi-view content for a same or similar scene , and wherein there is one illumination compensation flag and one color compensation enable flag, wherein the offset is differentially coded with respect to offsets from spatially neighboring blocks.
Hinge comprising a pivotable hinge member , a stationary hinge member and a spring member that can be tensioned and that is coiled as a flat spiral spring in the form of an Archimedean spiral, which pivotable hinge member is mounted in a bearing arranged on the stationary hinge member in such a manner that the member is pivotable about a pivot axis (S), and the tensionable spring member is arranged on the bearing and can be tensioned by means of an adjustable torque adjustment means , characterized in that the stationary hinge member is designed as a housing in which the bearing , the spring member and the torque adjustment means , that can be adjusted by means of an adjusting screw , as well as a damping member are arranged.
A glass panel unit , comprising: a first panel including at least a first glass plate ; a second panel including at least a second glass plate , the second panel being arranged to face the first panel with a predetermined interval left with respect to the first panel ; a seal arranged between the first panel and the second panel to hermetically bond the first panel and the second panel together; an internal space configured to form a reduced-pressure space by being hermetically enclosed by the first panel , the second panel , and the seal ; and multiple pillars made of resin, the multiple pillars being arranged in the internal space at individual intersections of a square or rectangular lattice of constant lattice intervals, including a predetermined pitch, so as to be in contact with the first panel and the second panel , wherein the multiple pillars are arranged so as to satisfy a formula below. h − 0.232 ⋅ P 0 ⋅ p 2 / Eg ⋅ t 3 / 12 ⋅ 1 − ν 2 > 0 , where p (m) denotes the predetermined pitch, h (m) denotes the predetermined interval between the first panel and the second panel , P 0 (N) denotes the load loading compression fracture per one pillar of the multiple pillars, Eg (Pa) denotes the Young's modulus of each of the first panel and the second panel , t (m) denotes the thickness of each of the first panel and the second panel , and v denotes the Poisson's ratio of each of the first panel and the second panel . a first panel including at least a first glass plate ; a second panel including at least a second glass plate , the second panel being arranged to face the first panel with a predetermined interval left with respect to the first panel ; a seal arranged between the first panel and the second panel to hermetically bond the first panel and the second panel together; an internal space configured to form a reduced-pressure space by being hermetically enclosed by the first panel , the second panel , and the seal ; and multiple pillars made of resin, the multiple pillars being arranged in the internal space at individual intersections of a square or rectangular lattice of constant lattice intervals, including a predetermined pitch, so as to be in contact with the first panel and the second panel , wherein the multiple pillars are arranged so as to satisfy a formula below. h − 0.232 ⋅ P 0 ⋅ p 2 / Eg ⋅ t 3 / 12 ⋅ 1 − ν 2 > 0 , where p (m) denotes the predetermined pitch, h (m) denotes the predetermined interval between the first panel and the second panel , P 0 (N) denotes the load loading compression fracture per one pillar of the multiple pillars, Eg (Pa) denotes the Young's modulus of each of the first panel and the second panel , t (m) denotes the thickness of each of the first panel and the second panel , and v denotes the Poisson's ratio of each of the first panel and the second panel .
Aqueous composition for forming a foam, the composition comprising a surfactant and a particulate inorganic material, and optionally one or more polymers, such as soil conditioning polymers, and/or viscosity increasing polymers and/or anti-settling agents, wherein the surfactant absorbs onto the particulate inorganic material, wherein the said particulate inorganic material is talc or a combination of talc and a particulate inorganic material selected from the group consisting of perlite, bentonite, wollastonite, an alkaline earth metal carbonate or sulphate, such as calcium carbonate, for example, natural calcium carbonate and/or precipitated calcium carbonate, magnesium carbonate, dolomite, gypsum, aluminosilicate such as kaolin, mica, diatomaceous earth, vermiculite, pumice, magnesium hydroxide, aluminium trihydrate, or zinc oxide, characterised in that the weight ratio of particulate inorganic powder to surfactant is in the range of from 500:1 to 1:1.
A surveying instrument comprising: a distance measuring module for irradiating an object with the distance measuring light and measuring a distance to said object based on the reflected distance measuring light from said object, wherein said distance measuring module includes a light projecting optical system configured to project said distance measuring light and a light receiving optical system configured to receive said reflected distance measuring light , said light receiving optical system includes a quadrangular prism and a photodetector , said quadrangular prism comprises a first plane , a second plane , a third plane and a fourth plane , characterized in that said quadrangular prism is configured so that said reflected distance measuring light enters in said first plane , sequentially internally reflects on said second plane , said first plane , and said third plane , is transmitted through said fourth plane , and projected, and said reflected distance measuring light projected from said quadrangular prism is configured to be received by said photodetector .
A terminal comprising: a receiving section adapted to receive multiple downlink control information, DCI, being transmitted separately in a primary cell and a secondary cell, each including a transmission power control, TPC, command field value used for control of a transmission power of an uplink control channel, PUCCH, in the primary cell; and a control section adapted to, when the multiple DCI indicates a same slot for PUCCH transmission, control the transmission power based on TPC command accumulated values indicated by TPC command field values included in the multiple DCI. a receiving section adapted to receive multiple downlink control information, DCI, being transmitted separately in a primary cell and a secondary cell, each including a transmission power control, TPC, command field value used for control of a transmission power of an uplink control channel, PUCCH, in the primary cell; and a control section adapted to, when the multiple DCI indicates a same slot for PUCCH transmission, control the transmission power based on TPC command accumulated values indicated by TPC command field values included in the multiple DCI.