mhurhangee/patent-ind-claim-en huggingface dataset:
A working vehicle (200-200C) comprising a drive source , drive wheels , a speed change output shaft for outputting rotational power toward the drive wheels , a main speed change structure (1-1C) for changing a speed of rotational power from the drive source and operatively transmitting the resulting rotational power to the speed change output shaft , a speed change operation member , an output sensor for directly or indirectly detecting a rotational speed of the speed change output shaft , and a control device responsible for operational control of the main speed change structure, wherein the main speed change structure (1-1C) includes a continuously variable speed change structure (5-5C) for changing a speed of rotational power operatively input from the drive source in a stepless manner, and a multi-speed speed change structure (6-6C) capable of switching between at least a first power transmission state with a first gear ratio and a second power transmission state with a second gear ratio providing a higher speed than the first gear ratio, the working vehicle (200-200C) being characterized in that , the control device , based on a detection signal of the output sensor , causes the continuously variable speed change structure (5-5C) to be accelerated to a forward travel side in accordance with an accelerating operation of the speed change operation member in a forward travel direction while causing the multi-speed speed change structure (6-6C) to be in a first power transmission state, in a low speed state until the rotational speed of the speed change output shaft reaches a predetermined switching speed; causes the continuously variable speed change structure (5-5C) to be decelerated to a second power transmission state reference speed while causing the multi-speed speed change structure (6-6C) to be changed from the first power transmission state to a second power transmission state, when the rotational speed of the speed change output shaft reaches the switching speed; and causes the continuously variable speed change structure (5-5C) to be accelerated from the second power transmission state reference speed to the forward travel side in accordance with an accelerating operation of the speed change operation member to the forward travel side while causing the multi-speed speed change structure (6-6C) to be in the second power transmission state, in a high speed state in which the rotational speed of the speed change output shaft is higher than the switching speed; and the switching speed is set to exceed a work speed range.
A nicotinamide mononucleotide derivative, or salt thereof, which is a compound represented by general formula : wherein, R 1 and R 2 respectively and independently represent an acyl group having 6 to 16 carbon atoms, the hydrocarbon group bound to the carbonyl carbon of the acyl group is a linear or branched, saturated or unsaturated hydrocarbon group.
An agricultural vehicle including components mechanically loaded by forces and/or moments, a control device and a measuring device for detecting the mechanical loading of at least one of the components , wherein the agricultural vehicle has an in particular modular sensor arrangement for the arrangement on at least one component of the vehicle , characterised in that the sensor arrangement has at least one sensor based on the principle of contactless distance measurement for detecting a physical parameter characteristic of a mechanical loading, wherein a relative deformation between the mechanically loaded component and a housing which portion-wise surrounds the component can be measured by means of the sensor arrangement as the characteristic physical parameter.
A method of transmitting channel state information, CSI, for a coordinated multi-point transmission and reception, CoMP, set comprising base stations, BSs, including a first BS and a second BS, the method performed by a user equipment, UE, and comprising: receiving channel state information reference signals, CSI-RSs, according to one or more CSI-RS configurations from respective one of the BSs; receiving power information about each of a plurality of antenna ports of the BSs from a first BS; calculating the CSI for the CoMP set based on the CSI-RSs and the received power information; and transmitting the calculated CSI to the first BS, wherein the calculated CSI includes precoding matrix indicators, PMIs, respectively corresponding to different CSI-RS configurations and phase difference compensation values between the PMIs, when the BSs use the different CSI-RS configurations, wherein the calculated CSI includes a single precoding matrix indicator, PMI, corresponding to a single CSI-RS configuration, when the BSs use the single CSI-RS configuration, and wherein the single PMI is an indicator which is the closest to an optimum precoding matrix obtained by compensating phase differences for the received CSI-RSs. receiving channel state information reference signals, CSI-RSs, according to one or more CSI-RS configurations from respective one of the BSs; receiving power information about each of a plurality of antenna ports of the BSs from a first BS; calculating the CSI for the CoMP set based on the CSI-RSs and the received power information; and transmitting the calculated CSI to the first BS, wherein the calculated CSI includes precoding matrix indicators, PMIs, respectively corresponding to different CSI-RS configurations and phase difference compensation values between the PMIs, when the BSs use the different CSI-RS configurations, wherein the calculated CSI includes a single precoding matrix indicator, PMI, corresponding to a single CSI-RS configuration, when the BSs use the single CSI-RS configuration, and wherein the single PMI is an indicator which is the closest to an optimum precoding matrix obtained by compensating phase differences for the received CSI-RSs.
Trailer coupling for a motor vehicle with a coupling arm for attaching a trailer or for supporting a load carrier and with at least one sensor for detecting a deformation of a support element (60-62) of the trailer coupling , in particular the coupling arm or a support assembly for supporting or holding the coupling arm , due to a load acting on the support element (60-62), wherein there is provided on the support element (60-62) at least one recess for the sensor or sensors , wherein the sensor or sensors is or are provided for measuring a distance between reference surfaces of the recess or recesses , characterised in that the reference surfaces , during deformation of the support element (60-62), move towards or away from one another and extend transversely to a support section of the support element (60-62) which deforms under loading by the load and/or are free from a force flow (K) through the support section of the support element (60-62) which is transferred by the support section during loading by the load acting on the support element (60-62).
A personal cleansing composition comprising: (a) 0.01 to 15 % by weight of a nourishing oil component which is a vegetable oil or mixture of vegetable oils having an oleic acid content of at least 38 % by weight (based on the total amount of esterified fatty acids in the vegetable oil) and which is tamanu oil or its mixture with one or more of marula oil, apricot kernel oil, and argan oil; (b) 0.01 to 20 % by weight of a compatibilizing oil component which is a vegetable oil or mixture of vegetable oils being selected from soybean oil, olive oil, coconut oil, and sunflower oil; wherein the total amount of nourishing oil component and compatibilizing oil component does not exceed 25 % by weight; (c) 5 to 50 % by weight of a surfactant system comprising: (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (d) 0.01 to 5.0 % by weight of hydrophobically modified crosslinked acrylic copolymer; and (e) water, wherein all weight percentages of the components are based on the total weight of the cleansing composition and water is present in an amount adding up to 100 % by weight. (a) 0.01 to 15 % by weight of a nourishing oil component which is a vegetable oil or mixture of vegetable oils having an oleic acid content of at least 38 % by weight (based on the total amount of esterified fatty acids in the vegetable oil) and which is tamanu oil or its mixture with one or more of marula oil, apricot kernel oil, and argan oil; (b) 0.01 to 20 % by weight of a compatibilizing oil component which is a vegetable oil or mixture of vegetable oils being selected from soybean oil, olive oil, coconut oil, and sunflower oil; (c) 5 to 50 % by weight of a surfactant system comprising: (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (i) an anionic surfactant or mixture of anionic surfactants and (ii) an amphoteric and/or zwitterionic surfactant or mixtures thereof; (d) 0.01 to 5.0 % by weight of hydrophobically modified crosslinked acrylic copolymer; and (e) water,
A wavelength selective switch, WSS, having a plurality of optical input and output ports (402, 404, 406-413) separated in one axis and incorporating a liquid crystal on silicon, LCOS, device , the LCOS device comprising: a silicon substrate ; a pair of electrodes including first and second electrodes , the second electrode mounted to the silicon substrate and including a two-dimensional array of pixels extending in both first and second dimensions; and a liquid crystal layer disposed between the first and second electrodes and configured to be driveable into a plurality of electrical states by drive signals provided to the pixels of the second electrode ; wherein the pixels include a rectangular profile having longer sides in the first dimension than in the second dimension; wherein the two-dimensional array includes a pixel pitch of the pixels that is greater in the first dimension than in the second dimension; and wherein the LCOS device is configured to steer optical signals received at the input ports at a first side of the WSS to the output ports (406-413) at a second side of the WSS opposite to the first side of the WSS . a silicon substrate ; a pair of electrodes including first and second electrodes , the second electrode mounted to the silicon substrate and including a two-dimensional array of pixels extending in both first and second dimensions; and a liquid crystal layer disposed between the first and second electrodes and configured to be driveable into a plurality of electrical states by drive signals provided to the pixels of the second electrode ; wherein the pixels include a rectangular profile having longer sides in the first dimension than in the second dimension; wherein the two-dimensional array includes a pixel pitch of the pixels that is greater in the first dimension than in the second dimension; and wherein the LCOS device is configured to steer optical signals received at the input ports at a first side of the WSS to the output ports (406-413) at a second side of the WSS opposite to the first side of the WSS .
A layered pigment system comprising a mineral substrate and a porous mineral shell, wherein the porous mineral shell comprises a calcium phosphate mineral.
Wave energy converter , comprising: - a float that comprises an air chamber that comprises a generator that is arranged between the float and a shaft and that is configured to generate electrical power when the float rotates relative to the shaft ; - an elongate spacer configured to connect the float to an anchoring at, on or to a floor of a water body ; and - wherein the float is configured to rotate as it moves along the elongate spacer due to waves and/or tidal movement of the water body , characterized in that - the air chamber comprises the shaft that is rotatably suspended inside the float and having a holder configured to substantially arrest the shaft against rotation as the float rotates around the shaft ; and - wherein the shaft is completely arranged inside the float and the air chamber shields the shaft and the generator off from the water body . - a float that comprises an air chamber that comprises a generator that is arranged between the float and a shaft and that is configured to generate electrical power when the float rotates relative to the shaft ; - an elongate spacer configured to connect the float to an anchoring at, on or to a floor of a water body ; and - wherein the float is configured to rotate as it moves along the elongate spacer due to waves and/or tidal movement of the water body , - the air chamber comprises the shaft that is rotatably suspended inside the float and having a holder configured to substantially arrest the shaft against rotation as the float rotates around the shaft ; and - wherein the shaft is completely arranged inside the float and the air chamber shields the shaft and the generator off from the water body .
A light projection device comprising: a mixing tube having an open exit end ; a plurality of light sources of different colors, each of the plurality of light sources positioned to emit a light stream toward the open exit end of the mixing tube ; a diffuser disposed between the plurality of light sources and the open exit end of the mixing tube , the diffuser configured to diffuse the light streams from the plurality of light sources into a diffused light stream ; and a template positioned proximate the open exit end of the mixing tube and configured to shape the diffused light stream from the diffuser into a patterned light stream , the mixing tube having an effective length L EFF configured to mix the diffused light stream into a homogenous color, the effective length being defined as the length of a portion of the mixing tube extending between the diffuser and the template , the intensity of each differently colored light stream being variable so that the patterned light stream is provided in a spectrum of colors. a mixing tube having an open exit end ; a plurality of light sources of different colors, each of the plurality of light sources positioned to emit a light stream toward the open exit end of the mixing tube ; a diffuser disposed between the plurality of light sources and the open exit end of the mixing tube , the diffuser configured to diffuse the light streams from the plurality of light sources into a diffused light stream ; and a template positioned proximate the open exit end of the mixing tube and configured to shape the diffused light stream from the diffuser into a patterned light stream , the mixing tube having an effective length L EFF configured to mix the diffused light stream into a homogenous color, the effective length being defined as the length of a portion of the mixing tube extending between the diffuser and the template , the intensity of each differently colored light stream being variable so that the patterned light stream is provided in a spectrum of colors.
A packaging material producing machine , comprising a transport device being configured to guide and move a web of packaging material , and a processing system , characterized in that the processing system comprises a functional unit connected to the at least one carrier and a positioning arrangement that comprises a fixed support and a bar arranged and moveable in parallel with said support , and at least one carrier comprising an attachment device being configured to selectively attach the carrier to only one of said fixed support and said bar .
An apparatus for treatment of a body lumen of a patient body, the body lumen having a lumen wall, the apparatus comprising: a catheter body having a proximal end and a distal end with an axis therebetween; a radially expandable member supported by the distal end of the catheter body, the expandable member having a low profile insertion configuration and a larger profile configuration; a plurality of bipolar electrode pairs carried by the expandable member so that expansion of the expandable member within the lumen urges each electrode pair against the lumen wall, wherein each bipolar electrode pair has an inner edge spacing between electrodes of x mm and each electrode has a length of L mm; and an electrical energy source configured to apply a power in Watts for a time of t seconds such that: power = b * x ∧ 2 * L * t ∧ − 0.59 , wherein b is a parameter in a range of 0.2 to 0.6, and wherein the expandable member comprises an inflatable balloon. a catheter body having a proximal end and a distal end with an axis therebetween; a radially expandable member supported by the distal end of the catheter body, the expandable member having a low profile insertion configuration and a larger profile configuration; a plurality of bipolar electrode pairs carried by the expandable member so that expansion of the expandable member within the lumen urges each electrode pair against the lumen wall, wherein each bipolar electrode pair has an inner edge spacing between electrodes of x mm and each electrode has a length of L mm; and an electrical energy source configured to apply a power in Watts for a time of t seconds such that: power = b * x ∧ 2 * L * t ∧ − 0.59 , wherein b is a parameter in a range of 0.2 to 0.6, and wherein the expandable member comprises an inflatable balloon.
An insulating joint (20; 120; 220; 320) for electrically insulating a pair of adjacent rail sections (12A,...,12D) of a railway track , each rail section (12A,...,12D) extending along a longitudinal axis (X) and defining at least one connecting surface substantially perpendicular to the longitudinal axis (X) and a plurality of lateral surfaces extending along the longitudinal axis (X) ; the insulating joint (20; 120; 220; 320) comprising a joint body having substantially the same cross section as the rail sections (12A,...,12D) and defining two contacting surfaces , each contacting surface being intended to be in contact with the connecting surface of one of the rail sections (12A,...,12D); wherein the joint body is made from an insulating material comprising a reinforcing structure made of metal or carbon fibers, the reinforcing structure being placed inside of the joint body with a distance from the contacting surfaces , characterized in that the insulating joint (20; 120; 220; 320) further comprises attaching portions (24A,..., 26A, 24B,..., 26B; 124A,..., 126A, 124B,..., 126B; 224A,..., 226A, 224B,..., 226B; 324A,..., 326A, 324B,..., 326B) configured to be extended along the longitudinal axis (X) for reinforcing the fixation of the insulting joint (20; 120; 220; 320) to at least one of the rail sections (12A,...,12D). the insulating joint (20; 120; 220; 320) comprising a joint body having substantially the same cross section as the rail sections (12A,...,12D) and defining two contacting surfaces , each contacting surface being intended to be in contact with the connecting surface of one of the rail sections (12A,...,12D); wherein the joint body is made from an insulating material comprising a reinforcing structure made of metal or carbon fibers, the reinforcing structure being placed inside of the joint body with a distance from the contacting surfaces , characterized in that the insulating joint (20; 120; 220; 320) further comprises attaching portions (24A,..., 26A, 24B,..., 26B; 124A,..., 126A, 124B,..., 126B; 224A,..., 226A, 224B,..., 226B; 324A,..., 326A, 324B,..., 326B) configured to be extended along the longitudinal axis (X) for reinforcing the fixation of the insulting joint (20; 120; 220; 320) to at least one of the rail sections (12A,...,12D).
A filling device having a dispensing container for filling packaging containers open at the top having at least one opening flap for opening and closing an outlet opening for the product is movable along a path between a closed position and an open position by means of a drive , wherein at least one delay device is provided, with which the movement of the opening flap over a portion of the path can be delayed, characterized in that a switching element is provided with which the delay device can be switched on.
A system, comprising: a catheter device, comprising: an introducer needle, wherein the introducer needle comprises a distal tip , an elongated tubular shaft , and an inner lumen formed by the elongated tubular shaft , wherein the distal tip comprises a beveled edge configured for blood to travel into; a catheter tube, wherein a distal tip of the catheter tube is proximal to the distal tip of the introducer needle; an optical fiber disposed within the inner lumen of the introducer needle, wherein the optical fiber comprises a first end , a second end , and a U-shaped portion disposed between the first and the second end , wherein a distal most portion of the U-shaped portion is disposed proximal to the beveled edge, a light emitter coupled with the first end of the optical fiber ; a light receiver coupled with the second end of the optical fiber , wherein the light receiver is configured to convert light into an electrical signal; and an electronic processor coupled with the light receiver, wherein the electronic processor is configured to detect a decrease in an intensity of the light received at the light receiver based on the electrical signal, wherein the optical fiber is configured to contact blood in response to insertion of the introducer needle into a blood vessel, wherein the decrease in the intensity of light occurs in response to the optical fiber contacting the blood. an introducer needle, wherein the introducer needle comprises a distal tip , an elongated tubular shaft , and an inner lumen formed by the elongated tubular shaft , wherein the distal tip comprises a beveled edge configured for blood to travel into; a catheter tube, wherein a distal tip of the catheter tube is proximal to the distal tip of the introducer needle; an optical fiber disposed within the inner lumen of the introducer needle, wherein the optical fiber comprises a first end , a second end , and a U-shaped portion disposed between the first and the second end , wherein a distal most portion of the U-shaped portion is disposed proximal to the beveled edge, a light emitter coupled with the first end of the optical fiber ; a light receiver coupled with the second end of the optical fiber , wherein the light receiver is configured to convert light into an electrical signal; and an electronic processor coupled with the light receiver, wherein the electronic processor is configured to detect a decrease in an intensity of the light received at the light receiver based on the electrical signal, wherein the optical fiber is configured to contact blood in response to insertion of the introducer needle into a blood vessel, wherein the decrease in the intensity of light occurs in response to the optical fiber contacting the blood.