mhurhangee/patent-ind-claim-en huggingface dataset:
A piston engine, comprising a plurality of cylinders, each cylinder being provided with an own cylinder head, the piston engine comprising, a fluid distribution element having at least two longitudinal parallel fluid channels adjacent to each other, wherein each of the fluid channels comprises - an inlet , and - for at least one cylinder in an associated bank of the respective piston engine, an outlet for providing fluid communication between the fluid channel and a respective cylinder head, wherein the fluid channels are defined by separate longitudinal profile pieces arranged side-by-side, such that adjacent profile pieces are adjoined by welding, so as to form at least two closed cross-sectional profiles defining the at least two fluid channels, respectively, and wherein a fixture arrangement being provided for fixing the fluid distribution element to the respective piston engine wherein each cylinder head of the engine is in fluid communication with at least one fluid channel via a respective outlet corresponding with said cylinder head, characterized in that the fluid channels comprises a starting air channel and at least one fluid channel, which is one of the following: - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel. - an inlet , and - for at least one cylinder in an associated bank of the respective piston engine, an outlet for providing fluid communication between the fluid channel and a respective cylinder head, wherein a fixture arrangement being provided for fixing the fluid distribution element to the respective piston engine wherein each cylinder head of the engine is in fluid communication with at least one fluid channel via a respective outlet corresponding with said cylinder head, characterized in that the fluid channels comprises a starting air channel and at least one fluid channel, which is one of the following: - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel. - a fuel return channel for liquid fuel; - a fuel leakage channel for liquid fuel; - a gas channel for gaseous fuel; - a lube channel for lubrication oil; - a control channel for control air; - a water channel for introducing water into combustion chambers; - a control oil channel.
A neutron position detector , comprising: an enclosure used as a cathode, the enclosure being tubular; an anode located at an axial center inside the enclosure ; and a gas sealed inside the enclosure , the gas including a 3 He gas and an additive gas, characterized in that the additive gas including nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and having a relationship of d × pN 2 > 0.03 , where d is an inner diameter of the enclosure expressed in cm, and pN2 is a partial pressure of the nitrogen expressed in atm (1 atm = 101325 Pa). an enclosure used as a cathode, the enclosure being tubular; an anode located at an axial center inside the enclosure ; and a gas sealed inside the enclosure , the gas including a 3 He gas and an additive gas, characterized in that the additive gas including nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and nitrogen as a quenching gas, argon as a gas reducing a range of a reaction product of a neutron and the 3 He gas, and having a relationship of d × pN 2 > 0.03 , where d is an inner diameter of the enclosure expressed in cm, and pN2 is a partial pressure of the nitrogen expressed in atm (1 atm = 101325 Pa).
Method for putting an item of user equipment of the ONU type in communication with an item of line termination equipment of the OLT type in an optical access network offering various transport systems, the user equipment supporting at least two transport systems, each transport system being a communication set comprising a dedicated protocol, the method comprising the following steps: - the user equipment configures itself for communicating by means of a first transport system among the transport systems supported by the user equipment; - the user equipment starts a synchronisation with the line termination equipment for the first transport system; - the line termination equipment transmits, via a protocol layer fitting on top of any transport system of the optical access network, without waiting for the synchronisation with the user equipment for the first transport system to have ended, a first message indicating which transport system is to be used by the user equipment; - when the transport system to be used by the user equipment is the first transport system, the user equipment continues the synchronisation for the first transport system until communication is established in the optical access network; - when the transport system to be used by the user equipment is a second transport system different from the first transport system, the user equipment configures itself for communicating by means of the second transport system and implements the synchronisation for the second transport system until communication is established in the optical access network. - the user equipment configures itself for communicating by means of a first transport system among the transport systems supported by the user equipment; - the user equipment starts a synchronisation with the line termination equipment for the first transport system; - the line termination equipment transmits, via a protocol layer fitting on top of any transport system of the optical access network, without waiting for the synchronisation with the user equipment for the first transport system to have ended, a first message indicating which transport system is to be used by the user equipment; - when the transport system to be used by the user equipment is the first transport system, the user equipment continues the synchronisation for the first transport system until communication is established in the optical access network; - when the transport system to be used by the user equipment is a second transport system different from the first transport system, the user equipment configures itself for communicating by means of the second transport system and implements the synchronisation for the second transport system until communication is established in the optical access network.
A multirotor wind turbine comprising: - a tower extending in a vertical direction from a tower bottom to a tower top ; - at least two energy generating units , each energy generating unit holding a rotor arranged to rotate a drive train and each energy generating unit comprising a nacelle forming an interior space for the drive train; - a load carrying structure extending transverse to the vertical direction and carried by the tower, the load carrying structure arranged to carry the at least two energy generating units ; and - at least one escape route extending between a start and an exit; wherein the load carrying structure forms at least a first section of the escape route from the start to an intermediate location, and wherein the wind turbine further comprises an escape opening in the nacelle, the escape opening leading from the interior space to a passage structure and the passage structure extending from the escape opening to the start of the escape route, and wherein the first section of the escape route extends inside the load carrying structure . - a tower extending in a vertical direction from a tower bottom to a tower top ; - at least two energy generating units , each energy generating unit holding a rotor arranged to rotate a drive train and each energy generating unit comprising a nacelle forming an interior space for the drive train; - a load carrying structure extending transverse to the vertical direction and carried by the tower, the load carrying structure arranged to carry the at least two energy generating units ; and - at least one escape route extending between a start and an exit;
An endoscope, comprising: a shaft comprising: a distal end; and a proximal end comprising a rigid attachment segment configured to be removably coupled to an adapter or instrument a first surface of the rigid attachment segment comprising a first groove and a first section adjacent the first groove , the first section protruding relative to the first groove , wherein: the first section comprises a protruding portion that is configured to block the first protrusion of the adapter or instrument and is configured to prevent the lifting of the rigid attachment segment , and the first section comprises a recessed indentation configured to be engaged by a second protrusion of the adapter or instrument ; and a housing coupled to the shaft. a shaft comprising: a distal end; and a proximal end comprising a rigid attachment segment configured to be removably coupled to an adapter or instrument a first surface of the rigid attachment segment comprising a first groove and a first section adjacent the first groove , the first section protruding relative to the first groove , wherein: the first section comprises a protruding portion that is configured to block the first protrusion of the adapter or instrument and is configured to prevent the lifting of the rigid attachment segment , and the first section comprises a recessed indentation configured to be engaged by a second protrusion of the adapter or instrument ; and a distal end; and a proximal end comprising a rigid attachment segment configured to be removably coupled to an adapter or instrument a first surface of the rigid attachment segment comprising a first groove and a first section adjacent the first groove , the first section protruding relative to the first groove , wherein: the first section comprises a protruding portion that is configured to block the first protrusion of the adapter or instrument and is configured to prevent the lifting of the rigid attachment segment , and the first section comprises a recessed indentation configured to be engaged by a second protrusion of the adapter or instrument ; and the first section comprises a protruding portion that is configured to block the first protrusion of the adapter or instrument and is configured to prevent the lifting of the rigid attachment segment , and the first section comprises a recessed indentation configured to be engaged by a second protrusion of the adapter or instrument ; and a housing coupled to the shaft.
A thermal device, comprising a carrying means , a storage container arranged on the carrying means and a foam insulation enclosing the storage container , wherein the carrying means has an undercut (1.1) filled by the foam insulation , wherein the carrying means is formed in a plate-shaped manner, characterized in that the undercut (1.1) is formed with breaks (1.1.1) running all around the storage container .
A universal buoyancy body for floating substructures, of cylindrical design, comprising at least the following components: - an inner pipe , - an outer pipe , - an upper cover and - a lower cover , wherein the inner pipe is fed through openings in the covers and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe , and wherein the covers are connected on both sides to the ends of the outer pipe , characterized in that the covers are formed as sandwich elements, and the pipes are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates. - an inner pipe , - an outer pipe , - an upper cover and - a lower cover , wherein the inner pipe is fed through openings in the covers and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe , and wherein the covers are connected on both sides to the ends of the outer pipe , characterized in that the covers are formed as sandwich elements, and the pipes are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates. wherein the inner pipe is fed through openings in the covers and is connected thereto in the region of the feedthrough, and wherein the inner pipe is arranged within the outer pipe , and wherein the covers are connected on both sides to the ends of the outer pipe , characterized in that the covers are formed as sandwich elements, and the pipes are each formed from at least one steel sheet weft, wherein the sandwich elements each comprise at least two steel plates arranged spaced apart from one another and a filling material arranged between the steel plates.
A mobile walking aid comprising a chassis , a frame (7; 107; 207; 307) and a support for a person's leg, wherein the chassis comprises a two-wheeled front axle and a rear axle (6; 106; 206; 306), characterised in that the one rear axle (6; 106; 206; 306) is convertible between a one-wheeled version with a first wheel (9; 109; 209; 309) and a two-wheeled version with a first wheel (9; 109; 209; 309) and a second wheel (10; 110; 210; 310).
A compressive sensing capturing device , comprising circuitry that includes a compressive imaging sensor , wherein the circuitry is configured to: obtain compressive sensing image data from the compressive imaging sensor ; set a device attribute based on image attribute data , wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data , and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data ; and control the compressive sensing capturing device based on the set device attribute; wherein the controlling of the compressive sensing capturing device based on the set device attribute includes at least one of controlling optical elements for autofocus, auto-adjustment of luminance, shutter speed for setting illumination time, aperture size for illumination, auto-choosing of a shoot mode for picture/video mode, auto-choosing of flash mode, and tracking an object for autofocus. obtain compressive sensing image data from the compressive imaging sensor ; set a device attribute based on image attribute data , wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data , and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data ; and wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data , and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data ; and control the compressive sensing capturing device based on the set device attribute; wherein the controlling of the compressive sensing capturing device based on the set device attribute includes at least one of controlling optical elements for autofocus, auto-adjustment of luminance, shutter speed for setting illumination time, aperture size for illumination, auto-choosing of a shoot mode for picture/video mode, auto-choosing of flash mode, and tracking an object for autofocus.
Vehicle wiper blade , comprising a blade having an elongated shape, a cap covering one end of the blade , the blade comprising a wiping lip , further comprising: - a straight nozzle tube , oriented so as to spray, at the level of an impact point of the blade , a jet of liquid that then flows along the lip of the blade , - a duct portion separate from said cap and rigidly secured to said cap , of which one end is connected to the nozzle tube , and of which another end is intended to be connected to a liquid supply pipe, the cap comprising a support zone of the nozzle tube , characterised in that support zone comprises a through hole allowing the passage of the nozzle tube , and in that the diameter of the through hole is such that the nozzle tube is inserted by force into the through hole of the support zone. - a straight nozzle tube , oriented so as to spray, at the level of an impact point of the blade , a jet of liquid that then flows along the lip of the blade , - a duct portion separate from said cap and rigidly secured to said cap , of which one end is connected to the nozzle tube , and of which another end is intended to be connected to a liquid supply pipe,
A trailer comprising a transport deck , wheels , a draw bar that is in a draw bar pivot connection (P2) with the deck , the draw bar pivot connection (P2) being parallel to the axes (P3) of the wheels and allowing the draw bar to be folded back against the lower surface of the deck, the trailer further comprising a means for immobilizing and releasing the draw bar pivot connection (P2) and a converting system comprising a traction means for the deck defining a distance between the deck and the ground (S) by pivoting the deck about a loading and unloading pivot connection (P1) parallel to the axes (P3) of the wheels, the trailer further being able to be arranged in a righted position, the trailer being characterized in that a device for controlling the traction means is mounted on the draw bar .
A method for setting in motion a biped exoskeleton receiving a human operator, the method comprising the implementation, by data processing means of the exoskeleton , of steps of: (a) obtaining a theoretical elementary trajectory of the exoskeleton ; (b) executing a control loop defining the evolution of an actual position of the exoskeleton so as to implement an actual elementary trajectory similar to said theoretical elementary trajectory, comprising at each iteration of the loop: - Estimation of a current state of the exoskeleton as a function of said actual position; - Determination of a wrench to be applied to the exoskeleton at the next iteration of the loop to compensate for a deviation between said estimated current state of the exoskeleton and an expected state of the exoskeleton in accordance with said theoretical elementary trajectory; the determination of the wrench and/or its application to the exoskeleton taking into account a flexibility model of the exoskeleton compared to a rigid robot. (a) obtaining a theoretical elementary trajectory of the exoskeleton ; (b) executing a control loop defining the evolution of an actual position of the exoskeleton so as to implement an actual elementary trajectory similar to said theoretical elementary trajectory, comprising at each iteration of the loop: - Estimation of a current state of the exoskeleton as a function of said actual position; - Determination of a wrench to be applied to the exoskeleton at the next iteration of the loop to compensate for a deviation between said estimated current state of the exoskeleton and an expected state of the exoskeleton in accordance with said theoretical elementary trajectory; the determination of the wrench and/or its application to the exoskeleton taking into account a flexibility model of the exoskeleton compared to a rigid robot. - Estimation of a current state of the exoskeleton as a function of said actual position; - Determination of a wrench to be applied to the exoskeleton at the next iteration of the loop to compensate for a deviation between said estimated current state of the exoskeleton and an expected state of the exoskeleton in accordance with said theoretical elementary trajectory;
A method of obtaining a neural multipotent or unipotent cell, comprising: 1) increasing intracellular levels in a provided cell of a first type which is not a neural multipotent or unipotent cell of a Musashil (Msil) polypeptide and a Neurogenin 2 (Ngn2) polypeptide; and 2) placing the cell of step in culture conditions supporting the transformation of the cell of a first type into a neural multipotent or unipotent cell for a sufficient period of time to allow a stable expression of a plurality of genes whose expression is characteristic of the phenotypical and/or functional properties of a neural multipotent or unipotent cell; whereby at the end of said period of time a neural multipotent or unipotent cell is obtained and wherein said obtained neural multipotent or unipotent cell is further characterized by a stable repression of a plurality of genes expressed in the cell of a first type. 1) increasing intracellular levels in a provided cell of a first type which is not a neural multipotent or unipotent cell of a Musashil (Msil) polypeptide and a Neurogenin 2 (Ngn2) polypeptide; and 2) placing the cell of step in culture conditions supporting the transformation of the cell of a first type into a neural multipotent or unipotent cell for a sufficient period of time to allow a stable expression of a plurality of genes whose expression is characteristic of the phenotypical and/or functional properties of a neural multipotent or unipotent cell; whereby at the end of said period of time a neural multipotent or unipotent cell is obtained and wherein said obtained neural multipotent or unipotent cell is further characterized by a stable repression of a plurality of genes expressed in the cell of a first type.
A sliding rail arrangement for awnings, in particular for folding awnings, comprising - a guide rail with a track , - a carriage that is slidably mounted along the track , and - a fabric supporting profile which is mounted on the carriage via a bearing axis , and - an anti-rotation protection acting between the fabric supporting profile and the carriage , which anti-rotation protection is formed by a receiving opening on the fabric supporting profile or carriage and a pin projection engaging therein on the carriage or fabric supporting profile , - wherein the carriage has a bearing body preferably with rollers rotatably mounted thereon, characterized in that - the bearing body is provided with a support shoulder surrounding the bearing axis for supporting the fabric supporting profile to be mounted thereon and the pin projection is formed integrally with the support shoulder . - a guide rail with a track , - a carriage that is slidably mounted along the track , and - a fabric supporting profile which is mounted on the carriage via a bearing axis , and - an anti-rotation protection acting between the fabric supporting profile and the carriage , which anti-rotation protection is formed by a receiving opening on the fabric supporting profile or carriage and a pin projection engaging therein on the carriage or fabric supporting profile , - wherein the carriage has a bearing body preferably with rollers rotatably mounted thereon, characterized in that - the bearing body is provided with a support shoulder surrounding the bearing axis for supporting the fabric supporting profile to be mounted thereon and the pin projection is formed integrally with the support shoulder .
A polypeptide comprising truncated von Willebrand Factor (VWF) which comprises a sequence as shown in SEQ ID NO:3 or a fragment thereof, wherein the truncated VWF comprises SEQ ID NO:5 (S764P/S766W/V1083A), SEQ ID NO:6 (S764G/S766Y/V1083A), SEQ ID NO:7 (S764E/S766Y/V1083A), SEQ ID NO:8 (N1011S/V1083A/K1181E), SEQ ID NO:17 (S766Y/V1083A), SEQ ID NO:9 (V1083A), SEQ ID NO:10 (S1042T), SEQ ID NO:11 (V805A/Q1158L), SEQ ID NO:12 (K912E/T1088S) or SEQ ID NO:13 (L781P); and wherein the truncated VWF binds Factor VIII (FVIII) and the truncated VWF binds to Factor VIII with an off rate lower than a reference polypeptide comprising an unmodified SEQ ID NO:3.