mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a progressive refractive lens comprising a first surface being an object side surface; a second surface being an eyeball side surface; a far vision part for viewing a far vision, the far vision power S being +0.25 D or more; a near vision part for viewing a near vision; and a progressive part for viewing an intermediate vision provided between the far vision part and the near vision part, the method comprising: selecting a base curve of the first surface according to only a near vision power in the near vision part and an astigmatic power; selecting a semi-finish lens having the selected base curve in its far vision zone; and forming a surface having a progressive refractive power by processing the semi-finish lens, wherein the near vision power is obtained by adding an addition power in the progressive refractive lens to a far vision power in the far vision part; and the second surface is a concave surface and has no convex shape. selecting a base curve of the first surface according to only a near vision power in the near vision part and an astigmatic power; selecting a semi-finish lens having the selected base curve in its far vision zone; and forming a surface having a progressive refractive power by processing the semi-finish lens, wherein the near vision power is obtained by adding an addition power in the progressive refractive lens to a far vision power in the far vision part; and the second surface is a concave surface and has no convex shape.
A sensor mounting device for mounting a sensor to an object, comprising, - an object attachment member for attaching the sensor mounting device to the object, - a sensor attachment member for attaching the sensor to the sensor mounting device, - the object attachment member and the sensor attachment member are located at a distance from each other in a longitudinal direction of the sensor mounting device, - wherein the object attachment member and the sensor attachment member are connected by at least two connecting elements, and - wherein the at least two connecting elements are adapted to adjust an inclination of the object attachment member relative to the sensor attachment member by adjusting the distance in the longitudinal direction between portions of the object attachment member and the sensor attachment member, - the sensor mounting device further comprises an insert holder which is releasably attached to the sensor attachment member, and wherein the insert holder further comprises attachment means for attaching the sensor to the insert holder, characterized in that, the insert holder further comprises at least one damping element for the sensor being adapted for damping vibrations emanating from the object when in use, the damping element preferably being a rubber element. - an object attachment member for attaching the sensor mounting device to the object, - a sensor attachment member for attaching the sensor to the sensor mounting device, - the object attachment member and the sensor attachment member are located at a distance from each other in a longitudinal direction of the sensor mounting device, - wherein the object attachment member and the sensor attachment member are connected by at least two connecting elements, and - wherein the at least two connecting elements are adapted to adjust an inclination of the object attachment member relative to the sensor attachment member by adjusting the distance in the longitudinal direction between portions of the object attachment member and the sensor attachment member, - the sensor mounting device further comprises an insert holder which is releasably attached to the sensor attachment member, and wherein the insert holder further comprises attachment means for attaching the sensor to the insert holder, characterized in that,
An enzyme degrading chondroitin sulfate for use in treating a muscular disorder or myopathy by promoting skeletal muscle regeneration, which enhances, when administered into a muscular fiber of a mammal with the muscular disorder or myopathy, regeneration of the muscular fiber.
High pressure fuel pump comprising - a pump head having a main part and a cylindrical turret protruding along a main axis from the main part to a distant disc face, a blind bore extending along the main axis from a pumping chamber, inside the pump head then through the turret until an open end in the disc face and, a low pressure inlet and a high pressure outlet opening in the vicinity of the blind end and adapted to flow fuel in and out of the bore, - a piston arranged slidably guided in the bore, the piston extending from a compression extremity in the pumping chamber of the bore to an outer extremity outside the pump head, the outer extremity being provided with a cam follower, - a spring arranged around the piston and slipped over the turret, the spring being compressed between the cam follower and the main part of the pump head, wherein the pump is further provided with a sleeve having a cup shape with a bottom face and a peripheral wall, the sleeve being arranged around the turret reserving a thin volume between the turret and the peripheral wall, the bottom face of the sleeve being provided with a hole through which extends the piston so that, in operation, part of the fuel pressurized in the pumping chamber leaks between the piston and the bore, gets out of the turret and fills said thin volume prior to exiting the sleeve and, characterized in that the sleeve is provided with at least one opening arranged in the peripheral wall, the opening being adapted to enable fuel to exit the thin volume. - a pump head having a main part and a cylindrical turret protruding along a main axis from the main part to a distant disc face, a blind bore extending along the main axis from a pumping chamber, inside the pump head then through the turret until an open end in the disc face and, a low pressure inlet and a high pressure outlet opening in the vicinity of the blind end and adapted to flow fuel in and out of the bore, - a piston arranged slidably guided in the bore, the piston extending from a compression extremity in the pumping chamber of the bore to an outer extremity outside the pump head, the outer extremity being provided with a cam follower, - a spring arranged around the piston and slipped over the turret, the spring being compressed between the cam follower and the main part of the pump head, wherein the pump is further provided with a sleeve having a cup shape with a bottom face and a peripheral wall, the sleeve being arranged around the turret reserving a thin volume between the turret and the peripheral wall, the bottom face of the sleeve being provided with a hole through which extends the piston so that, in operation, part of the fuel pressurized in the pumping chamber leaks between the piston and the bore, gets out of the turret and fills said thin volume prior to exiting the sleeve and, characterized in that the sleeve is provided with at least one opening arranged in the peripheral wall, the opening being adapted to enable fuel to exit the thin volume.
A device for producing assemblies for storing electric energy, comprising driving means for a complex film, means for winding the complex film (10, 20, 30, 40, 50, 60), means (532, 534, 570, 610) for tensioning the complex film on a section and movable cutting means able to be sequentially actuated so as to carry out a cut in air of the complex film (10, 20, 30, 40, 50, 60) at the tensioned section, characterized in that said means for tensioning the complex film comprise a roller upon which the complex film (10, 20, 30, 40, 50, 60) comes to bear, the roller being positioned between the cutting means and the means for winding the complex film, on the trajectory of the film.
A device for removing an object from a conveyor belt of an inspection line, comprising: a housing, adapted for attachment to the inspection line; and a kicker portion, suspended for rotation about a pivot axis from the housing, such that a vertical separation of a lower end of the kicker portion from the conveyor belt remains constant during rotation, characterised in that: the housing has a rear wall and a top wall; and the kicker portion comprises a wall that wraps around the sides and front of the top wall and extends downwardly, defining an interior of the kicker portion; and in that the device further comprises: a contacting plate, arranged for sliding movement along a front side of the wall of the kicker portion. a housing, adapted for attachment to the inspection line; and a kicker portion, suspended for rotation about a pivot axis from the housing, such that a vertical separation of a lower end of the kicker portion from the conveyor belt remains constant during rotation, the housing has a rear wall and a top wall; and the kicker portion comprises a wall that wraps around the sides and front of the top wall and extends downwardly, defining an interior of the kicker portion; and in that the device further comprises: a contacting plate, arranged for sliding movement along a front side of the wall of the kicker portion.
A device for forming aerosol for providing a coating, the device comprising: - at least one gas-dispersing atomizer for atomizing a liquid into aerosol by means of gas at an atomizing head of the atomizer; and - an atomizing chamber, which is in flow connection with the atomizing head and in which flow restraints are arranged in the inner walls of the atomizing chamber in such a manner that they protrude from the inner walls to the inside of the atomizing chamber for changing the hydrodynamic properties of the aerosol flow discharging from the atomizing head, characterized in that the atomizing chamber is a tubular space, flow restraints being arranged in the inner walls of the tubular atomizing chamber in such a manner that the flow restraints generate pressure variation and throttling in the aerosol flow discharging from the atomizing head for reducing the drop size of the aerosol. - at least one gas-dispersing atomizer for atomizing a liquid into aerosol by means of gas at an atomizing head of the atomizer; and - an atomizing chamber, which is in flow connection with the atomizing head and in which flow restraints are arranged in the inner walls of the atomizing chamber in such a manner that they protrude from the inner walls to the inside of the atomizing chamber for changing the hydrodynamic properties of the aerosol flow discharging from the atomizing head, characterized in that the atomizing chamber is a tubular space, flow restraints being arranged in the inner walls of the tubular atomizing chamber in such a manner that the flow restraints generate pressure variation and throttling in the aerosol flow discharging from the atomizing head for reducing the drop size of the aerosol.
Strip deflection device for deflecting a strip, in particular a metal strip, at an angle, said device comprising at least one deflection cylinder around which the strip can be deflected while maintaining a strip tension, which deflection angle is defined by the infeed direction and the outfeed direction of the strip, wherein rollers are provided in the circumferential direction of the deflection cylinder, and form support faces of equal height for the strip along a helical wrap, characterised in that the deflection cylinder can be adjusted between a first operating position and at least one second operating position by means of an adjusting device, wherein each operating position (31, 32) is associated with a respective arrangement (10, 11) of the rollers, and wherein the rollers of an arrangement (10, 11) are oriented at an angulation that corresponds to the helical wrap.
A torque measurement system for measuring a torque acting on a rotatable shaft that is configured to rotate about an axis upon receipt of an input, the torque measurement system comprising: a first housing portion having a first end adapted to be fixedly coupled to a rotatable shaft and a second end, the first housing portion adapted to be positioned coaxial with the rotatable shaft; a second housing portion having a first end spaced apart from the second end of the first housing portion so as to define a gap between the first housing portion and the second housing portion, the second housing portion adapted to be fixedly coupled to the rotatable shaft; a sprocket coupled to the second end of the first housing portion, wherein the first housing portion is configured to transmit a torque applied to the rotatable shaft to the sprocket; at least one elastically deformable element embedded on the rotatable shaft, the first housing portion, or both, wherein a second end of the first housing portion is configured to be angularly displaced relative to the second housing portion upon transmission of the torque from the rotatable shaft to the sprocket; at least one speed sensor that observes at least one of the second end of the first housing portion, the first end of the second housing portion and the gap and generates sensor signals based on the observation, the sensor signals indicative of a torque acting on the rotatable shaft, the speed sensor adapted to be fixedly coupled to a static frame; a processor coupled to the speed sensor and configured to interpret the sensor signals and determine a torque measurement based on the sensor signals. a first housing portion having a first end adapted to be fixedly coupled to a rotatable shaft and a second end, the first housing portion adapted to be positioned coaxial with the rotatable shaft; a second housing portion having a first end spaced apart from the second end of the first housing portion so as to define a gap between the first housing portion and the second housing portion, the second housing portion adapted to be fixedly coupled to the rotatable shaft; a sprocket coupled to the second end of the first housing portion, wherein the first housing portion is configured to transmit a torque applied to the rotatable shaft to the sprocket; at least one elastically deformable element embedded on the rotatable shaft, the first housing portion, or both, wherein a second end of the first housing portion is configured to be angularly displaced relative to the second housing portion upon transmission of the torque from the rotatable shaft to the sprocket; at least one speed sensor that observes at least one of the second end of the first housing portion, the first end of the second housing portion and the gap and generates sensor signals based on the observation, the sensor signals indicative of a torque acting on the rotatable shaft, the speed sensor adapted to be fixedly coupled to a static frame; a processor coupled to the speed sensor and configured to interpret the sensor signals and determine a torque measurement based on the sensor signals.
A vehicle cab arrangement (110d, 110e), the vehicle cab arrangement (110d, 110e) comprising: - a cabin for housing a human driver of a vehicle (100d, 100e); - a horizontally extending fuel cell stack, the fuel cell stack being placed vertically below the cabin; and characterized by - a horizontally extending cooling radiator, the cooling radiator being placed between the cabin and the fuel cell stack. - a cabin for housing a human driver of a vehicle (100d, 100e); - a horizontally extending fuel cell stack, the fuel cell stack being placed vertically below the cabin; and characterized by - a horizontally extending cooling radiator, the cooling radiator being placed between the cabin and the fuel cell stack.
A method for calibrating a stepper motor that drives a driven member over a travel range having a travel limit, wherein the stepper motor can move the driven member to an operational point within the travel range, the method comprising: commanding the stepper motor to move the driven member over a travel distance from the operational point to the travel limit; characterised in that as the stepper motor moves the driven member from the operational point to the travel limit, commanding the stepper motor to periodically slow down and then accelerate, thereby creating a plurality of segments (38, 58, 62) each including an acceleration period, a period of relatively fast movement (38', 58', 62') and a deceleration period, wherein a first segment of the plurality of segments is shorter than the travel distance from the operational point to the travel limit and wherein the plurality of segments become shorter in distance, as the driven member approaches the travel limit; and defining a reference point upon the driven member having reached the travel limit. commanding the stepper motor to move the driven member over a travel distance from the operational point to the travel limit; characterised in that as the stepper motor moves the driven member from the operational point to the travel limit, commanding the stepper motor to periodically slow down and then accelerate, thereby creating a plurality of segments (38, 58, 62) each including an acceleration period, a period of relatively fast movement (38', 58', 62') and a deceleration period, wherein a first segment of the plurality of segments is shorter than the travel distance from the operational point to the travel limit and wherein the plurality of segments become shorter in distance, as the driven member approaches the travel limit; and defining a reference point upon the driven member having reached the travel limit.
Method of adjusting the ink viscosity in an inkjet printer which comprises a fluid circuit, a print head connected to the fluid circuit through an umbilical, the fluid circuit comprising at least one reservoir called the main reservoir, and a pump located downstream from the reservoir to pump ink from this reservoir and send it to said print head, an anti-pulse device being located downstream from the pump, along the direction of circulation of ink towards the print head, an ink pressure sensor being located downstream from this anti-pulse device, this method comprising at least: - the formation of an inkjet, the jet having a velocity equal to or close to a predetermined velocity called the nominal velocity, - a measurement of the ink viscosity while the ink jet is flowing at this nominal velocity, using at least one pressure measurement obtained from the ink pressure sensor, - the addition of a quantity of solvent into the ink contained in the reservoir, when the viscosity is not equal to a given reference value. - the formation of an inkjet, the jet having a velocity equal to or close to a predetermined velocity called the nominal velocity, - a measurement of the ink viscosity while the ink jet is flowing at this nominal velocity, using at least one pressure measurement obtained from the ink pressure sensor, - the addition of a quantity of solvent into the ink contained in the reservoir, when the viscosity is not equal to a given reference value.
A method for wireless communications at a user equipment, comprising: transmitting (1405, 1505), from the user equipment, UE, a sidelink communication to one or more other UEs; determining sidelink acknowledgment feedback for reception of the sidelink communication by the one or more other UEs; receiving (1415, 1520) a downlink communication from a base station; generating (1420, 1525) downlink acknowledgment feedback for reception of the downlink communication; and transmitting (1425, 1535) both the downlink acknowledgment feedback and the sidelink acknowledgment feedback to the base station via a joint transmission, wherein the joint transmission comprises an acknowledgment feedback codebook for the downlink acknowledgment feedback and a sidelink acknowledgment feedback bit that is appended to the acknowledgment feedback codebook, determining that at least a first UE of the one or more of the other UEs has successfully received the sidelink communication based on an absence of a negative acknowledgment from the first UE and setting the sidelink acknowledgment feedback bit to indicate an acknowledgment of reception of the sidelink communication based at least in part on an absence of a negative acknowledgment being received from any of the one or more other UEs. transmitting (1405, 1505), from the user equipment, UE, a sidelink communication to one or more other UEs; determining sidelink acknowledgment feedback for reception of the sidelink communication by the one or more other UEs; receiving (1415, 1520) a downlink communication from a base station; generating (1420, 1525) downlink acknowledgment feedback for reception of the downlink communication; and transmitting (1425, 1535) both the downlink acknowledgment feedback and the sidelink acknowledgment feedback to the base station via a joint transmission, wherein the joint transmission comprises an acknowledgment feedback codebook for the downlink acknowledgment feedback and a sidelink acknowledgment feedback bit that is appended to the acknowledgment feedback codebook, determining that at least a first UE of the one or more of the other UEs has successfully received the sidelink communication based on an absence of a negative acknowledgment from the first UE and setting the sidelink acknowledgment feedback bit to indicate an acknowledgment of reception of the sidelink communication based at least in part on an absence of a negative acknowledgment being received from any of the one or more other UEs.
A medical imaging method for locating anatomical landmarks of a predefined anatomy of a subject the method comprising: - a) accessing a trained machine learning model for predicting anatomical landmarks in image data obtained using a set of acquisition parameters and for predicting a subsequent set of acquisition parameters of the set of acquisition parameters for subsequent acquisition of image data; - b) determining a current set of acquisition parameters; - c) controlling a scanning imaging system to acquire survey image data representing a slice of the anatomy, the survey image data having the current set of acquisition parameters - d) receiving the survey image data; - e) identifying anatomical landmarks in the received survey image data using the machine learning model; - f) predicting another set of acquisition parameters using the machine learning model and repeating steps c)-f) for a predefined number of repetitions using the predicted set of acquisition parameters as the current set of parameters and - g) providing the identified anatomical landmarks. - a) accessing a trained machine learning model for predicting anatomical landmarks in image data obtained using a set of acquisition parameters and for predicting a subsequent set of acquisition parameters of the set of acquisition parameters for subsequent acquisition of image data; - b) determining a current set of acquisition parameters; - c) controlling a scanning imaging system to acquire survey image data representing a slice of the anatomy, the survey image data having the current set of acquisition parameters - d) receiving the survey image data; - e) identifying anatomical landmarks in the received survey image data using the machine learning model; - f) predicting another set of acquisition parameters using the machine learning model and repeating steps c)-f) for a predefined number of repetitions using the predicted set of acquisition parameters as the current set of parameters and - g) providing the identified anatomical landmarks.