mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a coated product in which a surface and a side surface of a substrate are coated with a decorative material, the method comprising: a transport step of transporting a laminate in which the decorative material is bonded to the surface of the substrate; a heating step of heating a bending margin of the decorative material projecting outward from the side surface of the substrate; and a bonding step of bending the bending margin heated in the heating step to bond the bending margin to the side surface of the substrate, wherein, in the heating step, the bending margin being heated is bent in a half-folded state toward the side surface of the substrate, and wherein, in the bonding step, the bending margin bent in the half-folded state in the heating step is further bent to be bonded to the side surface of the substrate, characterized in that the heating of the bending margin in the heating step is done during transport of the laminate; and in that the bending of the bending margin in the bonding step is done during transport of the laminate in a non-heated state, in which the bending margin is not affected by a heater such that it is not heated. a transport step of transporting a laminate in which the decorative material is bonded to the surface of the substrate; a heating step of heating a bending margin of the decorative material projecting outward from the side surface of the substrate; and a bonding step of bending the bending margin heated in the heating step to bond the bending margin to the side surface of the substrate, wherein, in the heating step, the bending margin being heated is bent in a half-folded state toward the side surface of the substrate, and wherein, in the bonding step, the bending margin bent in the half-folded state in the heating step is further bent to be bonded to the side surface of the substrate, characterized in that the heating of the bending margin in the heating step is done during transport of the laminate; and in that the bending of the bending margin in the bonding step is done during transport of the laminate in a non-heated state, in which the bending margin is not affected by a heater such that it is not heated.
A medical device comprising an exterior surface, an intermediate layer overlying the exterior surface, and a coating layer overlying the intermediate layer, wherein: the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol. the intermediate layer comprises a poly(p-xylylene); and the coating layer comprises a hydrophobic therapeutic agent and at least one additive, wherein the at least one additive comprises a polysorbate and a sugar alcohol.
A method for transitioning a reception level to monitor a scheduling channel in a wireless communication system, carried out in a user equipment, UE,, comprising: receiving a discontinuous reception DRX, indicator from a base station, the DRX indicator indicates a long DRX level or a short DRX level; if the DRX indicator indicates the long DRX level, transitioning to the long DRX level; and if the DRX indicator indicates a short DRX level, transitioning to the short DRX level and when a predefined time elapses after the transitioning to the short DRX level, transitioning to the long DRX level. receiving a discontinuous reception DRX, indicator from a base station, the DRX indicator indicates a long DRX level or a short DRX level; if the DRX indicator indicates the long DRX level, transitioning to the long DRX level; and if the DRX indicator indicates a short DRX level, transitioning to the short DRX level and when a predefined time elapses after the transitioning to the short DRX level, transitioning to the long DRX level.
An arrangement for carrying out the method as claimed in one of the preceding claims, comprising an infrared heating system arranged in a first building, which infrared heating system has a radiant tube to which a gas which is heated by a burner is supplied at a first end, characterized by a heat exchanger, to which the heated gas is supplied after it leaves the radiant tube, and by a heating body or industrial water dispenser arranged in a second building, which heating body or industrial water dispenser is in fluid communication with the heat exchanger via lines (14a, 14b, 18a, 18b) in order to give off in the second building the thermal energy received by the heat exchanger in the form of heat of convection or of heated industrial water, wherein
Method for manufacturing a component by means of additive manufacturing, in particular by selective laser sintering, wherein a powdered plastic material is used as the base material, which contains a blend of a polyamide and a thermoplastic elastomer to improve the impact strength properties of the component, and wherein the weight proportion of the thermoplastic elastomer in the manufactured component is 10 to 50%, in particular 20 to 40%.
Method for producing brake discs for motor vehicles, wherein the method comprises the steps: - heating the brake disc blank, consisting of a lamellar cast-iron material, to a temperature of 830-870°C, - holding this temperature for 60-120 min, - quenching the brake disc blank in a salt bath at a temperature of 210-230°C, - holding this temperature for longer than 90 min, characterized by - heating the brake disc blank to a temperature of 260-300°C, and - holding this temperature for longer than 210 min. - heating the brake disc blank, consisting of a lamellar cast-iron material, to a temperature of 830-870°C, - holding this temperature for 60-120 min, - quenching the brake disc blank in a salt bath at a temperature of 210-230°C, - holding this temperature for longer than 90 min, - heating the brake disc blank to a temperature of 260-300°C, and - holding this temperature for longer than 210 min.
A projectile for ammunition, said projectile comprising an outer profile geometry on an ogive-shaped impact end portion thereof, said outer profile geometry comprising two or more notches extending in (i) an axial, and (ii) parallel orientation relative to a dissecting axis extending longitudinally through said impact end portion of said projectile, wherein each notch comprises notch surface portions (4,7) so as to increase (i) an overall outer surface area of said ogive end portion of projectile, and (ii) a given length of an outer surface periphery ( S p) extending along a line within a plane normal to said dissecting axis, whereby each notch (a) is surrounded by an outer side surface of said ogive-shaped impact end portion of said projectile, and (b) is oriented at an angle of greater than zero up to about 45° relative to said dissecting axis.
A system upgrade assessment method based on system parameter correlation coefficients, characterized by comprising the following steps: acquiring first data for a plurality of parameters before system upgrade; acquiring second data for the plurality of parameters after the system upgrade; calculating first correlation coefficients of the first data for the parameters; calculating second correlation coefficients of the second data for the parameters; and determining, based on the magnitudes of the first correlation coefficients and the second correlation coefficients, whether the system upgrade succeeds; wherein the system is a software system for a battery charging and swapping facility, and the parameters are key parameters of the system for system operating performance, wherein the step of "determining, based on the magnitudes of the first correlation coefficients and the second correlation coefficients, whether the system upgrade succeeds " further comprises: calculating absolute values of differences between the first correlation coefficients and the corresponding second correlation coefficients; and determining, based on the magnitudes of the absolute values, whether the system upgrade succeeds. acquiring first data for a plurality of parameters before system upgrade; acquiring second data for the plurality of parameters after the system upgrade; calculating first correlation coefficients of the first data for the parameters; calculating second correlation coefficients of the second data for the parameters; and determining, based on the magnitudes of the first correlation coefficients and the second correlation coefficients, whether the system upgrade succeeds; wherein the system is a software system for a battery charging and swapping facility, and the parameters are key parameters of the system for system operating performance, wherein the step of "determining, based on the magnitudes of the first correlation coefficients and the second correlation coefficients, whether the system upgrade succeeds " further comprises: calculating absolute values of differences between the first correlation coefficients and the corresponding second correlation coefficients; and determining, based on the magnitudes of the absolute values, whether the system upgrade succeeds. calculating absolute values of differences between the first correlation coefficients and the corresponding second correlation coefficients; and determining, based on the magnitudes of the absolute values, whether the system upgrade succeeds.
Method for producing a switch guide plate for a sliding cam piece, a groove being produced for guiding a pin of an actuator for a displacement of the sliding cam piece, the groove being formed in a planar sheet metal blank by way of stamping, the planar sheet metal blank subsequently being reshaped into a sheet metal cylinder with an annular cross section, and the ends of the sheet metal blank which then lie opposite one another being connected to one another via a welded seam after the reshaping, and the switch guide plate which is formed being connected to a tube for cam packs, characterized in that the planar sheet metal blank is formed with at least one pocket on the side which lies opposite the side which has the groove.
A mobile, coiled tubing drilling apparatus, wherein the apparatus includes a non-rotating mast on a mobile platform, the mast having mounted thereon an injector, a coiled tubing reel having a tubing pay-off point associated therewith, and a tubing control system, wherein: the tubing control system is between the reel and the injector, and includes a tubing abutment adjacent the tubing pay-off point for applying an opposite bend to the tubing during pay-out of the tubing; and the reel is mounted for horizontal (x,y) movement such that, during pay-out of the tubing, the tubing pay-off point can be maintained generally above the injector, and can also be moved towards or away from the tubing abutment. the tubing control system is between the reel and the injector, and includes a tubing abutment adjacent the tubing pay-off point for applying an opposite bend to the tubing during pay-out of the tubing; and the reel is mounted for horizontal (x,y) movement such that, during pay-out of the tubing, the tubing pay-off point can be maintained generally above the injector, and can also be moved towards or away from the tubing abutment.
A lighting fixture (10, A1) of a first group (Group A) of lighting fixtures, which is located in the same environment as a second group (Group B) of lighting fixtures, the lighting fixture comprising: • a light source configured to emit light; • an ambient light sensor (S A); and • circuitry configured to, during a commissioning period: • determine a reference output level for light emitted from the first group of lighting fixtures; and • during normal operation, the circuitry is configured to: • determine an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate a light output level such that a measurement from the ambient light sensor corresponds to the target level. • a light source configured to emit light; • an ambient light sensor (S A); and • circuitry configured to, during a commissioning period: • determine a reference output level for light emitted from the first group of lighting fixtures; and • determine a reference output level for light emitted from the first group of lighting fixtures; and • during normal operation, the circuitry is configured to: • determine an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate a light output level such that a measurement from the ambient light sensor corresponds to the target level. • determine an actual lighting contribution for light emitted from the second group of lighting fixtures; • reduce the reference output level by the actual lighting contribution to provide an adjusted reference level; ∘ receive local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine a target level based on the adjusted reference level and the local dimming information; ∘ receive local dimming information that controls a dimming level for the first group of lighting fixtures; ∘ determine a target level based on the adjusted reference level and the local dimming information; • monitor the ambient light sensor and regulate a light output level such that a measurement from the ambient light sensor corresponds to the target level.
An inverter module comprising: a resin module case; a power system board provided on a bottom side of the module case, the power system board configured to convert DC power supplied from a power source to AC power to apply the power to an electric motor; and a control board provided on an upper side of the module case, the control board configured to control the AC power applied to the electric motor, wherein a smoothing capacitor connected to a power supply line for the power system board is incorporated into the module case and is disposed in a space between the power system board and the control board in the module case, and the smoothing capacitor is electromagnetically shielded with respect to the control board, characterized in that the smoothing capacitor is electromagnetically shielded with respect to the power system board, and the smoothing capacitor is electromagnetically shielded by a metal case surrounding the outer periphery and is disposed in the module case. a resin module case; a power system board provided on a bottom side of the module case, the power system board configured to convert DC power supplied from a power source to AC power to apply the power to an electric motor; and a control board provided on an upper side of the module case, the control board configured to control the AC power applied to the electric motor, wherein a smoothing capacitor connected to a power supply line for the power system board is incorporated into the module case and is disposed in a space between the power system board and the control board in the module case, and the smoothing capacitor is electromagnetically shielded with respect to the control board, characterized in that the smoothing capacitor is electromagnetically shielded with respect to the power system board, and the smoothing capacitor is electromagnetically shielded by a metal case surrounding the outer periphery and is disposed in the module case.
A centrifugal fan, comprising: a frame comprising an air inlet and an air outlet, wherein a first barricade is partially formed on one side of the air inlet and extends outwardly for preventing impurities from entering the air inlet, and the first barricade has a curved-bar shape; an impeller disposed in the frame; and a motor disposed in the frame for driving the impeller, characterized in that the frame further comprises a second barricade formed on a part of the periphery of the air outlet and extending outwardly, the first barricade has C-shaped curvature, and the opening of the C-shaped curvature faces the second barricade. a frame comprising an air inlet and an air outlet, wherein a first barricade is partially formed on one side of the air inlet and extends outwardly for preventing impurities from entering the air inlet, and the first barricade has a curved-bar shape; an impeller disposed in the frame; and a motor disposed in the frame for driving the impeller, characterized in that the frame further comprises a second barricade formed on a part of the periphery of the air outlet and extending outwardly, the first barricade has C-shaped curvature, and the opening of the C-shaped curvature faces the second barricade.
A method of nesting three-dimensional print objects (A - J) intended to be printed by a printer on a print surface of the printer, wherein the method comprises the steps of a) determining locations for the print objects on the print surface by a print controller of the printer in view of the shape and size of the footprints of the objects by means of a known nesting algorithm so as to minimize the surface area required for accommodating the objects, b) determining the locations for the print objects (A - J) also in view of intended heights of the objects as specified in corresponding print jobs, c) grouping the objects (A - J) into classes of objects, each class comprising at least one object with an equal or similar height, and d) nesting the objects class by class, wherein the printer has a print head movable relative to the print surface in a main scanning direction (x) and sub-scanning direction (y) normal to the main scanning direction (x), and wherein the method comprises the step of nestingthe objects of each class in a separate shelf (30 - 36) that extends in the main scanning direction (x) on the print surface and has a constant width in the sub-scanning direction (y). a) determining locations for the print objects on the print surface by a print controller of the printer in view of the shape and size of the footprints of the objects by means of a known nesting algorithm so as to minimize the surface area required for accommodating the objects, b) determining the locations for the print objects (A - J) also in view of intended heights of the objects as specified in corresponding print jobs, c) grouping the objects (A - J) into classes of objects, each class comprising at least one object with an equal or similar height, and d) nesting the objects class by class, wherein the printer has a print head movable relative to the print surface in a main scanning direction (x) and sub-scanning direction (y) normal to the main scanning direction (x), and wherein the method comprises the step of nestingthe objects of each class in a separate shelf (30 - 36) that extends in the main scanning direction (x) on the print surface and has a constant width in the sub-scanning direction (y).
A method for the production of a disintegrative particulate composition including three components consisting of: (i) a first disintegrator component having sedimentation volume in water of 4.0 cm 3 /g or more; (ii) a second disintegrator component other than the first disintegrator component and which is not acid-type carboxylmethylcellulose; and (iii) an excipient, the method comprising a first wet granulation step using any two of the three components and a second wet granulation step using the granules obtained in the first wet granulation step and at least the remaining one component not used in the first wet granulation step. (i) a first disintegrator component having sedimentation volume in water of 4.0 cm 3 /g or more; (ii) a second disintegrator component other than the first disintegrator component and which is not acid-type carboxylmethylcellulose; and (iii) an excipient, the method comprising a first wet granulation step using any two of the three components and a second wet granulation step using the granules obtained in the first wet granulation step and at least the remaining one component not used in the first wet granulation step.
A lithium-air (Li/air) electrochemical cell, comprising: a) a positive and a negative electrode and a reservoir configured to exchange oxygen with the positive electrode, with lithium which includes a concentration of charging redox couples, b) the negative electrode separated from the positive electrode via a porous separator, the negative electrode comprising Li, Li-intercalated graphite, Li x Si or Li x FeF 3 and being in contact with a first current collector; c) the positive electrode including an electron conducting matrix, a second current collector and carbon particles suspended electron conducting porous matrix, the pores of which are at least partially filled with an electrolyte solution, d) a conductor included in the positive electrode and being controllably electronically connected to the second current collector through a switch which is controlled by a control system; e) wherein the electrolyte solution is present in the positive electrode and optionally in the porous separator, contacts the electron conducting matrix and the conductor and includes a Lithium hexafluorophophate, LiPF 6, salt dissolved in an organic solvent mixture; and f) a barrier which separates the positive electrode from the reservoir and is a mesh which permits oxygen and other gases to flow between the positive electrode and the reservoir while also preventing the electrolyte solution from leaving the positive electrode. a) a positive and a negative electrode and a reservoir configured to exchange oxygen with the positive electrode, with lithium which includes a concentration of charging redox couples, b) the negative electrode separated from the positive electrode via a porous separator, the negative electrode comprising Li, Li-intercalated graphite, Li x Si or Li x FeF 3 and being in contact with a first current collector; c) the positive electrode including an electron conducting matrix, a second current collector and carbon particles suspended electron conducting porous matrix, the pores of which are at least partially filled with an electrolyte solution, d) a conductor included in the positive electrode and being controllably electronically connected to the second current collector through a switch which is controlled by a control system; e) wherein the electrolyte solution is present in the positive electrode and optionally in the porous separator, contacts the electron conducting matrix and the conductor and includes a Lithium hexafluorophophate, LiPF 6, salt dissolved in an organic solvent mixture; and f) a barrier which separates the positive electrode from the reservoir and is a mesh which permits oxygen and other gases to flow between the positive electrode and the reservoir while also preventing the electrolyte solution from leaving the positive electrode.