mhurhangee/patent-ind-claim-en huggingface dataset:
A surfactant composition comprising water and 1 to 99 wt.% of a surfactant comprising: (a) 40 to 60 wt.% of a monounsaturated C 11 primary alcohol sulfate; and (b) 40 to 60 wt.% of a secondary hydroxyalkyl C 11 primary alcohol sulfate; wherein (a) and (b) derive from undecylenic alcohol. (a) 40 to 60 wt.% of a monounsaturated C 11 primary alcohol sulfate; and (b) 40 to 60 wt.% of a secondary hydroxyalkyl C 11 primary alcohol sulfate; wherein (a) and (b) derive from undecylenic alcohol.
An image processing apparatus configured to perform image processing on an input image produced by image capturing through an optical system, the apparatus characterized by comprising: a first distribution producer configured to produce a first distribution by using coefficient data of a function of an elliptical distribution, the coefficient data being obtained by approximating a point spread function that corresponds to a condition relating to the image capturing by the function; a second distribution producer configured to produce a second distribution by mirroring a part of the first distribution along an axis which is not a major axis of the elliptical distribution or a minor axis of the elliptical distribution, the second distribution including the part of the first distribution; a filter producer configured to produce, by using the second distribution, a first filter to be used for a sharpening process; and a processor configured to perform the sharpening process on the input image by using the first filter to produce a sharpened image. a first distribution producer configured to produce a first distribution by using coefficient data of a function of an elliptical distribution, the coefficient data being obtained by approximating a point spread function that corresponds to a condition relating to the image capturing by the function; a second distribution producer configured to produce a second distribution by mirroring a part of the first distribution along an axis which is not a major axis of the elliptical distribution or a minor axis of the elliptical distribution, the second distribution including the part of the first distribution; a filter producer configured to produce, by using the second distribution, a first filter to be used for a sharpening process; and a processor configured to perform the sharpening process on the input image by using the first filter to produce a sharpened image.
A method of balancing a rotor of a vacuum pump , in particular a turbopump, a turbomolecular pump or a side channel pump, or a rotor of a rotation unit for a vacuum pump , in particular a turbopump, a turbomolecular pump or a side channel pump, wherein the rotor is rotatably supported about an axis of rotation with respect to a stator of the vacuum pump or of the rotation unit, wherein the method comprises: - measuring an imbalance of the rotor when the rotor rotates about the axis of rotation ; and - applying a beam , in particular a laser beam, an ion beam or an electron beam, to the rotor at at least one position (P1, P2, P5), which is calculated in dependence on the measured imbalance, such that material is removed from the rotor by means of the beam to eliminate the imbalance as completely as possible or at least to reduce it, characterized in that the at least one position (P1) is disposed at a blade of the rotor , in particular at a radially outwardly disposed surface of the blade ; and/or in that the at least one position (P5) is disposed at an upper side of an outer rotor disk at a predefined or predefinable radial spacing from the axis of rotation ; and/or in that the at least one position (P2) is disposed at a surface of a rotor hub at which at least one Holweck rotor sleeve is arranged. - measuring an imbalance of the rotor when the rotor rotates about the axis of rotation ; and - applying a beam , in particular a laser beam, an ion beam or an electron beam, to the rotor at at least one position (P1, P2, P5), which is calculated in dependence on the measured imbalance, such that material is removed from the rotor by means of the beam to eliminate the imbalance as completely as possible or at least to reduce it,
Method for detecting and reducing the effects of color fringing in digital video acquired by a camera comprising an iris , said digital video comprising a sequence of acquired RGB digital image frames, each digital image frame comprising image information stored within a red, green and blue channel, said method comprising: acquiring (S102), by the camera , a first digital image frame using a first camera setting, including a first iris aperture size ; acquiring (S104), by the camera , a second digital image frame using a second camera setting, including a second iris aperture size ; wherein the second aperture size is smaller than the first aperture size ; comparing (S106) the first and the second digital image frame, at least one specific color component of said red, green and blue color components thereof, wherein each of said red, green and blue color components correspond to image information stored within the red, green and blue channels, respectively, characterized in that the method further comprises: localizing (S108) regions having a disproportional intensity ratio in the specific color component between the first digital image frame and the second digital image frame ; and reducing (S110) the specific color component in the localized regions for subsequently acquired digital image frames . acquiring (S102), by the camera , a first digital image frame using a first camera setting, including a first iris aperture size ; acquiring (S104), by the camera , a second digital image frame using a second camera setting, including a second iris aperture size ; wherein the second aperture size is smaller than the first aperture size ; comparing (S106) the first and the second digital image frame, at least one specific color component of said red, green and blue color components thereof, wherein each of said red, green and blue color components correspond to image information stored within the red, green and blue channels, respectively, characterized in that the method further comprises: localizing (S108) regions having a disproportional intensity ratio in the specific color component between the first digital image frame and the second digital image frame ; and reducing (S110) the specific color component in the localized regions for subsequently acquired digital image frames . localizing (S108) regions having a disproportional intensity ratio in the specific color component between the first digital image frame and the second digital image frame ; and reducing (S110) the specific color component in the localized regions for subsequently acquired digital image frames .
A pouch forming device comprising: a die member provided with a die having a top surface on which a pouch film is disposable , a forming part formed in the top surface, and a die holder to which the die is fixed; a stripper member provided with a stripper that is vertically movably disposed on an upper portion of the die member and a first driving piece allowing the stripper to vertically move, said stripper being adapted to press and fix a pouch film disposed on the die when descending in operations; a punch member provided with a punch plate comprising a punch that is vertically movable disposed on the upper portion of the die member and a second driving piece allowing the punch plate to vertically move, said punch being adapted to be inserted into the forming part when descending ; and a control member controlling, in operation: - the first driving piece to allow the stripper to ascend when the punch is inserted into the forming part , and/or - the second driving piece to reduce a descending speed of the punch plate on which the punch is disposed when the punch is inserted into the forming part , characterized in that the control member comprises a detection sensor detecting insertion of the punch into the forming part and a controller controlling the first driving piece according to a signal from the detection sensor to allow the stripper to gradually ascend. a die member provided with a die having a top surface on which a pouch film is disposable , a forming part formed in the top surface, and a die holder to which the die is fixed; a stripper member provided with a stripper that is vertically movably disposed on an upper portion of the die member and a first driving piece allowing the stripper to vertically move, said stripper being adapted to press and fix a pouch film disposed on the die when descending in operations; a punch member provided with a punch plate comprising a punch that is vertically movable disposed on the upper portion of the die member and a second driving piece allowing the punch plate to vertically move, said punch being adapted to be inserted into the forming part when descending ; and a control member controlling, in operation: - the first driving piece to allow the stripper to ascend when the punch is inserted into the forming part , and/or - the second driving piece to reduce a descending speed of the punch plate on which the punch is disposed when the punch is inserted into the forming part , - the first driving piece to allow the stripper to ascend when the punch is inserted into the forming part , and/or - the second driving piece to reduce a descending speed of the punch plate on which the punch is disposed when the punch is inserted into the forming part ,
A method for preventing chafing between a linear heat detection cable and a metallic protective outer sheath , comprising the steps of: a) preparing an elongated polymer tube having a predetermined length and outer diameter; b) wrapping heat resistant tape having a given width around a distal end portion of the polymer tube to locally enlarge the outer diameter of the tube; c) inserting a proximal end portion of the polymer tube into an open end of the outer sheath having a predetermined inner diameter that is greater than or equal to the outer diameter of the tube, so that the heat resistant tape wrapped around the distal end portion of the tube abuts against the end of the outer sheath to act as a stop surface , ensuring proper positioning of the tube within the sheath; d) feeding the linear heat detection cable into the outer sheath through the distal end portion of the polymer tube ; e) installing a terminal connector to an end portion of the linear heat detection cable extending from the distal end portion of the polymer tube ; f) spirally wrapping a layer of heat resistant tape over an end portion of the outer sheath , the distal end portion of the polymer tube and the linear heat detection cable , up to the back of the terminal connector , to define a transition area g) positioning a transition boot over the transition area delineated by the spirally wrapped tape; and h) heat shrinking the transition boot over the transition area delineated by the spirally wrapped tape. a) preparing an elongated polymer tube having a predetermined length and outer diameter; b) wrapping heat resistant tape having a given width around a distal end portion of the polymer tube to locally enlarge the outer diameter of the tube; c) inserting a proximal end portion of the polymer tube into an open end of the outer sheath having a predetermined inner diameter that is greater than or equal to the outer diameter of the tube, so that the heat resistant tape wrapped around the distal end portion of the tube abuts against the end of the outer sheath to act as a stop surface , ensuring proper positioning of the tube within the sheath; d) feeding the linear heat detection cable into the outer sheath through the distal end portion of the polymer tube ; e) installing a terminal connector to an end portion of the linear heat detection cable extending from the distal end portion of the polymer tube ; f) spirally wrapping a layer of heat resistant tape over an end portion of the outer sheath , the distal end portion of the polymer tube and the linear heat detection cable , up to the back of the terminal connector , to define a transition area g) positioning a transition boot over the transition area delineated by the spirally wrapped tape; and h) heat shrinking the transition boot over the transition area delineated by the spirally wrapped tape.
A signal reception method performed by a terminal device, the method comprising the steps of: • receiving (S 210) first configuration information from a network device, wherein the first configuration information comprises at least one transmission configuration indicator, TCI, state and a configuration of a tracking reference signal, TRS, of a first channel, and the TRS is a set comprising a plurality of channel state information reference signal, CSI-RS, resources; • determining (S 230) a quasi-colocation, QCL, parameter of the first channel based on a first TCI state in the at least one TCI state, ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; • receiving (S 250) the first channel based on the QCL parameter of the first channel. • receiving (S 210) first configuration information from a network device, wherein the first configuration information comprises at least one transmission configuration indicator, TCI, state and a configuration of a tracking reference signal, TRS, of a first channel, and the TRS is a set comprising a plurality of channel state information reference signal, CSI-RS, resources; • determining (S 230) a quasi-colocation, QCL, parameter of the first channel based on a first TCI state in the at least one TCI state, ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; ∘ wherein the QCL parameter includes information about a receive beam of the first channel, ∘ wherein the first TCI state is a TCI state with a smallest TCI state number in the at least one TCI state, ∘ wherein the determination of the QCL parameter is performed before an activation command used to activate at least one or more of the at least one TCI state is received by the terminal device from the network device; • receiving (S 250) the first channel based on the QCL parameter of the first channel.
A method for preparing an adhesive composition, using an extruder having at least two rotating screws, successively comprising: - feeding at least one plasticizer into the extruder; - degassing the plasticizer in the extruder; - feeding at least one silylated prepolymer, the silylated prepolymer being fed at a position located downstream in the extruder relative to the position at which the plasticizer is fed and relative to the degassing position of the plasticizer in the extruder, and mixing the latter with the plasticizer in the extruder; and - discharging the mixture from the extruder. - feeding at least one plasticizer into the extruder; - degassing the plasticizer in the extruder; - feeding at least one silylated prepolymer, the silylated prepolymer being fed at a position located downstream in the extruder relative to the position at which the plasticizer is fed and relative to the degassing position of the plasticizer in the extruder, and mixing the latter with the plasticizer in the extruder; and - discharging the mixture from the extruder.
Safety device for the interruption of an electrical connection (V), with - an electrical conductor with at least a first and a second terminal contact , wherein the conductor changes its routing direction (VR) multiple times between the first and the second terminal contact , such that the conductor has at least two tear-off portions that are to be interrupted, are arranged geometrically next to one another, and are electrically connected in series, - a housing , in which at least the two tear-off portions of the conductor that are to be interrupted are accommodated, - a disconnection actuator , which is configured and arranged relative to the conductor such as to disconnect the conductor by tearing off, at least at the two tear-off portions , when the disconnection actuator is triggered, characterised in that , the two tear-off portions of the conductor each extend through an arc extinguishing chamber of the housing , which is sealed off from an environment, and in which an extinguishing material is located. - an electrical conductor with at least a first and a second terminal contact , wherein the conductor changes its routing direction (VR) multiple times between the first and the second terminal contact , such that the conductor has at least two tear-off portions that are to be interrupted, are arranged geometrically next to one another, and are electrically connected in series, - a housing , in which at least the two tear-off portions of the conductor that are to be interrupted are accommodated, - a disconnection actuator , which is configured and arranged relative to the conductor such as to disconnect the conductor by tearing off, at least at the two tear-off portions , when the disconnection actuator is triggered,
Method for treating a metal strip , where the metal strip is pre-heated by hot gas in a pre-heating zone and where the metal strip is further heat-treated afterwards in a directly fired furnace in a reducing and/or oxidizing atmosphere, characterized in that the metal strip is pre-heated with the aid of inert gas in the pre-heating zone and in that it is further heated by an electric heating system , preferably with an induction heating system, before it enters the directly heated furnace , where the heat in the exhaust gases from the directly fired furnace is used to pre-heat the inert gas for the pre-heating zone .
A hollow spring member characterized by comprising: a hollow rod being formed of a rod-shaped steel material, and including: terminal sealed portions at both ends of the hollow rod ; an enclosed space between the terminal sealed portions ; and terminal gaps in which a gap is narrowed toward an inner surface joined portion of the terminal sealed portions at respective ends of the enclosed space ; characterised in that a volatile powdered rust inhibitor is supplied in the enclosed space ; an inner surface rust-inhibiting film which exists on an inner surface of the enclosed space in a state in which a component of the volatile powdered rust inhibitor vaporized within the enclosed space is adsorbed to the inner surface of the enclosed space ; and a terminal rust-inhibiting film which exists at the terminal gaps in a state in which the vaporized component is adsorbed to an inner surface of the terminal gaps . a hollow rod being formed of a rod-shaped steel material, and including: terminal sealed portions at both ends of the hollow rod ; an enclosed space between the terminal sealed portions ; and terminal gaps in which a gap is narrowed toward an inner surface joined portion of the terminal sealed portions at respective ends of the enclosed space ; characterised in that a volatile powdered rust inhibitor is supplied in the enclosed space ; an inner surface rust-inhibiting film which exists on an inner surface of the enclosed space in a state in which a component of the volatile powdered rust inhibitor vaporized within the enclosed space is adsorbed to the inner surface of the enclosed space ; and a terminal rust-inhibiting film which exists at the terminal gaps in a state in which the vaporized component is adsorbed to an inner surface of the terminal gaps .
Method for a motor vehicle for determining a roadway profile, including: detecting a vehicle travelling in front on the lane of the motor vehicle ; detecting a trajectory of at least one fixed point on the vehicle travelling in front; selecting an inverse first vehicle model by using the detected vehicle travelling in front; determining a roadway height profile by using the inverse first vehicle model and the detected trajectory of the at least one fixed point on the vehicle travelling in front; detecting a horizontal distance to the vehicle travelling in front and an inherent speed of the motor vehicle ; and feedforward control of a shock absorber system by using the determined roadway height profile, the detected horizontal distance, the inherent speed and a second vehicle model of the motor vehicle . detecting a vehicle travelling in front on the lane of the motor vehicle ; detecting a trajectory of at least one fixed point on the vehicle travelling in front; selecting an inverse first vehicle model by using the detected vehicle travelling in front; determining a roadway height profile by using the inverse first vehicle model and the detected trajectory of the at least one fixed point on the vehicle travelling in front; detecting a horizontal distance to the vehicle travelling in front and an inherent speed of the motor vehicle ; and feedforward control of a shock absorber system by using the determined roadway height profile, the detected horizontal distance, the inherent speed and a second vehicle model of the motor vehicle .
A heating apparatus connectable to a fluid supply source, the heating apparatus comprising: a hydrodynamic heater including a hydrodynamic chamber disposed within an interior cavity of the hydrodynamic heater , the hydrodynamic chamber operable for selectively heating a fluid present within the hydrodynamic chamber when the heating apparatus is connected to the fluid supply source, the hydrodynamic heater having an inlet port and a discharge port ; a heat exchanger having an inlet port and a discharge port , the heat exchanger including a heat exchanger core disposed within an interior cavity of the heat exchanger : and a manifold having a discharge passage fluidly connecting the discharge port of the hydrodynamic heater to the inlet port of the heat exchanger , and a return passage fluidly connecting the discharge port of the heat exchanger to the inlet port of the hydrodynamic heater; the heating apparatus being characterized by a wall at least partially defining the interior cavity of the hydrodynamic heater and the interior cavity of the heat exchanger . a hydrodynamic heater including a hydrodynamic chamber disposed within an interior cavity of the hydrodynamic heater , the hydrodynamic chamber operable for selectively heating a fluid present within the hydrodynamic chamber when the heating apparatus is connected to the fluid supply source, the hydrodynamic heater having an inlet port and a discharge port ; a heat exchanger having an inlet port and a discharge port , the heat exchanger including a heat exchanger core disposed within an interior cavity of the heat exchanger : and a manifold having a discharge passage fluidly connecting the discharge port of the hydrodynamic heater to the inlet port of the heat exchanger , and a return passage fluidly connecting the discharge port of the heat exchanger to the inlet port of the hydrodynamic heater; the heating apparatus being characterized by a wall at least partially defining the interior cavity of the hydrodynamic heater and the interior cavity of the heat exchanger .