mhurhangee/patent-ind-claim-en huggingface dataset:
A method for responding to a touch operation, applicable to a mobile terminal comprising a touch display screen, and the method comprising: receiving (701; 1502; 2101; 2202; 2301) a first touch operation applied on the touch display screen and a second touch operation applied on the touch display screen within a predetermined duration; determining (2102; 2203; 2303) a first operation type of the first touch operation, the first operation type being one of a click type, a slide type and a long press type; and determining (2103; 2204; 2303) a second operation type of the second touch operation, the second operation type being one of the click type, the slide type and the long press type; determining an operation region of the first touch operation and determining an operation region of the second touch operation; determining a response priority of the first operation type and a response priority of the second operation type; and determining, based on the response priorities of the first and second operation types and the operation regions of the first and second touch operations, whether to respond to the first touch operation and then respond to the second touch operation, or to respond to the second touch operation and then respond to the first touch operation, or only respond to the first touch operation, or only respond to the second touch operation. receiving (701; 1502; 2101; 2202; 2301) a first touch operation applied on the touch display screen and a second touch operation applied on the touch display screen within a predetermined duration; determining (2102; 2203; 2303) a first operation type of the first touch operation, the first operation type being one of a click type, a slide type and a long press type; and determining (2103; 2204; 2303) a second operation type of the second touch operation, the second operation type being one of the click type, the slide type and the long press type; determining an operation region of the first touch operation and determining an operation region of the second touch operation; determining a response priority of the first operation type and a response priority of the second operation type; and determining, based on the response priorities of the first and second operation types and the operation regions of the first and second touch operations, whether to respond to the first touch operation and then respond to the second touch operation, or to respond to the second touch operation and then respond to the first touch operation, or only respond to the first touch operation, or only respond to the second touch operation.
Process for the purification of aniline, comprising the following steps: a) providing a crude aniline fraction containing aniline and organic impurities, wherein the organic impurities comprise phenol, organic impurities having a lower boiling point than aniline, and aminophenol, and also further organic impurities having a higher boiling point than aniline, and the concentration of aminophenol, based on the total mass of the organic constituents of the crude aniline fraction, is in the range from 0.001% by mass to 1.00% by mass; b) extracting the crude aniline fraction from step a) with an aqueous extractant containing, based on the total mass of the aqueous extractant, an alkali metal hydroxide in a concentration range from 0.009% by mass to 2.05% by mass and an alkali metal salt different from an alkali metal hydroxide in a concentration range from 2.40% by mass to 25.0% by mass, wherein, after phase separation, an organic aniline phase depleted in aminophenol and an aqueous aminophenolate phase are obtained; and c) distilling the organic aniline phase from step b) to obtain a stream of purified aniline, a gaseous stream containing organic impurities having a lower boiling point than aniline, and a liquid stream containing aniline and organic impurities having a higher boiling point than aniline. a) providing a crude aniline fraction containing aniline and organic impurities, wherein the organic impurities comprise phenol, organic impurities having a lower boiling point than aniline, and aminophenol, and also further organic impurities having a higher boiling point than aniline, and the concentration of aminophenol, based on the total mass of the organic constituents of the crude aniline fraction, is in the range from 0.001% by mass to 1.00% by mass; b) extracting the crude aniline fraction from step a) with an aqueous extractant containing, based on the total mass of the aqueous extractant, an alkali metal hydroxide in a concentration range from 0.009% by mass to 2.05% by mass and an alkali metal salt different from an alkali metal hydroxide in a concentration range from 2.40% by mass to 25.0% by mass, wherein, after phase separation, an organic aniline phase depleted in aminophenol and an aqueous aminophenolate phase are obtained; and c) distilling the organic aniline phase from step b) to obtain a stream of purified aniline, a gaseous stream containing organic impurities having a lower boiling point than aniline, and a liquid stream containing aniline and organic impurities having a higher boiling point than aniline.
An anatomy model comprising a mesh layer through which at least one medical tool may be inserted and manipulated into the model, the mesh layer being formed of at least two elastomer strands , the strands being interlinked so as to provide multiple gaps at the crossing of the strands through which a tool can pass through the mesh layer and wherein the anatomy model further comprises a skin layer comprising at least one portal hole entry through which a medical tool may be inserted and manipulated into the anatomy model to reach the mesh layer and characterized in that it further comprises a soft body simulation layer attached underneath the skin layer , each strand having a width in the range of 1 mm to 10 mm, the soft body simulation layer is formed of at least three adjacent protruding flexible elements such that the medical tool can enter into the soft body simulation layer through at least one portal entry on the skin layer and slide through the channels or recesses formed between the adjacent protruding flexible elements to reach the mesh layer .
A pump comprising: a molded stator including a board on which a magnetic-pole-position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component , the rotor portion opposing the magnetic-pole-position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion , a ring-shaped resin magnet and a sleeve bearing disposed inside the ring-shaped resin magnet are integrally assembled together by using a thermoplastic resin, and the impeller attachment portion is formed of the thermoplastic resin, characterized in that the ring-shaped resin magnet has a plurality of groove portions in an outer peripheral portion thereof between magnetic poles formed in the rotor , the groove portions are formed so as to open in both end surfaces of the rotor and extending in an axial direction, and wherein the groove portions are embedded in the thermoplastic resin. a molded stator including a board on which a magnetic-pole-position detection element is mounted; and a rotor including a rotor portion that is rotatably accommodated in a cup-shaped partition wall component , the rotor portion opposing the magnetic-pole-position detection element at one end and having an impeller attachment portion for attaching an impeller at other end, wherein, in the rotor portion , a ring-shaped resin magnet and a sleeve bearing disposed inside the ring-shaped resin magnet are integrally assembled together by using a thermoplastic resin, and the impeller attachment portion is formed of the thermoplastic resin, characterized in that the ring-shaped resin magnet has a plurality of groove portions in an outer peripheral portion thereof between magnetic poles formed in the rotor , the groove portions are formed so as to open in both end surfaces of the rotor and extending in an axial direction, and wherein the groove portions are embedded in the thermoplastic resin.
A splittable sheath for an implantable medical device, the sheath comprising: a jacket including an outer diameter and an inner diameter; a lumen defined by the inner diameter and extended from a proximal end to a distal end of the jacket ; an electrode located at the distal end of the jacket ; a signal wire disposed within the jacket and electrically coupled to the electrode ; and a rail , characterized in that the rail is configured to shield the signal wire from a cut path of a sheath splitter ; and the jacket includes a jacket stripe extended from the proximal end to the distal end, wherein the jacket stripe is constructed from a material that is softer than a material of the jacket . a jacket including an outer diameter and an inner diameter; a lumen defined by the inner diameter and extended from a proximal end to a distal end of the jacket ; an electrode located at the distal end of the jacket ; a signal wire disposed within the jacket and electrically coupled to the electrode ; and a rail , characterized in that the rail is configured to shield the signal wire from a cut path of a sheath splitter ; and the jacket includes a jacket stripe extended from the proximal end to the distal end, wherein the jacket stripe is constructed from a material that is softer than a material of the jacket .
A bioactive lipid composition comprising: a first lipid component comprising sciadonic acid in free acid form and a second lipid component comprising a conjugated linoleic acid in free acid form, wherein said bioactive composition comprises at least 10%, preferably at least 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95%, or 99% of said sciadonic acid w/w and at least 1%, preferably at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, or 90% of said linoleic acid w/w. a first lipid component comprising sciadonic acid in free acid form and a second lipid component comprising a conjugated linoleic acid in free acid form, wherein said bioactive composition comprises at least 10%, preferably at least 20%, 30%, 40%, 50%, 60%, 70%, 80%, 90%, 95%, or 99% of said sciadonic acid w/w and at least 1%, preferably at least 5%, 10%, 20%, 30%, 40%, 50%, 60%, 70%, 80%, or 90% of said linoleic acid w/w.
Lighting device for a motor vehicle, comprising at least one, for example two or more lighting units , each lighting unit comprising - a reflector , and - at least one light source associated with the reflector , wherein light from the at least one light source is emitted via the associated reflector - in the installed state of the lighting device - into an area in front of the vehicle, and the at least one light source is arranged on at least one mounting body , preferably on a common mounting body for all light sources, characterized in that a reflector holder is provided for each reflector, the reflector being designed as a component which is separate from the reflector holder , which component is mounted on the reflector holder such that it can move, the component being mounted such that it can move about at least one axis assigned to the respective component, for example a vertical axis (Z), and can be fixed in a pivoted position on the reflector holder by fixing means, and wherein the reflector holder can be pivoted with respect to the mounting body about at least one axis, e.g. about the vertical axis (Z) and/or the horizontal axis (Y), and can be fixed to the mounting body in a pivoted position. - a reflector , and - at least one light source associated with the reflector ,
A laser diode assembly , comprising: a plurality of laser diodes (106a-c, 402a-c, 504a-c, 602a-c, 702a-c, 802a-c) each configured to emit respective ones of a plurality of laser beams along parallel and nonoverlapping optical axes; a first beam offset plate (BOP) configured to receive a first of the laser beams on a first input surface, the first laser beam having a first input optical axis, the first BOP configured to transmit a first output laser beam that has a first vertical offset from the first input optical axis; and a second BOP configured to receive a second of the laser beams on a second input surface, the second laser beam having a second input optical axis, the second BOP configured to transmit a second output laser beam that has a second vertical offset from the second input optical axis; wherein the first and second BOPs are formed from a single optical component, and characterized in that the first and second BOPs are optimized so that the angle of incidence of each BOP is Brewster's angle, omitting the need for anti-reflection coatings. a plurality of laser diodes (106a-c, 402a-c, 504a-c, 602a-c, 702a-c, 802a-c) each configured to emit respective ones of a plurality of laser beams along parallel and nonoverlapping optical axes; a first beam offset plate (BOP) configured to receive a first of the laser beams on a first input surface, the first laser beam having a first input optical axis, the first BOP configured to transmit a first output laser beam that has a first vertical offset from the first input optical axis; and a second BOP configured to receive a second of the laser beams on a second input surface, the second laser beam having a second input optical axis, the second BOP configured to transmit a second output laser beam that has a second vertical offset from the second input optical axis; wherein the first and second BOPs are formed from a single optical component, and characterized in that the first and second BOPs are optimized so that the angle of incidence of each BOP is Brewster's angle, omitting the need for anti-reflection coatings.
Floor cleaning machine, comprising a chassis , at least one floor processing tool apparatus (166; 60; 168), which holds at least one floor processing tool , and a fixing device for releasably mounting the at least one floor processing tool apparatus on the chassis , with a first fixing device (112; 112'), which is arranged on the at least one floor processing tool apparatus , and with a second fixing device , which is arranged on the chassis , wherein the first fixing device (112; 112') and the second fixing device are adapted to one another, the first fixing device (112; 112') comprises a first abutment region (116; 116') and a second abutment region (124; 124'), the second fixing device comprises a third abutment region for the first abutment region (116; 116') and a fourth abutment region for the second abutment region (124; 124'), and the fixing device has a clamping device (144; 164) for clamping the at least one floor processing tool apparatus to the chassis , wherein the first abutment region (116; 116') and the second abutment region (124; 124') are located opposite one another and face away from one another, and in that the third abutment region and the fourth abutment region are located opposite one another and face toward one another, characterized in that the fourth abutment region is configured as a support region for the at least one floor processing tool apparatus and forms a lower support face in relation to the direction of gravity, and in that the third abutment region and the fourth abutment region are arranged on a transverse support and/or on one or more longitudinal supports of the chassis.
A wearable device , comprising: a screen to display a user interface; a gyroscopic sensing system comprising: an input device to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; the processing circuitry configured to: process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection. a screen to display a user interface; a gyroscopic sensing system comprising: an input device to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; an input device to receive a user input to control the user interface, the input device capable of rotation around one axis of rotation; and a gyroscope sensor coupled to processing circuitry to sense a motion in at least one axis of movement; the processing circuitry configured to: process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection. process an activation signal triggered by rotating the input device to activate the user interface; provide a plurality of selectable options in the user interface in response to the activation signal; and process a rotation input received with the input device to navigate the selectable options in the user interface for selection.
A fastener assembly for mounting a panel to a framework , the fastener assembly comprising: an elongate flexible tie having a proximal end and an opposing distal end; and a clamping block having a tie-receiving channel extending between an inner side and an opposing outer side of the clamping block , wherein the proximal end is fixable to the clamping block , and gripping means adjacent the tie-receiving channel for gripping the tie ; wherein, in use, the inner side of the clamping block abuts the panel and the gripping means grips the tie such that tension in the tie presses the inner side of the clamping block against the panel ; characterised in that the fastener assembly further comprises a hinged piece connected by a hinge to the clamping block (16 116) for pivoting between a closed position in which the hinged piece has an inner surface that substantially overlies the outer side of the clamping block and an open position, wherein a slot in the hinged piece has a form complementary to the cross-section of the tie that provides the gripping means adjacent the tie-receiving channel for gripping the tie and, in the open position, the slot is adjacent to and aligned with the tie-receiving channel in the clamping block . an elongate flexible tie having a proximal end and an opposing distal end; and a clamping block having a tie-receiving channel extending between an inner side and an opposing outer side of the clamping block , wherein the proximal end is fixable to the clamping block , and gripping means adjacent the tie-receiving channel for gripping the tie ; wherein, in use, the inner side of the clamping block abuts the panel and the gripping means grips the tie such that tension in the tie presses the inner side of the clamping block against the panel ; characterised in that the fastener assembly further comprises a hinged piece connected by a hinge to the clamping block (16 116) for pivoting between a closed position in which the hinged piece has an inner surface that substantially overlies the outer side of the clamping block and an open position, wherein a slot in the hinged piece has a form complementary to the cross-section of the tie that provides the gripping means adjacent the tie-receiving channel for gripping the tie and, in the open position, the slot is adjacent to and aligned with the tie-receiving channel in the clamping block .
A hydrogen tank assembly for a vehicle, the hydrogen tank assembly comprising - an inner tank wall that defines a hydrogen tank volume configured for storing cryogenic hydrogen at a predetermined hydrogen pressure; - an outer tank wall that defines a shroud volume which surrounds the inner tank wall ; and - an inert gas source that is fluidly connected to the shroud volume and configured for pressurizing the shroud volume to an inert gas pressure that is smaller than the hydrogen pressure, characterized by an inert gas separator that is configured to separate hydrogen from the inert gas and a recirculation line that is arranged to transport the separated inert gas from the inert gas separator back to the inert gas source . - an inner tank wall that defines a hydrogen tank volume configured for storing cryogenic hydrogen at a predetermined hydrogen pressure; - an outer tank wall that defines a shroud volume which surrounds the inner tank wall ; and - an inert gas source that is fluidly connected to the shroud volume and configured for pressurizing the shroud volume to an inert gas pressure that is smaller than the hydrogen pressure,
Sample holder for an atomic force microscope for holding a sample , comprising: - a sample dish comprising a bottom , and - an opening arranged in said bottom for receiving and holding the sample , characterized in that said opening is a through-opening encompassed by a circumferential first wall of said bottom that is designed to clamp said sample when the sample is received by said opening , wherein said circumferential first wall is at least in sections formed out of a material which expands in contact with water and/or a buffer solution, so that the inner diameter of said opening decreases for clamping the sample when brought into contact with said water and/or buffer solution. - a sample dish comprising a bottom , and - an opening arranged in said bottom for receiving and holding the sample ,