mhurhangee/ep-ind-claims huggingface dataset:
A linker for nucleic acid solid phase synthesis, comprising a compound represented by the following formula wherein X 1 and X 2 are each independently a hydroxy-protecting group that is dissociated by acid, L 1 and L 2 are each independently a linkage moiety that is cleaved by alkali, R 1 - R 6 are each independently a hydrogen atom; a C 1-6 alkyl group optionally substituted by a C 1-6 alkoxy group; a C 1-6 alkoxy group; a formyl group, a carboxy group, a C 1-6 alkyl-carbonyl group, or a C 1-6 alkoxy-carbonyl group; a mono or di-C 1-6 alkylamino group; or a halogen atom, or R 2 and R 5 are joined to form, together with the carbon atom bonded thereto, a 3- to 8-membered carbocycle or heterocycle each optionally substituted by a substituent selected from an oxo group, a C 1-6 alkyl group optionally substituted by a C 1-6 alkoxy group, and a phenyl group optionally substituted by a C 1-6 alkoxy-carbonyl group. X 1 and X 2 are each independently a hydroxy-protecting group that is dissociated by acid, L 1 and L 2 are each independently a linkage moiety that is cleaved by alkali, R 1 - R 6 are each independently a hydrogen atom; a C 1-6 alkyl group optionally substituted by a C 1-6 alkoxy group; a C 1-6 alkoxy group; a formyl group, a carboxy group, a C 1-6 alkyl-carbonyl group, or a C 1-6 alkoxy-carbonyl group; a mono or di-C 1-6 alkylamino group; or a halogen atom, or R 2 and R 5 are joined to form, together with the carbon atom bonded thereto, a 3- to 8-membered carbocycle or heterocycle each optionally substituted by a substituent selected from an oxo group, a C 1-6 alkyl group optionally substituted by a C 1-6 alkoxy group, and a phenyl group optionally substituted by a C 1-6 alkoxy-carbonyl group.
A balloon catheter comprising: an outer tube shaft having a lumen; an inner tube shaft located in the lumen of the outer tube shaft; and a balloon fixed to a distal side of the inner tube shaft and a distal side of the outer tube shaft, characterized in that the inner tube shaft has a first layer and a second layer located on an inner surface side of the first layer, the outer tube shaft is fusion-bonded to the first layer and recessed toward the inner tube shaft side, wherein the outer tube shaft and the inner tube shaft have a fusion-bonded portion in a portion fusion-bonded in a state where the outer tube shaft is recessed toward the inner tube shaft side, the first layer is formed of a material having a higher optical absorption property than the outer tube shaft and the second layer, and the second layer is formed of a material having a melting point higher than that of the first layer, wherein the inner tube shaft has a third layer between the first layer and the second layer, and the third layer has a higher affinity for the second layer than the first layer, wherein the third layer is formed of a material having a lower optical absorption property than the first layer. an outer tube shaft having a lumen; an inner tube shaft located in the lumen of the outer tube shaft; and a balloon fixed to a distal side of the inner tube shaft and a distal side of the outer tube shaft, characterized in that the inner tube shaft has a first layer and a second layer located on an inner surface side of the first layer, the outer tube shaft is fusion-bonded to the first layer and recessed toward the inner tube shaft side, wherein the outer tube shaft and the inner tube shaft have a fusion-bonded portion in a portion fusion-bonded in a state where the outer tube shaft is recessed toward the inner tube shaft side, the first layer is formed of a material having a higher optical absorption property than the outer tube shaft and the second layer, and the second layer is formed of a material having a melting point higher than that of the first layer, wherein the inner tube shaft has a third layer between the first layer and the second layer, and the third layer has a higher affinity for the second layer than the first layer, wherein the third layer is formed of a material having a lower optical absorption property than the first layer.
Vehicle steering wheel with a steering wheel body, a movable element held movably on the steering wheel body which can be pressed down against the force of a return element against the steering wheel body, and with a horn contact which is closed by the pressing down of the movable element, wherein the horn contact has two cable cores (44a, 44b) which are held in a holding element, and that a contact element (36a, 36b) extends to each of the cable cores (44a, 44b) and contacts the same, which contact element is likewise held by the holding element, wherein the two contact elements (32a, 32b) come into electrical contact with each other by the pressing down of the movable element, and wherein opposite the holding element a second component of the horn contact is provided, which on pressing down of the movable element presses on at least one of the contact elements (32a, 32b), characterized in that the second component is constructed as a guide bolt which serves for the positioning of a gas bag module with respect to the steering wheel body, said guide bolt 60 being guided in a guideway on the steering wheel side, said guideway being constructed in a U-shape and having a first arm, a second arm extending from the holding element and an elastic arm extending from the upper end of the second arm into the interior of the U, wherein this elastic arm presses the guide bolt against the first arm.
A communication method, wherein the method comprises: receiving, by a terminal device, downlink control information, DCI, from a network device on a first downlink carrier, the DCI indicating an uplink carrier to be used by the terminal device to send an uplink transmission to the network device is a first uplink carrier or a second uplink carrier; the DCI for indicating the first uplink carrier and the DCI for indicating the second uplink carrier having equal bit quantity; wherein the first downlink carrier, the first uplink carrier, and the second uplink carrier belong to a same cell; and sending, by the terminal device, the uplink transmission on the first uplink carrier or on the second uplink carrier to the network device based on the carrier indicated by the DCI; wherein the DCI comprises an indicator field indicating the carrier to be used for sending the uplink transmission; the first uplink carrier is a new radio time division duplex uplink carrier when a value of the indicator field is 0, and the second uplink carrier is a supplementary uplink carrier when a value of the indicator field is 1. receiving, by a terminal device, downlink control information, DCI, from a network device on a first downlink carrier, the DCI indicating an uplink carrier to be used by the terminal device to send an uplink transmission to the network device is a first uplink carrier or a second uplink carrier; the DCI for indicating the first uplink carrier and the DCI for indicating the second uplink carrier having equal bit quantity; wherein the first downlink carrier, the first uplink carrier, and the second uplink carrier belong to a same cell; and sending, by the terminal device, the uplink transmission on the first uplink carrier or on the second uplink carrier to the network device based on the carrier indicated by the DCI; wherein the DCI comprises an indicator field indicating the carrier to be used for sending the uplink transmission; the first uplink carrier is a new radio time division duplex uplink carrier when a value of the indicator field is 0, and the second uplink carrier is a supplementary uplink carrier when a value of the indicator field is 1.
An information processing device connected to a plurality of networks (10,20,30) and performing information processing, the networks (10,20,30) including a control network connected to a control device in a mobile object, an information network connected to an information device in the mobile object, and an external network connected to an external device outside of the mobile object, the information processing device comprising: firewalls (62,63,64) each connected to one of the networks (10,20,30), and a processor connected to each network (10,20,30) via the corresponding firewall (62,63,64), wherein the information processing device is configured to isolate at least the control network from the other networks (20,30), wherein each firewall (62,63,64) is configured to permit communication only between the processor and the network (10,20,30) to which the firewall (62,63,64) is connected, characterized in that the processor is configured to receive, from a network (20,30) except the control network, a request signal that requests control information about the control device, the control information being acquired from the control network, the processor is configured to acquire from the control network the control information requested in the request signal, the processor is configured to generate a response signal responsive to the request signal, the response signal containing the acquired control information, and the processor is configured to transmit the response signal to the network (20,30) that is the transmission source of the request signal. firewalls (62,63,64) each connected to one of the networks (10,20,30), and a processor connected to each network (10,20,30) via the corresponding firewall (62,63,64), wherein the information processing device is configured to isolate at least the control network from the other networks (20,30),
A method comprising: receiving an input signal representing audio captured by a microphone of an active noise reduction, ANR, headphone; processing, by one or more processing devices, a portion of the input signal to determine a noise level in the input signal; determining that the noise level exceeds a threshold condition responsive to determining that the noise level exceeds the threshold condition, generating an output signal in which ANR processing on the input signal is controlled in accordance with a target loudness level (402; 402a,b) of the output signal, wherein generating the output signal comprises: processing the input signal in a first signal path comprising one or more ANR filters to generate a first signal; processing the input signal in a second signal path, disposed in parallel to the first signal path, to generate a second signal, the second signal path comprising a first variable gain amplifier, VGA; and generating the output signal by combining the first signal and the second signal in a weighted combination; and driving an acoustic transducer of the ANR headphone using the output signal. receiving an input signal representing audio captured by a microphone of an active noise reduction, ANR, headphone; processing, by one or more processing devices, a portion of the input signal to determine a noise level in the input signal; determining that the noise level exceeds a threshold condition responsive to determining that the noise level exceeds the threshold condition, generating an output signal in which ANR processing on the input signal is controlled in accordance with a target loudness level (402; 402a,b) of the output signal, wherein generating the output signal comprises: processing the input signal in a first signal path comprising one or more ANR filters to generate a first signal; processing the input signal in a second signal path, disposed in parallel to the first signal path, to generate a second signal, the second signal path comprising a first variable gain amplifier, VGA; and generating the output signal by combining the first signal and the second signal in a weighted combination; and processing the input signal in a first signal path comprising one or more ANR filters to generate a first signal; processing the input signal in a second signal path, disposed in parallel to the first signal path, to generate a second signal, the second signal path comprising a first variable gain amplifier, VGA; and generating the output signal by combining the first signal and the second signal in a weighted combination; and driving an acoustic transducer of the ANR headphone using the output signal.
A coloured weatherstrip for sealing a window or a door of a building, the weatherstrip comprising attachment means (15; 30) for attaching the weatherstrip (10; 110; 210) to a window frame or a door frame; and a resilient sealing body (16; 16a, 16b), the resilient sealing body (16; 16a, 16b) having a sealing surface (18; 18a, 18b) for sealing against an opposing structure, the resilient sealing body (16; 16a, 16b) having a cell rubber core comprising carbon black; and a coloured cell rubber sealing layer, extruded over the core to form said sealing surface (18; 18a, 18b), the coloured cell rubber sealing layer comprising a filler different from carbon black, the weatherstrip (10; 110; 210) being characterized by the cell rubber core being a low-density closed-cell rubber core comprising at least 10% by weight of carbon black; and the coloured cell rubber sealing layer being a low-density closed-cell rubber sealing layer comprising at least at least 10% by weight of the filler different from carbon black, wherein low-density cell rubber is defined as cell rubber having a density of less than about 0,40 kg/dm3.
Joint prosthesis with a first prosthesis component and a second prosthesis component (14, 18) which interact via joint surfaces and form a sliding joint, and with a joint capsule which extends from the first prosthesis component to the second prosthesis component (14, 18) and surrounds the sliding joint, characterized in that in a surface region of the joint capsule a double wall is provided in which an inner layer and an outer layer are displaceable parallel to each other.
A method, in a network deivce, for wireless communication, the method comprising: communicating a first signal over a first carrier according to a numerology from a first plurality of numerologies, the numerology being a combination or subset of a transmission time interval, a symbol duration, a cyclic prefix length, and a sub-carrier spacing; and communicating a second signal over a second carrier according to a numerology from a second plurality of numerologies, the numerology being a combination or subset of a transmission time interval, a symbol duration, a cyclic prefix length, and a sub-carrier spacing, wherein the first plurality of numerologies includes a first numerology and the second plurality of numerologies includes a second numerology, the first numerology and the second numerology having the same sub-carrier spacing; and the second plurality of numerologies includes a third numerology that is not included in the first plurality of numerologies; and the first carrier and the first plurality of numerologies are associated with a first range of carrier center frequencies, and the second carrier and the second plurality of numerologies are associated with a second range of carrier center frequencies different from the first range of carrier center frequencies, characterised in that the same subcarrier spacing is equal to double the sub-carrier spacing of one other numerology from the first plurality of numerologies and equal to half the sub-carrier spacing of one other numerology from the second plurality of numerologies. communicating a first signal over a first carrier according to a numerology from a first plurality of numerologies, the numerology being a combination or subset of a transmission time interval, a symbol duration, a cyclic prefix length, and a sub-carrier spacing; and communicating a second signal over a second carrier according to a numerology from a second plurality of numerologies, the numerology being a combination or subset of a transmission time interval, a symbol duration, a cyclic prefix length, and a sub-carrier spacing, wherein the first plurality of numerologies includes a first numerology and the second plurality of numerologies includes a second numerology, the first numerology and the second numerology having the same sub-carrier spacing; and the second plurality of numerologies includes a third numerology that is not included in the first plurality of numerologies; and the first carrier and the first plurality of numerologies are associated with a first range of carrier center frequencies, and the second carrier and the second plurality of numerologies are associated with a second range of carrier center frequencies different from the first range of carrier center frequencies, characterised in that the same subcarrier spacing is equal to double the sub-carrier spacing of one other numerology from the first plurality of numerologies and equal to half the sub-carrier spacing of one other numerology from the second plurality of numerologies.
An optical lens arrangement for a head-mounted device comprising: a first Fresnel lens element defining a flat surface side and an opposite faceted surface side defining wedge faces and draft faces, the flat surface side intended for facing towards the eye of a user and the opposite faceted surface side intended for facing away from the eye of the user; and characterised in: a second plano-convex aspheric lens element defining a flat surface side and an opposite convex curved surface side, the flat surface side facing towards the faceted side of the first Fresnel lens element, the opposite curved surface side facing away from the first Fresnel lens element.
A method comprising: illuminating, with a lighting system disposed inside a housing of a multi-leaf collimator MLC, leaves of the MLC with a first light; receiving ambient light inside the housing of the MLC through an aperture of the MLC; capturing, using an imaging system having optics situated inside the housing of the MLC, a first image of the leaves of the MLC illuminated with the first light and the ambient light; suppressing, by a processing device, the effect of ambient light in the first image using a reference image of the leaves of the MLC illuminated by the internal lighting system and captured using the imaging system in the absence of ambient light to generate a second image of the leaves of the MLC; and detecting a feature of the leaves of the MLC in the second image. illuminating, with a lighting system disposed inside a housing of a multi-leaf collimator MLC, leaves of the MLC with a first light; receiving ambient light inside the housing of the MLC through an aperture of the MLC; capturing, using an imaging system having optics situated inside the housing of the MLC, a first image of the leaves of the MLC illuminated with the first light and the ambient light; suppressing, by a processing device, the effect of ambient light in the first image using a reference image of the leaves of the MLC illuminated by the internal lighting system and captured using the imaging system in the absence of ambient light to generate a second image of the leaves of the MLC; and detecting a feature of the leaves of the MLC in the second image.
A method for applying a pattern on a mask layer, said method comprising: - obtaining an image file representing pixels with a first pixel size (p; p1) in a first direction parallel to an edge of the pixel, and a second pixel size (p; p2) in a second direction perpendicular to the first direction, wherein the first and second pixel size are the same (p) or different (p1, p2); - treating the mask layer such that a plurality of areas with altered physical properties are created in the mask layer, said plurality of areas corresponding to a plurality of pixels of the image file, wherein the treatment is done such that a first and/or a second area size (h; h1, h2) of an area of said plurality of areas, seen in said first and/or said second direction, is smaller than the first and/or second pixel size (p; p1, p2), respectively; - wherein the method is performed without manipulating the image file for obtaining a surface screen pattern on the mask. - obtaining an image file representing pixels with a first pixel size (p; p1) in a first direction parallel to an edge of the pixel, and a second pixel size (p; p2) in a second direction perpendicular to the first direction, wherein the first and second pixel size are the same (p) or different (p1, p2); - treating the mask layer such that a plurality of areas with altered physical properties are created in the mask layer, said plurality of areas corresponding to a plurality of pixels of the image file, wherein the treatment is done such that a first and/or a second area size (h; h1, h2) of an area of said plurality of areas, seen in said first and/or said second direction, is smaller than the first and/or second pixel size (p; p1, p2), respectively; - wherein the method is performed without manipulating the image file for obtaining a surface screen pattern on the mask.
A parts feeder of vibration type for sequentially delivering a plurality of components, comprising: a guide surface on which the components put from an upper part of the parts feeder is transferred in a circumferential direction; and a component delivery path on which the components are arranged downward from above in a constant direction to be spirally delivered, wherein the component delivery path includes dividing paths (13a, 13b) in plural lines which serve to divide the components into a predetermined number of lines at an upstream side of the component delivery path, and components arranging and selecting means provided in each of the dividing paths (13a, 13b), characterized in that the dividing paths (13a, 13b) are joined into one line at a downstream side of the component delivery path. a guide surface on which the components put from an upper part of the parts feeder is transferred in a circumferential direction; and a component delivery path on which the components are arranged downward from above in a constant direction to be spirally delivered, wherein the component delivery path includes dividing paths (13a, 13b) in plural lines which serve to divide the components into a predetermined number of lines at an upstream side of the component delivery path, and components arranging and selecting means provided in each of the dividing paths (13a, 13b), characterized in that the dividing paths (13a, 13b) are joined into one line at a downstream side of the component delivery path.
A multi-fibre optical probe for in-line spectroscopic monitoring of high concentration mediums comprising; at least one light detection fibre wherein each light detection fibre is for receiving light at a light receiving end, and at least two illumination fibres for emitting light from a light emitting end; wherein the number of illumination fibres is equal to or greater than the number of light detection fibres, and the light emitting ends of each of the illumination fibres are each independently positioned 50 microns or less from the light receiving end of at least one light detection fibre; characterised in that the multi-fibre optical probe does not comprise a window between and/or in front of any of the light emitting ends of the illumination fibres and any of the light receiving ends of the light detection fibres. at least one light detection fibre wherein each light detection fibre is for receiving light at a light receiving end, and at least two illumination fibres for emitting light from a light emitting end; wherein the number of illumination fibres is equal to or greater than the number of light detection fibres, and the light emitting ends of each of the illumination fibres are each independently positioned 50 microns or less from the light receiving end of at least one light detection fibre; characterised in that the multi-fibre optical probe does not comprise a window between and/or in front of any of the light emitting ends of the illumination fibres and any of the light receiving ends of the light detection fibres.