mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic piecing unit of a ring spinning machine comprising: a spindle brake unit , and an actuating means for moving the spindle brake unit of the automatic piecing unit towards a spindle of the ring spinning machine , characterized in that the spindle brake unit , comprises at least two gripper arms adapted to move sideways towards and away from each other in a horizontal linear motion guideway of the spindle brake unit , wherein each of the two gripper arms is connected to one gripping finger adapted to grip a spindle wharve of the spindle of the ring spinning machine to stop rotation of the spindle of the ring spinning machine . a spindle brake unit , and an actuating means for moving the spindle brake unit of the automatic piecing unit towards a spindle of the ring spinning machine , characterized in that the spindle brake unit , comprises at least two gripper arms adapted to move sideways towards and away from each other in a horizontal linear motion guideway of the spindle brake unit , wherein each of the two gripper arms is connected to one gripping finger adapted to grip a spindle wharve of the spindle of the ring spinning machine to stop rotation of the spindle of the ring spinning machine .
A method for operating a Controller Area Network, CAN, device, the method comprising: detecting a transition of a CAN transceiver of the CAN device from a dominant state to a recessive state; and in response to detecting a transition of the CAN transceiver from the dominant state to the recessive state, the method further comprises within a recessive bit duration initiated by the transition of the CAN transceiver from the dominant state to the recessive state: controlling an output impedance of the CAN transceiver to be within a predefined range of an impedance value at the dominant state while a differential driver voltage on a CAN bus connected to the CAN transceiver decreases to a predefined voltage within a first predetermined duration of time (t 0 to t 1 ); and subsequently, increasing the output impedance of the CAN transceiver to a higher value while the differential driver voltage on the CAN bus connected to the CAN transceiver is kept at the predefined voltage within a second predetermined duration of time (t 2 to t 3 ) after the first predetermined duration of time (t 0 to t 1 ). detecting a transition of a CAN transceiver of the CAN device from a dominant state to a recessive state; and in response to detecting a transition of the CAN transceiver from the dominant state to the recessive state, the method further comprises within a recessive bit duration initiated by the transition of the CAN transceiver from the dominant state to the recessive state: controlling an output impedance of the CAN transceiver to be within a predefined range of an impedance value at the dominant state while a differential driver voltage on a CAN bus connected to the CAN transceiver decreases to a predefined voltage within a first predetermined duration of time (t 0 to t 1 ); and subsequently, increasing the output impedance of the CAN transceiver to a higher value while the differential driver voltage on the CAN bus connected to the CAN transceiver is kept at the predefined voltage within a second predetermined duration of time (t 2 to t 3 ) after the first predetermined duration of time (t 0 to t 1 ). controlling an output impedance of the CAN transceiver to be within a predefined range of an impedance value at the dominant state while a differential driver voltage on a CAN bus connected to the CAN transceiver decreases to a predefined voltage within a first predetermined duration of time (t 0 to t 1 ); and subsequently, increasing the output impedance of the CAN transceiver to a higher value while the differential driver voltage on the CAN bus connected to the CAN transceiver is kept at the predefined voltage within a second predetermined duration of time (t 2 to t 3 ) after the first predetermined duration of time (t 0 to t 1 ).
A spectrum management device comprising processing circuitry, the processing circuitry configured to: Determine , in response to a spectrum resource request from each of one or more secondary systems , available spectrum information of each of the one or more secondary systems; Determine , according to spectrum management information from each of the one or more secondary systems, a managed secondary system which is managed by a spectrum coordination device and an unmanaged secondary system which is not managed by the spectrum coordination device among the one or more secondary systems, the spectrum management device being configured to coordinate and optimize spectrum use of each secondary system which it manages within a range of available spectrum resources allocated by the spectrum management device; Determine , based on system information of the managed secondary system, a secondary system interference from which on the managed secondary system exceeds a predetermined threshold among the unmanaged secondary system, as an interfering secondary system; and acquire system information of the unmanaged interfering secondary system for the spectrum coordination device to coordinate spectrum use of the managed secondary system based on the available spectrum information. Determine , in response to a spectrum resource request from each of one or more secondary systems , available spectrum information of each of the one or more secondary systems; Determine , according to spectrum management information from each of the one or more secondary systems, a managed secondary system which is managed by a spectrum coordination device and an unmanaged secondary system which is not managed by the spectrum coordination device among the one or more secondary systems, the spectrum management device being configured to coordinate and optimize spectrum use of each secondary system which it manages within a range of available spectrum resources allocated by the spectrum management device; Determine , based on system information of the managed secondary system, a secondary system interference from which on the managed secondary system exceeds a predetermined threshold among the unmanaged secondary system, as an interfering secondary system; and acquire system information of the unmanaged interfering secondary system for the spectrum coordination device to coordinate spectrum use of the managed secondary system based on the available spectrum information.
A particulate matter sensor device for detecting and/or characterising particulate matter in a flow of an aerosol sample guided through the particulate matter sensor device , comprising: - an enclosure , the enclosure comprising a flow inlet and a flow outlet , and the enclosure being arranged and configured for defining a flow channel for guiding the flow of the aerosol sample through the particulate matter sensor device from the flow inlet to the flow outlet ; - a radiation source arranged and configured to emit radiation at least partially into the flow channel for interaction of the radiation with at least some of the particulate matter in the flow of the aerosol sample; - a radiation detector arranged and configured to detect at least part of said radiation after interaction with the particulate matter; and - a flow modifying device (511, 511a, 512, 513, 514; 521) configured to at least locally modify the flow of the aerosol sample, the flow modifying device (511, 511a, 512, 513, 514; 521) comprising or consisting of at least one additional flow opening for creating at least one additional flow into the flow channel , characterised in that the particulate matter sensor device comprises at least one first recess arranged in said flow channel and configured for receiving the radiation source and/or the radiation detector and/or a second recess arranged and configured for receiving a beam stopper , and at least one of said at least one additional flow opening is arranged in the first recess and/or in the second recess , respectively, such that at least one of said at least one additional flow enters the flow channel from the first recess and/or from the second recess , respectively. - an enclosure , the enclosure comprising a flow inlet and a flow outlet , and the enclosure being arranged and configured for defining a flow channel for guiding the flow of the aerosol sample through the particulate matter sensor device from the flow inlet to the flow outlet ; - a radiation source arranged and configured to emit radiation at least partially into the flow channel for interaction of the radiation with at least some of the particulate matter in the flow of the aerosol sample; - a radiation detector arranged and configured to detect at least part of said radiation after interaction with the particulate matter; and - a flow modifying device (511, 511a, 512, 513, 514; 521) configured to at least locally modify the flow of the aerosol sample, the flow modifying device (511, 511a, 512, 513, 514; 521) comprising or consisting of at least one additional flow opening for creating at least one additional flow into the flow channel ,
Ground sill system for a slidable leaf as a sliding leaf or slidable lift-and-slide leaf of a window or door , with an accommodation slot of a ground sill profile of ground sill system for accommodating a guide web for the running rollers of running rails comprising leaf-side running carriages , which is arranged on the upper side of the ground sill profile , opposite the sliding leaf , wherein the guide web can be engaged over its entire length into the accommodation slot in positive or non-positive fit, characterized in that at least one adapter profile is provided, which, with a convex configured connection means on its under side , can engage into the accommodation slot of the ground sill profile in positive or non-positive fit, that the adapter profile comprises on its upper side an accommodation slot congruently configured to the accommodation slot of the ground sill profiles , wherein the accommodation slot of the adapter profile accommodates on the upper side the guide web , and, together with the upper side , forms a flush-surface barrier-free contact, such that the guide web can optionally be inserted into the accommodation slot of the ground sill profile or into the accommodation slot of the adapter profile , wherein, on the respective sides of the adapter profile , a visible contact surface is formed, on which, towards the inner space side , an inner floor surface can be located, and towards the outer space side , optionally, different widening profiles can be located, for the crossing of the outer floor surface , preferably for barrier-free crossing.
A data transmission method, comprising: Determining (S101), by a first communications device , N time-frequency resources, wherein any two of the N time-frequency resources are nonconsecutive in at least one of a time domain and a frequency domain; each of the N time-frequency resources is smaller than a time-frequency resource required for transmitting to-be-transmitted data, and a sum of the N time-frequency resources is greater than or equal to the time-frequency resource required for transmitting the to-be-transmitted data; and N is a positive integer greater than or equal to 2; Sending (S102), by the first communications device , first indication information on the N time-frequency resources, wherein the first indication information is used to indicate that the N time-frequency resources are used by the first communications device to send the to-be-transmitted data; and Sending (S103), by the first communications device , the to-be-transmitted data on the N time-frequency resources; characterized in that the first indication information is sent on each of the N time-frequency resources and comprises an identifier of the first communications device and an indicator; and the identifier of the first communications device is used to indicate that the N time-frequency resources are used by the first communications device to send the to-be-transmitted data; and an indicator sent on a last time-frequency resource in the N time-frequency resources is different from an indicator sent on a non-last time-frequency resource in the N time-frequency resources; wherein the indicator is one bit. Determining (S101), by a first communications device , N time-frequency resources, wherein any two of the N time-frequency resources are nonconsecutive in at least one of a time domain and a frequency domain; each of the N time-frequency resources is smaller than a time-frequency resource required for transmitting to-be-transmitted data, and a sum of the N time-frequency resources is greater than or equal to the time-frequency resource required for transmitting the to-be-transmitted data; and N is a positive integer greater than or equal to 2; Sending (S102), by the first communications device , first indication information on the N time-frequency resources, wherein the first indication information is used to indicate that the N time-frequency resources are used by the first communications device to send the to-be-transmitted data; and Sending (S103), by the first communications device , the to-be-transmitted data on the N time-frequency resources; characterized in that the first indication information is sent on each of the N time-frequency resources and comprises an identifier of the first communications device and an indicator; and the identifier of the first communications device is used to indicate that the N time-frequency resources are used by the first communications device to send the to-be-transmitted data; and an indicator sent on a last time-frequency resource in the N time-frequency resources is different from an indicator sent on a non-last time-frequency resource in the N time-frequency resources; wherein the indicator is one bit.
A driver module for a lighting fixture having an array of LEDs and a control module separate from the driver module, the driver module comprising: a communication interface coupled to a communication bus ; a power port ( PWR PORT); current control circuitry configured to: bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface , wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and rectifier and power factor correction, PFC, circuitry and conversion circuitry adapted to convert an AC power input signal into at least one DC power signal that is used to supply the power to the current control circuitry within the driver module, the control module via the power port, and the array of LEDs. a communication interface coupled to a communication bus ; a power port ( PWR PORT); current control circuitry configured to: bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface , wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and bidirectionally communicate with the control module over the communication bus via the communication interface; provide operational data of the driver module to the control module via the communication interface , wherein the operational data comprises at least one of driver module identifying information, ambient light information, or ambient temperature information; receive an instruction via the communication interface from the control module, wherein the instruction is provided at least in part based on the operational data of the driver module; and drive the array of LEDs in response to the instruction; and rectifier and power factor correction, PFC, circuitry and conversion circuitry adapted to convert an AC power input signal into at least one DC power signal that is used to supply the power to the current control circuitry within the driver module, the control module via the power port, and the array of LEDs.
A carrier for blood component adsorption comprising a water-insoluble carrier having a surface to which a functional group(s) containing a silyl group and an amino group is/are introduced, wherein the silicon atom of said silyl group and the nitrogen atom of said amino group are linked together by an alkyl chain and said silyl group is terminally positioned in the functional group, wherein said water-insoluble carrier is selected from the group consisting of polyolefin, polyester, fluorinated polymer, polysulfone-based polymer, polyamide, polyether, polyphenylene sulfide, polystyrene, acrylic polymer, and material prepared by blending or alloying of these polymers, characterized in that the water-insoluble carrier is functionalized with a reactive functional group(s) before introducing the functional group(s) containing a silyl group and an amino group to the carrier, wherein the reactive functional group(s) is/are selected from the group consisting of halomethyl group, haloacetyl group, haloacetamidomethyl group, halogenated alkyl group.
Positioning device for rotatably and rectilinearly positioning a card , with respect to a treatment unit with an axis of treatment (L) in the z direction comprising a card holder for holding a card in a fixed position, wherein the card holder defines a virtual card surface plane coincident with the surface of a card facing the treatment unit once the card is placed in the card holder and wherein the card holder defines a virtual card center point coincident with the intersection point of the axis of treatment (L) and the virtual card surface plane , a manipulator to which the card holder is attached, wherein the manipulator comprises a cardanic element with a first axis of rotation (A1) and a second axis of rotation (A2) and a virtual pivot point being the intersection of the first and the second axis of rotation (A1, A2), characterized in that the positioning device further comprises an x-y shifting unit configured to move the card holder in the x-y plane. a card holder for holding a card in a fixed position, wherein the card holder defines a virtual card surface plane coincident with the surface of a card facing the treatment unit once the card is placed in the card holder and wherein the card holder defines a virtual card center point coincident with the intersection point of the axis of treatment (L) and the virtual card surface plane , a manipulator to which the card holder is attached, wherein the manipulator comprises a cardanic element with a first axis of rotation (A1) and a second axis of rotation (A2) and a virtual pivot point being the intersection of the first and the second axis of rotation (A1, A2), characterized in that the positioning device further comprises an x-y shifting unit configured to move the card holder in the x-y plane.
2K coating kit comprising an epoxy resin component and a hardener component containing at least one epoxy resin hardener and single-wall carbon nanotubes and/or multi-wall carbon nanotubes, preferably single-wall carbon nanotubes and particularly preferably single-wall carbon nanotubes and no multi-wall carbon nanotubes. an epoxy resin component and a hardener component containing at least one epoxy resin hardener and single-wall carbon nanotubes and/or multi-wall carbon nanotubes, preferably single-wall carbon nanotubes and particularly preferably single-wall carbon nanotubes and no multi-wall carbon nanotubes.
A hydroglycolic composition comprising: a) a first organo-silanol of the following general formula (I): X-Si(OH) 3 (I) wherein the radical X is a linear or branched C 1 -C 4 alkyl group, preferably C 1 -C 2 , possibly substituted with at least one hydroxyl group, with preferably X being a methyl group; b) a second organo-silanol of the following general formula (III): X-Si(OH) 2 -O-CH(R 1 )-CH(R 2 )(R 3 ) (III) wherein: - the radical X is a linear or branched C 1 -C 4 alkyl group, preferably C 1 -C 2 , possibly substituted with at least one hydroxyl group, with preferably X being a methyl group; - R 1 is -H or -CH 3 ; - R 2 is -H, -OH, or-CH 3 ; - R 3 is -CH 3 , -CH 2 -CH 3 , -CH 2 OH, -CH(CH 3 )OH, -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 2 -OH, or -C(CH 3 )(CH 3 )-OH; and c) an organo-silanol(s) stabilising agent, suitable for allowing the formation of a molecular complex with at least one organo-silanol via the establishment of at least one weak chemical bond, preferably at least one hydrogen bond, with said at least one organo-silanol. a) a first organo-silanol of the following general formula (I): X-Si(OH) 3 (I) wherein the radical X is a linear or branched C 1 -C 4 alkyl group, preferably C 1 -C 2 , possibly substituted with at least one hydroxyl group, with preferably X being a methyl group; b) a second organo-silanol of the following general formula (III): X-Si(OH) 2 -O-CH(R 1 )-CH(R 2 )(R 3 ) (III) wherein: - the radical X is a linear or branched C 1 -C 4 alkyl group, preferably C 1 -C 2 , possibly substituted with at least one hydroxyl group, with preferably X being a methyl group; - R 1 is -H or -CH 3 ; - R 2 is -H, -OH, or-CH 3 ; - R 3 is -CH 3 , -CH 2 -CH 3 , -CH 2 OH, -CH(CH 3 )OH, -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 2 -OH, or -C(CH 3 )(CH 3 )-OH; and - the radical X is a linear or branched C 1 -C 4 alkyl group, preferably C 1 -C 2 , possibly substituted with at least one hydroxyl group, with preferably X being a methyl group; - R 1 is -H or -CH 3 ; - R 2 is -H, -OH, or-CH 3 ; - R 3 is -CH 3 , -CH 2 -CH 3 , -CH 2 OH, -CH(CH 3 )OH, -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 3 , -CH 2 -CH 2 -CH 2 -CH 2 -OH, or -C(CH 3 )(CH 3 )-OH; and c) an organo-silanol(s) stabilising agent, suitable for allowing the formation of a molecular complex with at least one organo-silanol via the establishment of at least one weak chemical bond, preferably at least one hydrogen bond, with said at least one organo-silanol.
A genetically engineered bacterium comprising: (a) one or more gene(s) encoding a phenylalanine ammonia lyase (PAL), wherein the gene(s) encoding the PAL is operably linked to (i) a thermoregulated promoter that is not associated with the PAL gene in nature, or (ii) an isopropyl β-D-1-thiogalactopyranoside (IPTG) inducible promoter; (b) one or more gene(s) encoding a phenylalanine transporter capable of transporting phenylalanine into bacterial cells, wherein the gene(s) encoding the phenylalanine transporter is operably linked to an inducible promoter that is not associated with the phenylalanine transporter gene in nature. (a) one or more gene(s) encoding a phenylalanine ammonia lyase (PAL), wherein the gene(s) encoding the PAL is operably linked to (i) a thermoregulated promoter that is not associated with the PAL gene in nature, or (ii) an isopropyl β-D-1-thiogalactopyranoside (IPTG) inducible promoter; (b) one or more gene(s) encoding a phenylalanine transporter capable of transporting phenylalanine into bacterial cells, wherein the gene(s) encoding the phenylalanine transporter is operably linked to an inducible promoter that is not associated with the phenylalanine transporter gene in nature.