mhurhangee/patent-ind-claim-en huggingface dataset:
A detergent box assembly, comprising: a housing mechanism , a material box mechanism , an ejection mechanism , and a locking mechanism, wherein the housing mechanism is provided with a first accommodation cavity which is configured to accommodate the material box mechanism ; the ejection mechanism is separately coupled to the material box mechanism and the locking mechanism; and the locking mechanism is separately coupled to the housing mechanism and the material box mechanism , and the locking mechanism comprises a track , a track switch , and an actuating assembly , wherein the track comprises a locking end and a releasing end ; the track switch comprises a direction changing portion and a guide portion , the guide portion configured to slide along the track , and the direction changing portion configured to adjust a deflection angle of the guide portion in response to a sliding position of the guide portion on the track ; and the actuating assembly comprises a sliding member , which is coupled to the ejection mechanism , the track switch , and the material box mechanism separately, and is configured to be driven by the ejection mechanism to drive the material box mechanism to move relative to the housing mechanism ; characterized in that the direction changing portion is connected to the sliding member and is rotatable about a first rotation axis (A) relative to the sliding member , wherein the first rotation axis (A) is approximately perpendicular to a plane in which the track is located. the housing mechanism is provided with a first accommodation cavity which is configured to accommodate the material box mechanism ; the ejection mechanism is separately coupled to the material box mechanism and the locking mechanism; and the locking mechanism is separately coupled to the housing mechanism and the material box mechanism , and the locking mechanism comprises a track , a track switch , and an actuating assembly , wherein the track comprises a locking end and a releasing end ; the track switch comprises a direction changing portion and a guide portion , the guide portion configured to slide along the track , and the direction changing portion configured to adjust a deflection angle of the guide portion in response to a sliding position of the guide portion on the track ; and the actuating assembly comprises a sliding member , which is coupled to the ejection mechanism , the track switch , and the material box mechanism separately, and is configured to be driven by the ejection mechanism to drive the material box mechanism to move relative to the housing mechanism ; characterized in that the direction changing portion is connected to the sliding member and is rotatable about a first rotation axis (A) relative to the sliding member , wherein the first rotation axis (A) is approximately perpendicular to a plane in which the track is located.
A method for detecting a fault (F) of a transmission line in a power system comprising at least one of an extreme weak system and an extreme strong system , the method comprising: obtaining (S102) travelling wave polarities from two terminals of the transmission line during occurrence of the fault (F), the travelling wave polarities being defined by two current polarities ( Δi 1 , Δi 2 ) and two voltage polarities ( Δu 1 , Δu 2 ); determining (S104) some of the obtained travelling wave polarities to be detectable and some of the obtained travelling wave polarities to be non-detectable; and detecting (S106) the fault (F) to be internal based on the detectable travelling wave polarities and the non-detectable travelling wave polarities. obtaining (S102) travelling wave polarities from two terminals of the transmission line during occurrence of the fault (F), the travelling wave polarities being defined by two current polarities ( Δi 1 , Δi 2 ) and two voltage polarities ( Δu 1 , Δu 2 ); determining (S104) some of the obtained travelling wave polarities to be detectable and some of the obtained travelling wave polarities to be non-detectable; and detecting (S106) the fault (F) to be internal based on the detectable travelling wave polarities and the non-detectable travelling wave polarities.
An information processing method, the method performed by a terminal device and comprising: encoding uplink control information, UCI, to obtain coded bits of the UCI, wherein the UCI comprises hybrid automatic repeat request-acknowledgment HARQ-ACK information; and encoding data to obtain coded bits of the data; multiplexing the coded bits of the UCI and the coded bits of the data to obtain a multiplexed bit sequence, wherein the coded bits of the HARQ-ACK information are discontinuously distributed in the multiplexed bit sequence; and sending a physical uplink shared channel PUSCH carrying the multiplexed bit sequence to a network device, wherein the PUSCH occupies one symbol in time domain and a length of a transmission time interval TTI of the UCI is less than or equal to 0.5 millisecond. encoding uplink control information, UCI, to obtain coded bits of the UCI, wherein the UCI comprises hybrid automatic repeat request-acknowledgment HARQ-ACK information; and encoding data to obtain coded bits of the data; multiplexing the coded bits of the UCI and the coded bits of the data to obtain a multiplexed bit sequence, wherein the coded bits of the HARQ-ACK information are discontinuously distributed in the multiplexed bit sequence; and sending a physical uplink shared channel PUSCH carrying the multiplexed bit sequence to a network device, wherein the PUSCH occupies one symbol in time domain and a length of a transmission time interval TTI of the UCI is less than or equal to 0.5 millisecond.
A system for placing a valve implant and for assessing outflow tract obstruction of a heart of a subject, the system comprising: - a geometrical model providing unit for providing a geometrical model of the heart, - a volumetric image providing unit for providing a volumetric image of the heart, - a first geometrical model adaptation unit for adapting the geometrical model to the volumetric image to obtain an adapted geometrical model , - a second geometrical model adaptation unit for providing an implant model of the implant and for constructing the implant model into the adapted geometrical model to obtain an enhanced adapted geometrical model , - a trajectory curve determination unit for determining a trajectory curve through an outflow tract from at least one of the adapted geometrical model and the enhanced adapted geometrical model , and - an outflow tract obstruction assessing unit for assessing outflow tract obstruction based on the adapted geometrical model , the enhanced adapted geometrical model and the trajectory curve , wherein the trajectory curve approximates a center line through the outflow tract and comprises an interpolation, such as an interpolating spline curve, between anatomical landmarks, wherein the anatomical landmarks include the center of the aortic valve plane , a center of the extruded mitral valve plane and the apex , wherein the anatomical landmarks are comprised in the geometrical model and/or determined based on the geometrical model. - a geometrical model providing unit for providing a geometrical model of the heart, - a volumetric image providing unit for providing a volumetric image of the heart, - a first geometrical model adaptation unit for adapting the geometrical model to the volumetric image to obtain an adapted geometrical model , - a second geometrical model adaptation unit for providing an implant model of the implant and for constructing the implant model into the adapted geometrical model to obtain an enhanced adapted geometrical model , - a trajectory curve determination unit for determining a trajectory curve through an outflow tract from at least one of the adapted geometrical model and the enhanced adapted geometrical model , and - an outflow tract obstruction assessing unit for assessing outflow tract obstruction based on the adapted geometrical model , the enhanced adapted geometrical model and the trajectory curve , wherein
An acoustic treatment panel intended to be disposed on at least one wall of a turbojet engine in contact with a fluid flow, the panel comprising a first plate , a second plate having a first face intended to be in contact with a fluid flow (F, F P , F S ) and a second face opposite the first plate , and a plurality of cavities mounted between said first plate and the second face of the second plate , the cavities opening out onto the first plate on the one hand and onto the second face of the second plate on the other hand, and the second plate having a thickness (e) extending between the first and second faces in a direction orthogonal to said first and second faces , characterized in that the second plate is a one-piece plate through which a plurality of channels pass, each opening out substantially perpendicularly, on the one hand, onto a first orifice formed on the first face and on the other hand onto a second orifice formed on the second face , the length of each channel extending between its first orifice and its second orifice being greater than or equal to 1.5 times the thickness (e) of said second plate .
A mode-locked pulse laser device with a ring laser resonator, the pulse laser device comprising: a polarization maintaining, PM, fiber having a light input end and a light output end and configured to guide a first linearly polarized light with a first phase along a fast axis (X1) of the PM fiber from the light input end and a second linearly polarized light with a second phase along a slow axis (X2) of the PM fiber from the input end; a first quarter waveplate disposed at the light output end of the PM fiber and configured to convert the first and the second linearly polarized lights into left-handed and right-handed, or right-handed and left-handed, circularly polarized lights, respectively; and an optical isolator configured to unidirectionally transmit a laser pulse in the ring laser resonator, wherein the PM fiber has at least one 90-degree-cross-splicing position (C) to eliminate delay between the first linearly polarized light and the second linearly polarized, wherein the left-handed circularly polarized light and the right-handed circularly polarized light combine into an elliptically polarized light after the first quarter waveplate, and wherein the PM fiber , the first quarter waveplate , and the optical isolator are on a light path of the ring laser resonator. a polarization maintaining, PM, fiber having a light input end and a light output end and configured to guide a first linearly polarized light with a first phase along a fast axis (X1) of the PM fiber from the light input end and a second linearly polarized light with a second phase along a slow axis (X2) of the PM fiber from the input end; a first quarter waveplate disposed at the light output end of the PM fiber and configured to convert the first and the second linearly polarized lights into left-handed and right-handed, or right-handed and left-handed, circularly polarized lights, respectively; and an optical isolator configured to unidirectionally transmit a laser pulse in the ring laser resonator, wherein the PM fiber has at least one 90-degree-cross-splicing position (C) to eliminate delay between the first linearly polarized light and the second linearly polarized, wherein the left-handed circularly polarized light and the right-handed circularly polarized light combine into an elliptically polarized light after the first quarter waveplate, and wherein the PM fiber , the first quarter waveplate , and the optical isolator are on a light path of the ring laser resonator.
A method for initializing a self-synchronizing coherent network Primary Reference Time Clock, cnPRTC, mesh , wherein - a self-synchronizing cnPRTC mesh is initialized during a start-up period; - a Universal Time Coordinated, UTC(k), node connected to a selected cnPRTC node of the self-synchronizing cnPRTC mesh sets the selected cnPRTC node to a UTC(k) time provided by the UTC(k) node during the start-up period when a Global Navigation Satellite System, GNSS, system fails to provide the selected cnPRTC node with a GNSS time during the start-up period, wherein setting the selected cnPRTC node comprises directly inserting the UTC(k) time into a clock combiner module of the selected cnPRTC node , the inserted UTC(k) time replacing weighted times provided to the selected cnPRTC node by local time sources and remote time sources. - a self-synchronizing cnPRTC mesh is initialized during a start-up period; - a Universal Time Coordinated, UTC(k), node connected to a selected cnPRTC node of the self-synchronizing cnPRTC mesh sets the selected cnPRTC node to a UTC(k) time provided by the UTC(k) node during the start-up period when a Global Navigation Satellite System, GNSS, system fails to provide the selected cnPRTC node with a GNSS time during the start-up period, wherein setting the selected cnPRTC node comprises directly inserting the UTC(k) time into a clock combiner module of the selected cnPRTC node , the inserted UTC(k) time replacing weighted times provided to the selected cnPRTC node by local time sources and remote time sources.
A drill comprising: - at least one first cutting edge for drilling a prepared hole to a workpiece, the at least one first cutting edge being formed at a tip side of the drill , a first point angle (α) of the at least one first cutting edge at a tip position being more than 0° and less than 180°, the first point angle (α) continuously or intermittently decreasing from the tip side toward a rear end side of the drill , a first relief angle (γ1) of the at least one first cutting edge continuously or intermittently decreasing from the tip side toward the rear end side; - at least one second cutting edge for reaming the prepared hole, the at least one second cutting edge being formed at a position away in the rear end side from the at least one first cutting edge , the at least one second cutting edge having a second relief angle (γ2) at a maximum diameter position of the at least one second cutting edge ; and - a deflection reducer for reducing deflection of the at least one second cutting edge , the deflection reducer being formed between the at least one first cutting edge and the at least one second cutting edge , the deflection reducer being inserted into a prepared hole. - at least one first cutting edge for drilling a prepared hole to a workpiece, the at least one first cutting edge being formed at a tip side of the drill , a first point angle (α) of the at least one first cutting edge at a tip position being more than 0° and less than 180°, the first point angle (α) continuously or intermittently decreasing from the tip side toward a rear end side of the drill , a first relief angle (γ1) of the at least one first cutting edge continuously or intermittently decreasing from the tip side toward the rear end side; - at least one second cutting edge for reaming the prepared hole, the at least one second cutting edge being formed at a position away in the rear end side from the at least one first cutting edge , the at least one second cutting edge having a second relief angle (γ2) at a maximum diameter position of the at least one second cutting edge ; and - a deflection reducer for reducing deflection of the at least one second cutting edge , the deflection reducer being formed between the at least one first cutting edge and the at least one second cutting edge , the deflection reducer being inserted into a prepared hole.
A medical monitoring and communication system for wireless communication between an implantable medical device , a mobile user device , and a remote server , comprising: a sensor device communicably coupled to the implantable medical device being configured to acquire data, characterized in that said sensor device is configured to: default to a master mode prior to pairing with the mobile user device ; listen for a request to connect from the mobile user device ; refrain from communicating with the mobile user device responsive to the request to connect from the mobile user device being invalid; and switch to a slave mode to allow cooperative pairing with the mobile user device responsive to the request to connect from the mobile user device being valid; wherein the mobile user device facilitates communication between the sensor device and the remote server when the mobile user device and the sensor device are cooperatively paired, by transmitting and receiving data to/from the sensor device and the remote server . a sensor device communicably coupled to the implantable medical device being configured to acquire data, characterized in that said sensor device is configured to: default to a master mode prior to pairing with the mobile user device ; listen for a request to connect from the mobile user device ; refrain from communicating with the mobile user device responsive to the request to connect from the mobile user device being invalid; and switch to a slave mode to allow cooperative pairing with the mobile user device responsive to the request to connect from the mobile user device being valid; wherein the mobile user device facilitates communication between the sensor device and the remote server when the mobile user device and the sensor device are cooperatively paired, by transmitting and receiving data to/from the sensor device and the remote server . default to a master mode prior to pairing with the mobile user device ; listen for a request to connect from the mobile user device ; refrain from communicating with the mobile user device responsive to the request to connect from the mobile user device being invalid; and switch to a slave mode to allow cooperative pairing with the mobile user device responsive to the request to connect from the mobile user device being valid; wherein the mobile user device facilitates communication between the sensor device and the remote server when the mobile user device and the sensor device are cooperatively paired, by transmitting and receiving data to/from the sensor device and the remote server .
A bone anchor , comprising: a bone engaging member comprising: a first proximal bone engaging portion and a second distal bone engaging portion ; and an expansion feature configured to allow radial expansion of the first bone engaging portion and the second bone engaging portion ; a two-piece expander having a first proximal expansion portion and a separable, second distal expansion portion ; wherein the two-piece expander is displaceable between a first position relative to the bone engaging member and a second position relative to the bone engaging member ; wherein the second distal expansion portion has a most distal end with a first diameter and a most proximal end with a second diameter; a tissue capture feature; and wherein the first expansion portion of the expander is configured to expand the first bone engaging portion of the bone engaging member and the second expansion portion of the expander is configured to expand the second bone engaging portion of the bone engaging member when the expander is in the second position; characterized in that the first diameter is larger than the second diameter. a first proximal bone engaging portion and a second distal bone engaging portion ; and an expansion feature configured to allow radial expansion of the first bone engaging portion and the second bone engaging portion ; a two-piece expander having a first proximal expansion portion and a separable, second distal expansion portion ; wherein the two-piece expander is displaceable between a first position relative to the bone engaging member and a second position relative to the bone engaging member ; wherein the second distal expansion portion has a most distal end with a first diameter and a most proximal end with a second diameter; a tissue capture feature; and wherein the first expansion portion of the expander is configured to expand the first bone engaging portion of the bone engaging member and the second expansion portion of the expander is configured to expand the second bone engaging portion of the bone engaging member when the expander is in the second position; characterized in that the first diameter is larger than the second diameter.
A method for producing a glass ceramic non-coloured material with a scattered light component of less than 70 % as determined at a wavelength of 634 nm and normalised to a glass ceramic material of 4 mm thickness, comprising the steps of: - providing a starting material comprising a ceramizable glass and/or a glass ceramic material; - preferably performing a temperature treatment to produce crystallization seeds at a temperature T KB and for a duration t KB ; - preferably performing a temperature treatment to crystallize a crystalline precursor phase at a temperature T KV and for a duration t KV ; and - performing a temperature treatment for crystallization, in particular of keatite solid solution, at a temperature T KK and for a duration t KK ; wherein the duration t KK is determined based on the expansion, preferably based on the relative percentage expansion of the ceramizable glass and/or the glass ceramic material. - providing a starting material comprising a ceramizable glass and/or a glass ceramic material; - preferably performing a temperature treatment to produce crystallization seeds at a temperature T KB and for a duration t KB ; - preferably performing a temperature treatment to crystallize a crystalline precursor phase at a temperature T KV and for a duration t KV ; and - performing a temperature treatment for crystallization, in particular of keatite solid solution, at a temperature T KK and for a duration t KK ; wherein the duration t KK is determined based on the expansion, preferably based on the relative percentage expansion of the ceramizable glass and/or the glass ceramic material.
A method for using a bandwidth, BW, allocation in a Time Division Multiple Access, TDMA, network, the method comprising: filling a buffer having a buffer length with a demand-inducing stream data until either the demand-inducing stream data is exhausted or the buffer length equals the BW allocation; determining a leftover BW as the BW allocation minus the buffer length after the filling; characterized by : composing a leftover buffer when demand-deferring stream data is present, wherein the leftover buffer comprises a transmission header, TH, and a transmission data, TD, comprising a portion of a demand-deferring stream data; and transmitting the buffer and the leftover buffer in a time slot associated with the BW allocation, wherein a length of the TH plus a length of the TD is less than or equal to the leftover BW. filling a buffer having a buffer length with a demand-inducing stream data until either the demand-inducing stream data is exhausted or the buffer length equals the BW allocation; determining a leftover BW as the BW allocation minus the buffer length after the filling; characterized by : composing a leftover buffer when demand-deferring stream data is present, wherein the leftover buffer comprises a transmission header, TH, and a transmission data, TD, comprising a portion of a demand-deferring stream data; and transmitting the buffer and the leftover buffer in a time slot associated with the BW allocation, wherein a length of the TH plus a length of the TD is less than or equal to the leftover BW. composing a leftover buffer when demand-deferring stream data is present, wherein the leftover buffer comprises a transmission header, TH, and a transmission data, TD, comprising a portion of a demand-deferring stream data; and transmitting the buffer and the leftover buffer in a time slot associated with the BW allocation, wherein a length of the TH plus a length of the TD is less than or equal to the leftover BW.