mhurhangee/patent-ind-claim-en huggingface dataset:
Device forming an annular prosthesis intended to be attached (around) to the contour of the mitral valve by annuloplasty therapy, characterized in that it contains: - a closed ring consisting of two rigid segments (half-rings), constituting (of) the two lobes , of the mitral valve, articulated between them by pivotal stop zones , , for the flapping of the lobes limited by the stops, - the two hinges with stops , are articulated between 0 and 10 degrees as determined by the stops, fixing the axis of rotation passing through the middles of the posterior annulus and the anterior annulus , - the two rigid segments , , from the middle of the posterior annulus segment , to the middle of the anterior y , and moving to the upper stop of the hinges at a 0-degree angle for diastolic state (open valve - flattened D shape) and retracting to the bottom stop at an angle of 10 degrees to take the systolic state (closed valve). - a closed ring consisting of two rigid segments (half-rings), constituting (of) the two lobes , of the mitral valve, articulated between them by pivotal stop zones , , for the flapping of the lobes limited by the stops, - the two hinges with stops , are articulated between 0 and 10 degrees as determined by the stops, fixing the axis of rotation passing through the middles of the posterior annulus and the anterior annulus , - the two rigid segments , , from the middle of the posterior annulus segment , to the middle of the anterior y , and moving to the upper stop of the hinges at a 0-degree angle for diastolic state (open valve - flattened D shape) and retracting to the bottom stop at an angle of 10 degrees to take the systolic state (closed valve).
A flow-enhancing fabric extending in a longitudinal direction and in a transverse direction , the fabric comprising a plurality of fibre layers including a first fibre layer and a second fibre layer arranged upon each other, the first fibre layer comprising a first plurality of fibre bundles oriented in parallel in a first fibre direction and comprising a plurality of first glass fibre bundles and a number of first carbon fibre bundles , and the second fibre layer comprising a second plurality of fibre bundles oriented in parallel in a second fibre direction different from the first direction and comprising a plurality of second glass fibre bundles and a number of second carbon fibre bundles , so that at least a number of first carbon fibre bundles intersect and contact a number of second carbon fibre bundles , and the fabric further comprises a plurality of monofilaments arranged between the first and second fibre layer along the transverse direction of the fabric, the plurality of monofilaments each having a mutual spacing between them.
A battery cell , comprising: a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case through the sealing portion ; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead , wherein the lead film has a dented portion recessed in an outer direction of the battery case , the dented portion is open toward the inside of the battery case , the sealing portion located on a gas discharge portion of the dented portion has an indented sealing portion recessed inward at an outer side of the battery case , and the indented sealing portion does not overlap with at least a part of the gas discharge portion on a plane. a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case through the sealing portion ; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead , wherein the lead film has a dented portion recessed in an outer direction of the battery case , the dented portion is open toward the inside of the battery case , the sealing portion located on a gas discharge portion of the dented portion has an indented sealing portion recessed inward at an outer side of the battery case , and the indented sealing portion does not overlap with at least a part of the gas discharge portion on a plane.
An occlusive device configured to be positioned within an aneurysm, the device comprising: a marker band ; a ribbon-like strand of porous mesh formed of a plurality of braided wires, the mesh having a length, a first end of the length, and a second end of the length opposite the first end, wherein the band is disposed at the first end, and wherein the mesh has a predetermined shape such that, at least when the mesh is in an expanded configuration, at least a portion of the porous mesh is curved and configured to be positioned over a neck of the aneurysm; and a coil having a length, a first end of the length, and a second end of the length opposite the first end, wherein the first end of the coil is coupled to the first end of the mesh at the band . a marker band ; a ribbon-like strand of porous mesh formed of a plurality of braided wires, the mesh having a length, a first end of the length, and a second end of the length opposite the first end, wherein the band is disposed at the first end, and wherein the mesh has a predetermined shape such that, at least when the mesh is in an expanded configuration, at least a portion of the porous mesh is curved and configured to be positioned over a neck of the aneurysm; and a coil having a length, a first end of the length, and a second end of the length opposite the first end, wherein the first end of the coil is coupled to the first end of the mesh at the band .
Process for preparing alkyl 5-dialkylacetal-2-furoates of formula (I) : in which : R 1 , R 2 and R 3 each independently designate a C 1 -C 22 alkyl or alkenyl group, characterized in that it comprises a step of converting one or more uronic acids by reaction with at least one alcohol of formula R-OH wherein R designates a C 1 -C 22 alkyl or alkenyl group, in the presence of at least one acidic catalyst, the reaction medium being brought to a temperature of 150 to 180°C.
A service processing method performed by a system comprising an access point, AP, and a station , STA, the method comprising: • sending, by the AP, second service data to the STA by using a second Media Access Control, MAC, connection between the AP and the STA, wherein the STA has a second MAC address for communicating with the AP by using the second MAC connection; • receiving, by the AP, a connection request that is sent by the STA by using a first MAC address (step 502), and establishing, by the AP, a first MAC connection to the STA according to the first MAC address (step 503), wherein the first MAC address is a MAC address of the STA after the STA changes the second MAC address into the first MAC address (step 2. 504); ; • receiving, by the AP, a MAC address change message that is sent by the STA in an encryption mode, wherein the MAC address change message carries the second MAC address of the STA (step 505); • determining, by the AP, according to the MAC address change message that the STA has changed the MAC address (step 506); and • sending, by the AP, first service data to the STA through the first MAC connection by using a resource related to the second MAC connection, wherein the first service data are sent to the STA with an increased data transmission rate compared a data transmission rate of the second service data (step 507). • sending, by the AP, second service data to the STA by using a second Media Access Control, MAC, connection between the AP and the STA, wherein the STA has a second MAC address for communicating with the AP by using the second MAC connection; • receiving, by the AP, a connection request that is sent by the STA by using a first MAC address (step 502), and establishing, by the AP, a first MAC connection to the STA according to the first MAC address (step 503), wherein the first MAC address is a MAC address of the STA after the STA changes the second MAC address into the first MAC address (step 2. 504); ; • receiving, by the AP, a MAC address change message that is sent by the STA in an encryption mode, wherein the MAC address change message carries the second MAC address of the STA (step 505); • determining, by the AP, according to the MAC address change message that the STA has changed the MAC address (step 506); and • sending, by the AP, first service data to the STA through the first MAC connection by using a resource related to the second MAC connection, wherein the first service data are sent to the STA with an increased data transmission rate compared a data transmission rate of the second service data (step 507).
A process of dynamic milking, comprising the steps of: arranging a milking teat having a milk channel into an inner cavity of a shell of a teat cup having a milk output; generating a vacuum action in the teat cup communicating with the milking teat and applying in the teat cup a mechanical action on at least one lateral part of the milking teat to cause a flow of a milking milk from an output of the milk channel of the milking teat; modulating the vacuum action and periodically changing the mechanical action so that increasing of the modulated vacuum action on the milking teat occurs at the same time as increasing of the mechanical action on the milking teat and decreasing of the modulated vacuum action on the milking teat occurs at the same time as decreasing of the mechanical action on the milking teat in-phase, respectively, in each period of the process without interrupting a spatial channel for movement of the flow of the milking milk between the output of the milk channel of the milking teat and the constantly-open milk output of the teat cup such that an energy-physiological optimization of the process is provided.
An artificial intelligence-based system, comprising: an input preparation module that accesses a sequence database and generates an input base sequence, wherein the input base sequence comprises (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; a convolutional neural network, CNN, based sequence-to-sequence model that processes the input base sequence and generates an alternative representation of the input base sequence; wherein the CNN has been trained on input base sequences of the target base sequence, the right base sequence and the left base sequence, and on ground truth signal levels in sequences of a plurality of epigenetic tracks; and an output module that processes the alternative representation of the input base sequence and produces at least one per-base output for each of the target bases in the target base sequence, wherein the per-base output specifies, for a corresponding target base, signal levels of a plurality of epigenetic tracks. an input preparation module that accesses a sequence database and generates an input base sequence, wherein the input base sequence comprises (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; (i) a target base sequence with target bases, wherein the target base sequence is flanked by (ii) a right base sequence with downstream context bases, and (iii) a left base sequence with upstream context bases; a convolutional neural network, CNN, based sequence-to-sequence model that processes the input base sequence and generates an alternative representation of the input base sequence; wherein the CNN has been trained on input base sequences of the target base sequence, the right base sequence and the left base sequence, and on ground truth signal levels in sequences of a plurality of epigenetic tracks; and an output module that processes the alternative representation of the input base sequence and produces at least one per-base output for each of the target bases in the target base sequence, wherein the per-base output specifies, for a corresponding target base, signal levels of a plurality of epigenetic tracks.
A method in a terminal device, comprising: determining a DeModulation Reference Signal, DMRS, configuration for a Physical Uplink Shared Channel, PUSCH; and transmitting to a network device the PUSCH using the DMRS configuration along with a preamble, in a random access message, wherein the random access message is a message A in a two-step random access procedure, wherein the DMRS configuration comprises a DMRS sequence and the determining the DMRS configuration comprises generating the DMRS sequence by using an identifier of the preamble as an initialization parameter; and wherein the DMRS configuration further comprises a time domain resource for DMRS and said determining the DMRS configuration further comprises determining the time domain resource for the DMRS based on one or more of: a number of symbols for the DMRS, a maximum number of additional DMRS symbols, or a Code Division Multiplexing, CDM, group type; wherein the number of symbols for the DMRS and the maximum number of additional DMRS symbols are received from the network device via signaling, the CDM group type is predetermined by default and wherein the signaling comprises Radio Resource Control, RRC, signaling, the RRC signaling comprising a system information message and/or a dedicated signaling message. determining a DeModulation Reference Signal, DMRS, configuration for a Physical Uplink Shared Channel, PUSCH; and transmitting to a network device the PUSCH using the DMRS configuration along with a preamble, in a random access message, wherein the random access message is a message A in a two-step random access procedure, wherein the DMRS configuration comprises a DMRS sequence and the determining the DMRS configuration comprises generating the DMRS sequence by using an identifier of the preamble as an initialization parameter; and wherein the DMRS configuration further comprises a time domain resource for DMRS and said determining the DMRS configuration further comprises determining the time domain resource for the DMRS based on one or more of: a number of symbols for the DMRS, a maximum number of additional DMRS symbols, or a Code Division Multiplexing, CDM, group type; wherein the number of symbols for the DMRS and the maximum number of additional DMRS symbols are received from the network device via signaling, the CDM group type is predetermined by default and wherein the signaling comprises Radio Resource Control, RRC, signaling, the RRC signaling comprising a system information message and/or a dedicated signaling message. a number of symbols for the DMRS, a maximum number of additional DMRS symbols, or a Code Division Multiplexing, CDM, group type; wherein the number of symbols for the DMRS and the maximum number of additional DMRS symbols are received from the network device via signaling, the CDM group type is predetermined by default and wherein the signaling comprises Radio Resource Control, RRC, signaling, the RRC signaling comprising a system information message and/or a dedicated signaling message.
A shift control system for a vehicle, the shift control system comprising: at least three sensors ; a shift operating unit ; and an electronic control unit configured to determine a shift position of the shift operating unit based on signals that are respectively output from the at least three sensors , characterized in that the electronic control unit is configured to, when the electronic control unit determines that the number of normal sensors, which represent sensors which are not malfunctioning, is two or less among the sensors and a vehicle speed (V) of the vehicle is higher than or equal to a preset vehicle speed threshold (Va), select a shift position kept at the time of the determination, and in that the electronic control unit is configured to, when the electronic control unit determines that the number of normal sensors is two or less among the sensors and the vehicle speed (V) of the vehicle is lower than the vehicle speed threshold (Va), select a neutral position. at least three sensors ; a shift operating unit ; and an electronic control unit configured to determine a shift position of the shift operating unit based on signals that are respectively output from the at least three sensors , characterized in that the electronic control unit is configured to, when the electronic control unit determines that the number of normal sensors, which represent sensors which are not malfunctioning, is two or less among the sensors and a vehicle speed (V) of the vehicle is higher than or equal to a preset vehicle speed threshold (Va), select a shift position kept at the time of the determination, and in that the electronic control unit is configured to, when the electronic control unit determines that the number of normal sensors is two or less among the sensors and the vehicle speed (V) of the vehicle is lower than the vehicle speed threshold (Va), select a neutral position.
A method for adjusting, by a first terminal (Terminal 1), a transmission time point of a second terminal (Terminal 2) and a third terminal (Terminal 3) performing cooperative communicate with the first terminal, the method comprising: transmitting a first request frame for transmission time-point adjusting to the second terminal; transmitting a second request frame for transmission time-point adjusting to the third terminal; receiving a first response frame from the second terminal; receiving a second response frame from the third terminal; adjusting the transmission time point for the second terminal using a difference between an estimated arrival time and an actual arrival time for the first response frame; and adjusting the transmission time point for the third terminal using a difference between an estimated arrival time and an actual arrival time for the second response frame. transmitting a first request frame for transmission time-point adjusting to the second terminal; transmitting a second request frame for transmission time-point adjusting to the third terminal; receiving a first response frame from the second terminal; receiving a second response frame from the third terminal; adjusting the transmission time point for the second terminal using a difference between an estimated arrival time and an actual arrival time for the first response frame; and adjusting the transmission time point for the third terminal using a difference between an estimated arrival time and an actual arrival time for the second response frame.
A method to calibrate at least one lever arm between at least one respective global positioning position, GPS, antenna/receiver and a communicatively coupled inertial navigation system , where each lever arm is the difference in position between the corresponding GPS antenna/receiver and the inertial navigation system , where the calibration accounts for any bending motion of each lever arm, and where the bending motion causes each lever arm to comprise a fixed lever arm and a bent lever arm, the method comprising: receiving signals corresponding to GPS position measurements from the at least one GPS antenna/receiver at the inertial navigation system communicatively coupled to a Kalman filter ; and in the Kalman filter, based on the received signals: implementing an expanded state transition matrix, Φ, including, for each lever arm, an expanded state-matrix diagonal element, Φ 1a,1a , Φ 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; implementing an expanded noise covariance matrix, Q, including, for each lever arm, an expanded noise-matrix diagonal element, Q 1a,1a , Q 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; and providing in real-time for each lever arm, an estimated lever arm (r gps_lever_arm-est ) based on the expanded state transition matrix and expanded noise covariance matrix. receiving signals corresponding to GPS position measurements from the at least one GPS antenna/receiver at the inertial navigation system communicatively coupled to a Kalman filter ; and in the Kalman filter, based on the received signals: implementing an expanded state transition matrix, Φ, including, for each lever arm, an expanded state-matrix diagonal element, Φ 1a,1a , Φ 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; implementing an expanded noise covariance matrix, Q, including, for each lever arm, an expanded noise-matrix diagonal element, Q 1a,1a , Q 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; and providing in real-time for each lever arm, an estimated lever arm (r gps_lever_arm-est ) based on the expanded state transition matrix and expanded noise covariance matrix. implementing an expanded state transition matrix, Φ, including, for each lever arm, an expanded state-matrix diagonal element, Φ 1a,1a , Φ 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; implementing an expanded noise covariance matrix, Q, including, for each lever arm, an expanded noise-matrix diagonal element, Q 1a,1a , Q 2a,2a , associated with the corresponding fixed lever arm and corresponding bent lever arm; and providing in real-time for each lever arm, an estimated lever arm (r gps_lever_arm-est ) based on the expanded state transition matrix and expanded noise covariance matrix.
A short activating RNA which up-regulates albumin production for use in treating or preventing a hyperproliferative disorder and/or a disorder characterised by hypoalbuminemia, wherein said short activating RNA upregulates albumin production by activating a target gene, wherein the target gene is HNF4a, wherein said short activating RNA has at least 95% sequence identity to a sequence located on the coding strand of the target gene between 500 nucleotides upstream and 500 nucleotides downstream of the transcription start site of the target gene, and said short activating RNA is 13-30 nucleotides in length.
A process for the preparation of a polyarylether copolymer (P) comprising the step of converting a reaction mixture (R G ) comprising as components (A1) at least one aromatic dihalogen component (B1) at least one sugar alcohol selected from the group consisting of isosorbide, isomannide and isoidide, (B2) at least one aromatic dihydroxy component, (B3) at least one dihydroxy polyalkylene oxide, wherein the reaction mixture (R G ) comprises 10 to 70 mol% of component (B1) and 29.5 to 65 mol% of component (B2) and from 0.5 to 5 mol% of component (B3), based on the total amount of components (B1), (B2) and (B3) contained in the reaction mixture (R G ). (A1) at least one aromatic dihalogen component (B1) at least one sugar alcohol selected from the group consisting of isosorbide, isomannide and isoidide, (B2) at least one aromatic dihydroxy component, (B3) at least one dihydroxy polyalkylene oxide, wherein the reaction mixture (R G ) comprises 10 to 70 mol% of component (B1) and 29.5 to 65 mol% of component (B2) and from 0.5 to 5 mol% of component (B3), based on the total amount of components (B1), (B2) and (B3) contained in the reaction mixture (R G ).