mhurhangee/patent-ind-claim-en huggingface dataset:
A cardiac device for repositioning papillary muscles comprising: a band configured to form a loop within a heart, the band defining a lumen extending at least partially therethrough along an elongated axis of the band, wherein the band includes a first end , a second end configured to be received within the lumen via a first opening in the first end , and a side wall opening between the first end and the second end , the side wall opening providing access to the lumen; and an actuatable clasp configured to transition from an open configuration to a closed configuration for forming a fixed length loop after the second end is inserted into the first end, and wherein the clasp is configured for actuation via a catheter passing through the side wall opening, wherein the actuatable clasp is configured to be held in the open configuration by a clasp retainer associated with the clasp; and wherein the actuatable clasp is configured such that retraction of the clasp retainer from the clasp results in the clasp returning to its closed configuration. a band configured to form a loop within a heart, the band defining a lumen extending at least partially therethrough along an elongated axis of the band, wherein the band includes a first end , a second end configured to be received within the lumen via a first opening in the first end , and a side wall opening between the first end and the second end , the side wall opening providing access to the lumen; and an actuatable clasp configured to transition from an open configuration to a closed configuration for forming a fixed length loop after the second end is inserted into the first end, and wherein the clasp is configured for actuation via a catheter passing through the side wall opening, wherein the actuatable clasp is configured to be held in the open configuration by a clasp retainer associated with the clasp; and wherein the actuatable clasp is configured such that retraction of the clasp retainer from the clasp results in the clasp returning to its closed configuration.
A method for bidirectional communication between a command unit (BE) and a serially and electrically connected plurality of LED control units (SE1, SE2, SE3), the method comprising the following steps: - transmitting a control command directed to all LED control units (SE1, SE2, SE3) as instruction from the command unit (BE) to the first in series connected LED control unit (SE1); - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) that received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives and executes the same control command and directly after receiving and before executing or during executing passes it on, wherein the control command is deleted immediately after executing and passing on without intermediate storing; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit (SE3) to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit (BE) receives the execution results of each LED control unit (SE1, SE2, SE3). - transmitting a control command directed to all LED control units (SE1, SE2, SE3) as instruction from the command unit (BE) to the first in series connected LED control unit (SE1); - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) that received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives and executes the same control command and directly after receiving and before executing or during executing passes it on, wherein the control command is deleted immediately after executing and passing on without intermediate storing; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit (SE3) to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit (BE) receives the execution results of each LED control unit (SE1, SE2, SE3).
A method in a user equipment for determining an uplink transmission timing correction for communication in a telecommunication system in which aggregation of component carriers is applied, the method comprising - sending a signal on an uplink component carrier to a base station , - receiving a timing correction of the uplink transmission timing and information on which uplink component carrier the timing correction is valid for from the base station, - adjusting the uplink transmission timing of the component carrier the timing correction is valid for based on the timing correction. - sending a signal on an uplink component carrier to a base station , - receiving a timing correction of the uplink transmission timing and information on which uplink component carrier the timing correction is valid for from the base station, - adjusting the uplink transmission timing of the component carrier the timing correction is valid for based on the timing correction.
An anhydrous composition comprising a sun-care active, wherein the sun-care active comprises avobenzone and a self adapting polymer which aligns with a hydrophilic group pointing to the surface during application to a surface, wherein the self adapting polymer comprises a VA/butyl maleate/isobornyl acrylate copolymer and wherein the composition exhibits an increase in hydrophobicity after contact with water.
A computer-implemented method of assessing the condition of a real-world object wherein the real-world object is an electronic device (612; 1000; 1422) comprising a display screen (616; 906; 1104), the method comprising: receiving (202; 500; 704; 1008) sensor data depicting the real-world object, the sensor data comprising images depicting a graphical item on the display screen of the real-world object, the graphical item comprising an identifier (904; 1102) of the real-world object; wherein one of the images depicts the graphical item at a first portion of the display screen of the real-world object and a second one of the images depicts the graphical item at a second portion of the display screen of the real-world object, different from the first portion; authenticating (204; 502; 706; 1014) the received sensor data as genuinely depicting the real-world object by searching for a match to the identifier in user accounts comprising details of users and associated real-world objects; and if the authentication is successful, assessing (210; 308; 508; 720; 1024) a condition of the real-world object from the sensor data. receiving (202; 500; 704; 1008) sensor data depicting the real-world object, the sensor data comprising images depicting a graphical item on the display screen of the real-world object, the graphical item comprising an identifier (904; 1102) of the real-world object; wherein one of the images depicts the graphical item at a first portion of the display screen of the real-world object and a second one of the images depicts the graphical item at a second portion of the display screen of the real-world object, different from the first portion; authenticating (204; 502; 706; 1014) the received sensor data as genuinely depicting the real-world object by searching for a match to the identifier in user accounts comprising details of users and associated real-world objects; and if the authentication is successful, assessing (210; 308; 508; 720; 1024) a condition of the real-world object from the sensor data.
Curable coating composition comprising: (i) at least one Michael donor (A) comprising at least one thiol group, (ii) at least one Michael acceptor (B) and (iii) at least one catalyst (C) according to the general formula (I) wherein R 1 , R 2 and R 3 are, independently from each other, linear, branched or cyclic alkyl groups, aryl groups or aralkyl groups, X is selected from alkali metals, bismuth, zinc, zirconium or HN(R 4 ) 3 , R 4 is selected from C 1 -C 10 alkyl groups or C 1 -C 10 hydroxyalkyl groups and n is an integral number of 1 to 8. (i) at least one Michael donor (A) comprising at least one thiol group, (ii) at least one Michael acceptor (B) and (iii) at least one catalyst (C) according to the general formula (I) wherein R 1 , R 2 and R 3 are, independently from each other, linear, branched or cyclic alkyl groups, aryl groups or aralkyl groups, X is selected from alkali metals, bismuth, zinc, zirconium or HN(R 4 ) 3 , R 4 is selected from C 1 -C 10 alkyl groups or C 1 -C 10 hydroxyalkyl groups and n is an integral number of 1 to 8. R 1 , R 2 and R 3 are, independently from each other, linear, branched or cyclic alkyl groups, aryl groups or aralkyl groups, X is selected from alkali metals, bismuth, zinc, zirconium or HN(R 4 ) 3 , R 4 is selected from C 1 -C 10 alkyl groups or C 1 -C 10 hydroxyalkyl groups and n is an integral number of 1 to 8.
Tempering oven for heating up flat metal workpieces that are referred to as "blanks", which tempering oven has an oven chamber that incorporates a charging hole and receives the workpieces a heat fan to blow hot air into the oven chamber , a shutter that can be moved, as required, into an open position to open the charging hole or into a closed position to shut the charging hole , a carrier on which the workpieces are placed in the oven chamber , where a subassembly referred to as a drawer is arranged in the oven chamber that incorporates the carrier and where the shutter is fastened to the drawer and can be moved together with the drawer , characterised in • that the drawer can, as required, be pulled out of the oven chamber or pushed back into the oven chamber by means of a manipulator that can be moved horizontally and is arranged in front of the oven chamber and the manipulator can be moved vertically in such a way that it can be raised or lowered in front of whichever drawer is to be actuated and can be moved horizontally at each of these levels in such a way that the drawer to be actuated can be either pulled out of the oven chamber or pushed back into the oven chamber by means of the manipulator • that hot air inlets lead into the oven chamber both above and below the carrier , where the hot air inlets are constructed and arranged in such a way that the hot air emerging from them is directed at the carrier in such a way that by blowing accurately onto the workpieces impact air is generated on the surface of the workpieces • and that the heat fan is designed to blow hot air at a high onflow velocity of at least 7 m/s and at a high circulation velocity of at least 30,000 m 3 /h. • that the drawer can, as required, be pulled out of the oven chamber or pushed back into the oven chamber by means of a manipulator that can be moved horizontally and is arranged in front of the oven chamber and the manipulator can be moved vertically in such a way that it can be raised or lowered in front of whichever drawer is to be actuated and can be moved horizontally at each of these levels in such a way that the drawer to be actuated can be either pulled out of the oven chamber or pushed back into the oven chamber by means of the manipulator • that hot air inlets lead into the oven chamber both above and below the carrier , where the hot air inlets are constructed and arranged in such a way that the hot air emerging from them is directed at the carrier in such a way that by blowing accurately onto the workpieces impact air is generated on the surface of the workpieces • and that the heat fan is designed to blow hot air at a high onflow velocity of at least 7 m/s and at a high circulation velocity of at least 30,000 m 3 /h.
A system for self-learning end to end automatic speech recognition, the system comprising: a memory; wherein the memory stores a language model, a noise database and an automatic speech recognition, ASR, model; a processor; the processor configured to run: an application programming interface (API); a text extractor; a language model builder; a pronunciation model; a text to speech engine; a mixer; the processor configured to receive client text documents via the API; using the text extractor: determine out of vocabulary, OOV, words from the client text documents; extract sentences containing out of vocabulary, OOV, words from the client text documents; use the extracted sentences to create an n-gram based language model using the language mode builder; add the n-gram based language model to the language model stored in memory; process the extracted sentences using the pronunciation model to produce a phonetic sequence of the OOV words; generate a plurality of audio samples for each sentence using the text to speech engine; augment, using the mixer, the plurality of audio samples with noise from the noise database; fine tune the ASR model stored in memory using the noise augmented audio samples. a memory; wherein the memory stores a language model, a noise database and an automatic speech recognition, ASR, model; a processor; the processor configured to run: an application programming interface (API); a text extractor; a language model builder; a pronunciation model; a text to speech engine; a mixer; an application programming interface (API); a text extractor; a language model builder; a pronunciation model; a text to speech engine; a mixer; receive client text documents via the API; using the text extractor: determine out of vocabulary, OOV, words from the client text documents; extract sentences containing out of vocabulary, OOV, words from the client text documents; determine out of vocabulary, OOV, words from the client text documents; extract sentences containing out of vocabulary, OOV, words from the client text documents; use the extracted sentences to create an n-gram based language model using the language mode builder; add the n-gram based language model to the language model stored in memory; process the extracted sentences using the pronunciation model to produce a phonetic sequence of the OOV words; generate a plurality of audio samples for each sentence using the text to speech engine; augment, using the mixer, the plurality of audio samples with noise from the noise database; fine tune the ASR model stored in memory using the noise augmented audio samples.
A method performed by a terminal in a wireless communication system, the method comprising: receiving , on a primary cell, PCell, a first radio resource control, RRC, message configuring a first cell group to which the PCell belongs, the first cell group including a primary set of serving cells associated with a first base station, wherein the first RRC message includes a secondary cell, SCell, index for an SCell of the first cell group and discontinuous reception, DRX, configuration information for the first cell group; receiving , on the PCell, a second RRC message configuring a second cell group which is different from the first cell group, the second cell group including a non-primary set of serving cells associated with a second base station, wherein the second RRC message includes an SCell index for an SCell of the second cell group and DRX configuration information for the second cell group; applying the DRX configuration information for the first cell group to the first cell group and the DRX configuration information for the second cell group to the second cell group, respectively; receiving a medium access control, MAC, control element, CE, associated with a DRX; identifying whether the MAC CE for ending an active time of the terminal is received on a serving cell of the first cell group or the second cell group; and stopping a DRX timer corresponding to a serving cell group to which the serving cell belongs among the first cell group or the second cell group. receiving , on a primary cell, PCell, a first radio resource control, RRC, message configuring a first cell group to which the PCell belongs, the first cell group including a primary set of serving cells associated with a first base station, wherein the first RRC message includes a secondary cell, SCell, index for an SCell of the first cell group and discontinuous reception, DRX, configuration information for the first cell group; receiving , on the PCell, a second RRC message configuring a second cell group which is different from the first cell group, the second cell group including a non-primary set of serving cells associated with a second base station, wherein the second RRC message includes an SCell index for an SCell of the second cell group and DRX configuration information for the second cell group; applying the DRX configuration information for the first cell group to the first cell group and the DRX configuration information for the second cell group to the second cell group, respectively; receiving a medium access control, MAC, control element, CE, associated with a DRX; identifying whether the MAC CE for ending an active time of the terminal is received on a serving cell of the first cell group or the second cell group; and stopping a DRX timer corresponding to a serving cell group to which the serving cell belongs among the first cell group or the second cell group.
A system configured to be in signal communication with a surgical instrument , the system for displaying feedback during an endoscopic operation, the system comprising: a screen comprising a touch-sensitive interface , wherein said touch-sensitive interface is configured to receive at least one input; a first layer depicted on said screen, wherein said first layer comprises primary feedback from the surgical instrument; and a second layer depicted on said screen, wherein said second layer comprises secondary feedback from the surgical instrument, wherein said second layer at least partially overlays said first layer; characterised in that at least one input to said touch-sensitive interface is configured to manipulate said secondary feedback of said second layer relative to said primary feedback of said first layer, wherein the at least one input comprises selecting a portion of said secondary feedback, wherein the portion of said secondary feedback corresponds to a feature of the surgical instrument, and wherein the selected portion of said secondary feedback self-locates to a position on said screen near the corresponding feature of the surgical instrument depicted in said first layer. a screen comprising a touch-sensitive interface , wherein said touch-sensitive interface is configured to receive at least one input; a first layer depicted on said screen, wherein said first layer comprises primary feedback from the surgical instrument; and a second layer depicted on said screen, wherein said second layer comprises secondary feedback from the surgical instrument, wherein said second layer at least partially overlays said first layer; characterised in that at least one input to said touch-sensitive interface is configured to manipulate said secondary feedback of said second layer relative to said primary feedback of said first layer, wherein the at least one input comprises selecting a portion of said secondary feedback, wherein the portion of said secondary feedback corresponds to a feature of the surgical instrument, and wherein the selected portion of said secondary feedback self-locates to a position on said screen near the corresponding feature of the surgical instrument depicted in said first layer.
A method of releasing a N2 connection associated with a user equipment, UE, comprising: receiving , by an access and mobility management function, AMF, from an access network, AN, a first packet data unit, PDU, session deactivation request including PDU session identifiers, IDs, associated with PDU sessions of the UE; sending , by the AMF to one or more session management function, SMFs that serve one or more of the PDU sessions which are to be deactivated, one or more second PDU session deactivation requests including one or more identifiers indicating the one or more of the PDU sessions which are to be deactivated; receiving , by the AMF from each of the one or more SMFs, a PDU session deactivation response; sending , by the AMF to the AN, a PDU session connection release request to release a UE context including the N2 connection associated with the UE; and receiving , by the AMF from the AN, a PDU session connection release response to confirm a release of the UE context. receiving , by an access and mobility management function, AMF, from an access network, AN, a first packet data unit, PDU, session deactivation request including PDU session identifiers, IDs, associated with PDU sessions of the UE; sending , by the AMF to one or more session management function, SMFs that serve one or more of the PDU sessions which are to be deactivated, one or more second PDU session deactivation requests including one or more identifiers indicating the one or more of the PDU sessions which are to be deactivated; receiving , by the AMF from each of the one or more SMFs, a PDU session deactivation response; sending , by the AMF to the AN, a PDU session connection release request to release a UE context including the N2 connection associated with the UE; and receiving , by the AMF from the AN, a PDU session connection release response to confirm a release of the UE context.
Tactile display with a pin plate , a switching matrix (SM) and with a magnetically bistable axially symmetrical linear actuator (A) for tactile applications with a hard magnetic rod which is plate-like at one end extended and arranged on a circuit board with a coil in which the rod is freely movable in the axial direction, characterized in that the rod of the actuator (A) is made of a material with a very high coercive field strength that rod is surrounded axially by a hard-magnetic sleeve of the same length with a significantly lower coercive field strength and is freely movable in the axial direction, that the travel of the rod is increased by its excess length (h) compared to the length of the hard-magnetic sleeve is set such that at one end of the rod an auxiliary pole (la) and at the opposite end a plate-like main pole can form, and that the axial magnetic field of the coil , which encloses rod and sleeve together, only the material of the sleeve but not that of the rod can switch in the magnetic polarity.