mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by one or more processors of a client device, the method comprising: identifying a textual segment stored locally at the client device; generating synthesized speech audio data that includes synthesized speech of the identified textual segment, wherein generating the synthesized speech audio data comprises processing the textual segment using a speech synthesis model stored locally at the client device; the method being characterised by further comprising: processing, using an end-to-end speech recognition model stored locally at the client device, the synthesized speech audio data to generate a predicted textual segment; generating a gradient based on comparing the predicted textual segment to the textual segment; and updating one or more weights of the end-to-end speech recognition model based on the generated gradient. identifying a textual segment stored locally at the client device; generating synthesized speech audio data that includes synthesized speech of the identified textual segment, wherein generating the synthesized speech audio data comprises processing the textual segment using a speech synthesis model stored locally at the client device; the method being characterised by further comprising: processing, using an end-to-end speech recognition model stored locally at the client device, the synthesized speech audio data to generate a predicted textual segment; generating a gradient based on comparing the predicted textual segment to the textual segment; and updating one or more weights of the end-to-end speech recognition model based on the generated gradient. processing, using an end-to-end speech recognition model stored locally at the client device, the synthesized speech audio data to generate a predicted textual segment; generating a gradient based on comparing the predicted textual segment to the textual segment; and updating one or more weights of the end-to-end speech recognition model based on the generated gradient.
A fusion protein, comprising: a. a N-terminal human IL-2 variant protein having at least 95% sequence identity to SEQ ID NO: 1 and comprising the substitution C125S and a substitution selected from the group consisting of: N88R, N881, N88G, D20H, Q126L and Q126F; b. a C-terminal IgG Fc protein; and c. a linker peptide of between 5 to 20 amino acid residues positioned between the IL-2 variant protein and the IgG Fc protein. a. a N-terminal human IL-2 variant protein having at least 95% sequence identity to SEQ ID NO: 1 and comprising the substitution C125S and a substitution selected from the group consisting of: N88R, N881, N88G, D20H, Q126L and Q126F; b. a C-terminal IgG Fc protein; and c. a linker peptide of between 5 to 20 amino acid residues positioned between the IL-2 variant protein and the IgG Fc protein.
A passenger seat comprising a fixed portion and an arm rest stop assembly , said arm rest stop assembly comprising: (a) an arm rest pivotally coupled to the fixed portion and movable between a raised position and a deployed position; and (b) a down-stop mechanism comprising: (i) an adjustment pin ; and (ii) an adjustment fastener coupled to the adjustment pin and the fixed portion of the passenger seat , wherein application of a torque force to the adjustment fastener induces linear travel of the adjustment pin relative to the fixed portion of the passenger seat , wherein the passenger seat further comprises a pivot plate fixedly coupled to the arm rest and pivotally coupled to the fixed portion and wherein the adjustment pin is inserted through the fixed portion, or positioned on the pivot plate , in a location that is covered by the arm rest so that passengers are not able to access the contact point between the pivot plate and the adjustment pin . (a) an arm rest pivotally coupled to the fixed portion and movable between a raised position and a deployed position; and (b) a down-stop mechanism comprising: (i) an adjustment pin ; and (ii) an adjustment fastener coupled to the adjustment pin and the fixed portion of the passenger seat , wherein application of a torque force to the adjustment fastener induces linear travel of the adjustment pin relative to the fixed portion of the passenger seat , wherein the passenger seat further comprises a pivot plate fixedly coupled to the arm rest and pivotally coupled to the fixed portion and wherein the adjustment pin is inserted through the fixed portion, or positioned on the pivot plate , in a location that is covered by the arm rest so that passengers are not able to access the contact point between the pivot plate and the adjustment pin . (i) an adjustment pin ; and (ii) an adjustment fastener coupled to the adjustment pin and the fixed portion of the passenger seat , wherein application of a torque force to the adjustment fastener induces linear travel of the adjustment pin relative to the fixed portion of the passenger seat , wherein the passenger seat further comprises a pivot plate fixedly coupled to the arm rest and pivotally coupled to the fixed portion and wherein the adjustment pin is inserted through the fixed portion, or positioned on the pivot plate , in a location that is covered by the arm rest so that passengers are not able to access the contact point between the pivot plate and the adjustment pin .
A method of monitoring a condition of a device configured to determine a level of liquid in a container , the device comprising an actuator configured to exhibit different values of an operating parameter depending on whether the actuator is wet or dry, the method comprising the steps of: providing at least one reference value of the operating parameter, indicative of whether the device is fully above the liquid , dry, or fully immersed in the liquid , wet; acquiring, by said device , a present value of the operating parameter; determining, independently of said device using an independent level detection apparatus , whether said device is wet or dry while acquiring said present value of the operating parameter; comparing said present value of the operating parameter with the at least one reference value of the operating parameter; and providing, based on the comparison and on the determination whether or not the device is wet or dry, an output indicative of the condition of the device . providing at least one reference value of the operating parameter, indicative of whether the device is fully above the liquid , dry, or fully immersed in the liquid , wet; acquiring, by said device , a present value of the operating parameter; determining, independently of said device using an independent level detection apparatus , whether said device is wet or dry while acquiring said present value of the operating parameter; comparing said present value of the operating parameter with the at least one reference value of the operating parameter; and providing, based on the comparison and on the determination whether or not the device is wet or dry, an output indicative of the condition of the device .
An attenuated strain of Salmonella typhi Ty21a comprising at least one copy of a DNA molecule comprising a eukaryotic expression cassette encoding a VEGF receptor protein, for use in the treatment of cancer, wherein the treatment further comprises the administration of at least one checkpoint inhibitor selected from the group consisting of an antibody against PD-1, PD-L1 and CTLA4.
A system comprising - a water cooling unit , an air-conditioning system and a box-like container , the water cooling unit being arranged within said box-like container , - an air precooling panel , provided with a matrix of through holes, and associated with means configured to cool a stream of external air that passes through said matrix of holes, - at least one pair of laterally adjacent heat exchange batteries , - an evaporator having a condenser , - a refrigeration circuit having a compressor said refrigeration circuit being a closed refrigeration circuit extending through said second battery , said evaporator and said compressor , - means configured to provide an exit outside the box-like container of the heated air that exits from said at least one pair of laterally adjacent heat exchange batteries, wherein for each pair of laterally adjacent batteries the first battery is configured to provide a freecooling of the water entering said evaporator and the second battery is a condensation battery of said condenser of the evaporator , the system characterized by the unit further comprising: - first means configured to provide a hydraulic connection between the water return of said air-conditioning system and the water inlet of said at least one freecooling battery , and - second means configured to provide a hydraulic connection between said at least one freecooling battery and said evaporator . - a water cooling unit , an air-conditioning system and a box-like container , the water cooling unit being arranged within said box-like container , - an air precooling panel , provided with a matrix of through holes, and associated with means configured to cool a stream of external air that passes through said matrix of holes, - at least one pair of laterally adjacent heat exchange batteries , - an evaporator having a condenser , - a refrigeration circuit having a compressor said refrigeration circuit being a closed refrigeration circuit extending through said second battery , said evaporator and said compressor , - means configured to provide an exit outside the box-like container of the heated air that exits from said at least one pair of laterally adjacent heat exchange batteries, - first means configured to provide a hydraulic connection between the water return of said air-conditioning system and the water inlet of said at least one freecooling battery , and - second means configured to provide a hydraulic connection between said at least one freecooling battery and said evaporator .
A vehicle control device comprising: a motion condition detector configured to detect motion conditions of a vehicle on which a load is to be loaded, the motion conditions including a rotational motion and a longitudinal acceleration of the vehicle ; a loading state acquisition unit configured to acquire a loading state of the load loaded on the vehicle ; an inertia value calculator configured to calculate an inertia value including principal axes of inertia about a center of gravity of the vehicle with the load included, based on the acquired loading state; characterised by : a wheel load acquisition unit configured to acquire wheel loads of wheels of the vehicle ; a controller configured to perform longitudinal overturning prevention control to suppress an increase in difference between the wheel loads of front and rear wheels of the vehicle , by calculating control amounts for controlling braking forces or driving forces of left and right drive wheels of the vehicle using the acquired wheel loads of the wheels, the inertia value, and detection values of the motion conditions; and a braking/driving force generator configured to generate instruction values (F x(i) ) for the braking forces or driving forces of the left and right drive wheels of the vehicle . a motion condition detector configured to detect motion conditions of a vehicle on which a load is to be loaded, the motion conditions including a rotational motion and a longitudinal acceleration of the vehicle ; a loading state acquisition unit configured to acquire a loading state of the load loaded on the vehicle ; an inertia value calculator configured to calculate an inertia value including principal axes of inertia about a center of gravity of the vehicle with the load included, based on the acquired loading state; a controller configured to perform longitudinal overturning prevention control to suppress an increase in difference between the wheel loads of front and rear wheels of the vehicle , by calculating control amounts for controlling braking forces or driving forces of left and right drive wheels of the vehicle using the acquired wheel loads of the wheels, the inertia value, and detection values of the motion conditions; and a braking/driving force generator configured to generate instruction values (F x(i) ) for the braking forces or driving forces of the left and right drive wheels of the vehicle .
A voltametric measurement system , comprising: two or more electrodes (103; X, Y, Z) to measure an electrochemical property of an aqueous solution , wherein one of the electrodes (109; X) is a mercury meniscus electrode which is arranged to form a liquid mercury surface in contact with the aqueous solution ; a recirculatory system comprising a trap arranged to collect liquid mercury shed from the one (X) of the electrodes and a pump (111; 513) arranged to recirculate the liquid mercury collected by the trap back to the one (X) of the electrodes; and a cleaning system comprising a cleaning solution to remove contaminants from the liquid mercury following measurement of the electrochemical property, wherein the cleaning system is arranged to introduce the cleaning solution to the presence of the liquid mercury in order to dissolve said contaminants; wherein the cleaning solution comprises of a chelating agent. two or more electrodes (103; X, Y, Z) to measure an electrochemical property of an aqueous solution , wherein one of the electrodes (109; X) is a mercury meniscus electrode which is arranged to form a liquid mercury surface in contact with the aqueous solution ; a recirculatory system comprising a trap arranged to collect liquid mercury shed from the one (X) of the electrodes and a pump (111; 513) arranged to recirculate the liquid mercury collected by the trap back to the one (X) of the electrodes; and a cleaning system comprising a cleaning solution to remove contaminants from the liquid mercury following measurement of the electrochemical property, wherein the cleaning system is arranged to introduce the cleaning solution to the presence of the liquid mercury in order to dissolve said contaminants; wherein the cleaning solution comprises of a chelating agent.
An ultrasound probe configured to be operatively coupled, via a cable that comprises a plurality of lanes adapted to carry signals between the ultrasound probe , to a data processing unit , which is adapted to process the signals, in particular to beamform the signals and to reconstruct ultrasound images of an imaging region; the ultrasound probe comprising - a transducer head comprising a plurality of transducer elements , which are adapted to insonify the imaging region according to an insonification scheme and to receive ultrasound signals; and - a controller adapted to receive information on the integrity of each of the plurality of lanes from a fault detection module , which is adapted to detect integrity or faultiness of each of the plurality of lanes, and wherein the controller is adapted to, responsive to the information of a faulty lane from the fault detection module , reconfigure the signals carried by the faulty lane onto one or more of the non-faulty lanes, characterized in that the controller is adapted to modify the signals carried by the one or more non-faulty lanes so as to include information related to the signal originally carried by the faulty lane. - a transducer head comprising a plurality of transducer elements , which are adapted to insonify the imaging region according to an insonification scheme and to receive ultrasound signals; and - a controller adapted to receive information on the integrity of each of the plurality of lanes from a fault detection module , which is adapted to detect integrity or faultiness of each of the plurality of lanes, and wherein the controller is adapted to, responsive to the information of a faulty lane from the fault detection module , reconfigure the signals carried by the faulty lane onto one or more of the non-faulty lanes, characterized in that the controller is adapted to modify the signals carried by the one or more non-faulty lanes so as to include information related to the signal originally carried by the faulty lane.
A sugar reduced wafer composition comprising, 60 - 80 wt. % of flour, 10 - 23 wt. % of sucrose, 0.5 - 8.0 wt. %, preferably 0.5 - 5 wt. % of oil or fat and 5 - 20 wt. % of non-digestible fibers, the non-digestible fibers are a composition containing at least 60% (in dry mass) of non-digestible oligosaccharide, soluble or insoluble, that escapes digestion in the small intestine of healthy persons and do not raise blood glucose levels, wherein the total amount of mono and disaccharides is 10 - 25 wt. %; all wt. % being in weight percentage of the composition dry mass, and wherein the wafer composition does not contain any high intensity sweeteners or polyols, and wherein the non-digestible fibers is selected from the group consisting of resistant dextrin or inulin, or a combination thereof. 60 - 80 wt. % of flour, 10 - 23 wt. % of sucrose, 0.5 - 8.0 wt. %, preferably 0.5 - 5 wt. % of oil or fat and 5 - 20 wt. % of non-digestible fibers, the non-digestible fibers are a composition containing at least 60% (in dry mass) of non-digestible oligosaccharide, soluble or insoluble, that escapes digestion in the small intestine of healthy persons and do not raise blood glucose levels,
A method for establishing a secure wireless connection between a first electronic device and a second electronic device , the method comprising: generating (S302), on a server , a temporary code ; registering (S304), on the first electronic device , the temporary code , wherein the temporary code is registered on the first electronic device by a user of the first electronic device ; sending (S306), from the server to the second electronic device via a wired connection, the temporary code ; determining (S308), on the first electronic device , a first temporary credential based on the temporary code , wherein the first temporary credential is an output of a key derivation function using the temporary code as input; determining (S310), on the second electronic device , a second temporary credential based on the temporary code , wherein the second temporary credential an output of a key derivation function using the temporary code as input; establishing (S312), using the first temporary credential and the second temporary credential , a temporary wireless connection between the first electronic device and the second electronic device ; determining (S314), on the second electronic device , a secure credential based on a secret only accessible to the second electronic device ; sending (S316), from the second electronic device to the first electronic device , the secure credential via the temporary wireless connection ; and establishing (S318), using the secure credential , the secure wireless connection between the first electronic device and the second electronic device . generating (S302), on a server , a temporary code ; registering (S304), on the first electronic device , the temporary code , wherein the temporary code is registered on the first electronic device by a user of the first electronic device ; sending (S306), from the server to the second electronic device via a wired connection, the temporary code ; determining (S308), on the first electronic device , a first temporary credential based on the temporary code , wherein the first temporary credential is an output of a key derivation function using the temporary code as input; determining (S310), on the second electronic device , a second temporary credential based on the temporary code , wherein the second temporary credential an output of a key derivation function using the temporary code as input; establishing (S312), using the first temporary credential and the second temporary credential , a temporary wireless connection between the first electronic device and the second electronic device ; determining (S314), on the second electronic device , a secure credential based on a secret only accessible to the second electronic device ; sending (S316), from the second electronic device to the first electronic device , the secure credential via the temporary wireless connection ; and establishing (S318), using the secure credential , the secure wireless connection between the first electronic device and the second electronic device .
A method comprising: Receiving , by a computing device , data indicative of a scan of a virtual maxillary arch representing a maxillary arch of a patient and a virtual mandibular arch representing a mandibular arch of the patient; Determining , by the computing device, one or more treatment plans for the patient based on an initial state of the virtual maxillary arch and the virtual mandibular arch; Modifying , by the computing device, the virtual maxillary arch and the virtual mandibular arch to generate a target state for each of the one or more treatment plans; virtually articulating , by the computing device, the modified virtual maxillary arch and the modified virtual mandibular arch to determine contact points at the target state for each of the one or more treatment plans; computing , by the computing device, a dynamic collision metric based on the contact points at the target state for each of the one or more treatment plans; determining , by the computing device, a discomfort score based on the dynamic collision metric at the target setup state for each of the one or more treatment plans, wherein the discomfort score indicates a level of predicted discomfort in the patient; outputting , by the computing device, data indicative of the dynamic collision metric for each of the one or more treatment plans; and outputting, by the computing device, data indicative of the discomfort score for each of the one or more treatment plans. Receiving , by a computing device , data indicative of a scan of a virtual maxillary arch representing a maxillary arch of a patient and a virtual mandibular arch representing a mandibular arch of the patient; Determining , by the computing device, one or more treatment plans for the patient based on an initial state of the virtual maxillary arch and the virtual mandibular arch; Modifying , by the computing device, the virtual maxillary arch and the virtual mandibular arch to generate a target state for each of the one or more treatment plans; virtually articulating , by the computing device, the modified virtual maxillary arch and the modified virtual mandibular arch to determine contact points at the target state for each of the one or more treatment plans; computing , by the computing device, a dynamic collision metric based on the contact points at the target state for each of the one or more treatment plans; determining , by the computing device, a discomfort score based on the dynamic collision metric at the target setup state for each of the one or more treatment plans, wherein the discomfort score indicates a level of predicted discomfort in the patient; outputting , by the computing device, data indicative of the dynamic collision metric for each of the one or more treatment plans; and outputting, by the computing device, data indicative of the discomfort score for each of the one or more treatment plans.