mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communicating between a first passive subscriber and a second passive subscriber of a bus system , wherein a first differential double line and a second differential double line are used for the communication, wherein an original static pattern with a predetermined bit length is transmitted via the first differential double line , wherein the original static pattern defines a transmit-receive clock , wherein original user data are transmitted via the second differential double line , wherein the original user data comprise a transmit data word having the predetermined bit length, wherein the first passive subscriber encodes the original static pattern in a first transmit SERDES element and transmits it via the first differential double line as an encoded static pattern to the second passive subscriber , and encodes the original user data synchronized in time with the original static pattern in a second transmit SERDES element and transmits it via the second differential double line to the second passive subscriber as encoded user data , wherein the second passive subscriber receives the encoded static pattern and the encoded user data , wherein the second passive subscriber generates a sampling clock and a clock synchronous to the transmit-receive clock from the encoded static pattern , wherein the sampling clock comprises a first phase offset with regard to the transmit-receive clock , wherein the synchronous clock comprises a second phase offset with regard to the transmit-receive clock , wherein the second passive subscriber decodes the encoded static pattern with the aid of a first receive SERDES element and decodes the encoded user data with the aid of a second receive SERDES element , thus obtaining a receive data word, wherein the first receive SERDES element and the second receive SERDES element are operated based on the sampling clock , wherein the receive data word is output synchronously with the synchronous clock .
A sensor comprising: a number of sensing pixels configured to detect light incident thereon, and generate respective sense currents, based on the detected light; a number of dummy pixels configured to generate respective dark currents, under a light-free condition; and a current mirror configured to receive the dark currents, and output one mirrored current to each sensing pixel, wherein each sensing pixel generates one light current, by subtracting the mirrored current from the sense current, and generates one activation signal based on the light current, and wherein the sensor further comprises a controller configured to generate an event signal based on the activation signal, CHARACTERISED IN THAT each mirrored current is an average current of the dark currents of the number of dummy pixels; and at least one of the number of dummy pixels and the number of sensing pixels are configured to be adjusted, such that a sum of dark currents of the number sensing pixels is the same as a sum of currents flowing in the number of dummy pixels. a number of sensing pixels configured to detect light incident thereon, and generate respective sense currents, based on the detected light; a number of dummy pixels configured to generate respective dark currents, under a light-free condition; and a current mirror configured to receive the dark currents, and output one mirrored current to each sensing pixel, wherein each sensing pixel generates one light current, by subtracting the mirrored current from the sense current, and generates one activation signal based on the light current, and wherein the sensor further comprises a controller configured to generate an event signal based on the activation signal, CHARACTERISED IN THAT each mirrored current is an average current of the dark currents of the number of dummy pixels; and at least one of the number of dummy pixels and the number of sensing pixels are configured to be adjusted, such that a sum of dark currents of the number sensing pixels is the same as a sum of currents flowing in the number of dummy pixels.
A pharmaceutical composition for use in the treatment of a subject having hemophilia A characterized by an inversion of exons 1-22 in a Factor VIII gene, said pharmaceutical composition comprising a pharmaceutically acceptable carrier and an effective amount of a nucleic acid encoding an engineered nuclease, wherein said engineered nuclease is expressed in a target cell in vivo, wherein said engineered nuclease has specificity for a recognition sequence positioned within an int22h-1 sequence of said Factor VIII gene, wherein said int22h-1 sequence comprises a nucleotide sequence having at least 95% sequence identity to SEQ ID NO: 3 or SEQ ID NO: 4, wherein said engineered nuclease is an engineered meganuclease, a TALEN, a zinc finger nuclease, a compact TALEN, a CRISPR, or a megaTAL, wherein said recognition sequence does not comprise a CpG site, and wherein said recognition sequence is at least 95% identical between the human genome and in the canine genome. wherein said engineered nuclease has specificity for a recognition sequence positioned within an int22h-1 sequence of said Factor VIII gene, wherein said int22h-1 sequence comprises a nucleotide sequence having at least 95% sequence identity to SEQ ID NO: 3 or SEQ ID NO: 4, wherein said engineered nuclease is an engineered meganuclease, a TALEN, a zinc finger nuclease, a compact TALEN, a CRISPR, or a megaTAL, wherein said recognition sequence does not comprise a CpG site, and wherein said recognition sequence is at least 95% identical between the human genome and in the canine genome.
Machine having a rotor , which is mounted cantilevered on a bearing and which has an axis of rotation (A) along which, proceeding from the bearing , there extends a free, otherwise unmounted rotor end , - which has a rotor end face , spaced apart from a stationary rotor counter face of the machine by a gap , and - which during operation of the machine , when the rotor is rotating, is deflected with respect to the axis of rotation (A) as a result of unbalances of the rotor which is mounted cantilevered, in particular of the free, unmounted rotor end , or as a result of externally introduced forces, wherein the rotor end face is curved or chamfered, at least in the edge region thereof, so as to fall away towards the edge (R) thereof and in the direction of the bearing , and wherein devices for rinsing the gap with a gaseous fluid are included. - which has a rotor end face , spaced apart from a stationary rotor counter face of the machine by a gap , and - which during operation of the machine , when the rotor is rotating, is deflected with respect to the axis of rotation (A) as a result of unbalances of the rotor which is mounted cantilevered, in particular of the free, unmounted rotor end , or as a result of externally introduced forces, wherein the rotor end face is curved or chamfered, at least in the edge region thereof, so as to fall away towards the edge (R) thereof and in the direction of the bearing , and wherein devices for rinsing the gap with a gaseous fluid are included. wherein the rotor end face is curved or chamfered, at least in the edge region thereof, so as to fall away towards the edge (R) thereof and in the direction of the bearing , and wherein devices for rinsing the gap with a gaseous fluid are included.
A plastic polarized lens comprising: a polarized film and layers comprising a thiourethane-based resin stacked over both surfaces of the polarized film, wherein the polarized film contains a water-insoluble dye including at least one dichroic dye and an organic coloring compound represented by the following general formula : wherein A 1 to A 8 each independently represent a hydrogen atom, a halogen atom, a nitro group, a cyano group, a hydroxy group, an amino group, a carboxyl group, a sulfone group, a linear, branched, or cyclic alkyl group having 1 to 20 carbon atoms, an alkoxy group having 1 to 20 carbon atoms, an aryloxy group having 6 to 20 carbon atoms, a monoalkylamino group having 1 to 20 carbon atoms, a dialkylamino group having 2 to 20 carbon atoms, an aralkyl group having 7 to 20 carbon atoms, an aryl group having 6 to 20 carbon atoms, a heteroaryl group, an alkylthio group having 1 to 20 carbon atoms, or an arylthio group having 1 to 20 carbon atoms, or may form a ring other than an aromatic ring through a linking group, and M represents two hydrogen atoms, a divalent metal atom, a trivalent mono-substituted metal atom, a tetravalent di-substituted metal atom, or an oxy metal. a polarized film and layers comprising a thiourethane-based resin stacked over both surfaces of the polarized film, wherein the polarized film contains a water-insoluble dye including at least one dichroic dye and an organic coloring compound represented by the following general formula : wherein A 1 to A 8 each independently represent a hydrogen atom, a halogen atom, a nitro group, a cyano group, a hydroxy group, an amino group, a carboxyl group, a sulfone group, a linear, branched, or cyclic alkyl group having 1 to 20 carbon atoms, an alkoxy group having 1 to 20 carbon atoms, an aryloxy group having 6 to 20 carbon atoms, a monoalkylamino group having 1 to 20 carbon atoms, a dialkylamino group having 2 to 20 carbon atoms, an aralkyl group having 7 to 20 carbon atoms, an aryl group having 6 to 20 carbon atoms, a heteroaryl group, an alkylthio group having 1 to 20 carbon atoms, or an arylthio group having 1 to 20 carbon atoms, or may form a ring other than an aromatic ring through a linking group, and M represents two hydrogen atoms, a divalent metal atom, a trivalent mono-substituted metal atom, a tetravalent di-substituted metal atom, or an oxy metal.
A welding system , comprising: one or more processors , a welding torch operatively coupled to the one or more processors , and a power source operatively coupled to the welding torch , for performing pulsed welding with the welding torch , characterised in that the one or more processors are configured to receive a weld signature and are configured to extract features from the weld signature and to analyze the features for each pulse of the weld signature, wherein the power source is configured to keep substantially constant a pulsed current from the welding torch to a workpiece and is configured to allow the pulsed voltage from the welding torch to the workpiece to vary in a context of the pulsed welding, wherein the weld signature includes a current signature and a voltage signature, and wherein the features synthesized from the weld signature include pulse boundaries from the current signature and droplet features from the voltage signature. one or more processors , a welding torch operatively coupled to the one or more processors , and a power source operatively coupled to the welding torch , for performing pulsed welding with the welding torch , characterised in that the one or more processors are configured to receive a weld signature and are configured to extract features from the weld signature and to analyze the features for each pulse of the weld signature, wherein the power source is configured to keep substantially constant a pulsed current from the welding torch to a workpiece and is configured to allow the pulsed voltage from the welding torch to the workpiece to vary in a context of the pulsed welding, wherein the weld signature includes a current signature and a voltage signature, and wherein the features synthesized from the weld signature include pulse boundaries from the current signature and droplet features from the voltage signature.
A modular tubular system comprising: a tubular section made of a second material not suitable for handling with conventional tubular handling tools (28; 76), the tubular section forming a majority portion of an overall length of the modular tubular system; and a tool handling section made of a first material, different from the second material, suitable for handling with conventional tubular handling tools (28; 76), the tool handling section comprising: a box tool joint , formed at one end of the tool handling section , comprising a female threaded end for connecting the modular tubular system to a mating tubular section, a service joint , formed at an opposite end of the tool handling section , comprising a female threaded end that is connected to a male threaded end of the tubular section , and a neck section , of reduced outer diameter as compared to the ends of the tool handling section , forming a handling tube suitable for conventional tubular handling tools (28; 76). a tubular section made of a second material not suitable for handling with conventional tubular handling tools (28; 76), the tubular section forming a majority portion of an overall length of the modular tubular system; and a tool handling section made of a first material, different from the second material, suitable for handling with conventional tubular handling tools (28; 76), the tool handling section comprising: a box tool joint , formed at one end of the tool handling section , comprising a female threaded end for connecting the modular tubular system to a mating tubular section, a service joint , formed at an opposite end of the tool handling section , comprising a female threaded end that is connected to a male threaded end of the tubular section , and a neck section , of reduced outer diameter as compared to the ends of the tool handling section , forming a handling tube suitable for conventional tubular handling tools (28; 76). a box tool joint , formed at one end of the tool handling section , comprising a female threaded end for connecting the modular tubular system to a mating tubular section, a service joint , formed at an opposite end of the tool handling section , comprising a female threaded end that is connected to a male threaded end of the tubular section , and a neck section , of reduced outer diameter as compared to the ends of the tool handling section , forming a handling tube suitable for conventional tubular handling tools (28; 76).
A medical device , comprising: a tube having a distal end and a proximal end ; a first lumen extending from the proximal end to the distal end of the tube and in fluid communication with the distal end and a plurality of side ports located within a plurality of recesses at a distal portion of the tube ; a second lumen extending from the proximal end to the distal end of the tube ; a vacuum source connected to the second lumen and/or a fluid supply assembly connected to the first lumen ; and a laser fiber disposed within the first lumen . a tube having a distal end and a proximal end ; a first lumen extending from the proximal end to the distal end of the tube and in fluid communication with the distal end and a plurality of side ports located within a plurality of recesses at a distal portion of the tube ; a second lumen extending from the proximal end to the distal end of the tube ; a vacuum source connected to the second lumen and/or a fluid supply assembly connected to the first lumen ; and a laser fiber disposed within the first lumen .
A pulsed plasma thruster comprising: a spool having a fiber propellant wound thereon; a motor in communication with the fiber propellant to pull the fiber propellant from the spool ; an insulated tube configured to have one end in communication with the motor such that the fiber propellant is fed into the insulated tube; an anode bored through and having one end in communication with the insulated tube , such that the fiber propellant travels through the anode , the anode having an exit end ; a coaxial insulator positioned about the exit end of the anode ; a cathode connected to the insulator , the cathode having an interior profile shaped into a nozzle region; and one or more igniters , each igniter fitted through a corresponding opening in the cathode , wherein when the one or more igniters is triggered, the triggered igniter is configured to expel electrons toward the anode to ignite a primary current discharge above 10 kA between the anode and cathode thereby creating a plasma that vaporizes the fiber propellant at the exit end , and wherein the vaporizing fiber propellant combines with the current discharge above 10 kA to create a partially ionized gas electromagnetically and electrothermally accelerated outward from the nozzle region to produce a J × B thrust, and wherein as the fiber propellant vaporizes, the motor feeds more fiber propellant from the spool to the exit end . a spool having a fiber propellant wound thereon; a motor in communication with the fiber propellant to pull the fiber propellant from the spool ; an insulated tube configured to have one end in communication with the motor such that the fiber propellant is fed into the insulated tube; an anode bored through and having one end in communication with the insulated tube , such that the fiber propellant travels through the anode , the anode having an exit end ; a coaxial insulator positioned about the exit end of the anode ; a cathode connected to the insulator , the cathode having an interior profile shaped into a nozzle region; and one or more igniters , each igniter fitted through a corresponding opening in the cathode , wherein when the one or more igniters is triggered, the triggered igniter is configured to expel electrons toward the anode to ignite a primary current discharge above 10 kA between the anode and cathode thereby creating a plasma that vaporizes the fiber propellant at the exit end , and wherein the vaporizing fiber propellant combines with the current discharge above 10 kA to create a partially ionized gas electromagnetically and electrothermally accelerated outward from the nozzle region to produce a J × B thrust, and wherein as the fiber propellant vaporizes, the motor feeds more fiber propellant from the spool to the exit end .
A magazine type shaver , comprising a shaver head assembly , and a magazine body for holding, wherein the shaver head assembly comprises a first shaver head and a second shaver head which are interchangeable, the magazine body is a hollow structure which forms a receiving chamber with an opening for receiving the first shaver head and the second shaver head , and the magazine body is provided with a connection part selectively assembled with the first shaver head or the second shaver head characterized in that the magazine type shaver further comprises an elastic element , which is accommodated in the receiving chamber and urges the first shaver head or the second shaver head received in receiving chamber to slide towards the opening .
An apparatus for heating a product, the apparatus comprising: a housing that defines a reaction chamber; a rigid barrier inside the reaction chamber that demarcates a first portion of the reaction chamber from a second portion of the reaction chamber; a first liquid chemical reactant inside the reaction chamber; a flexible container , inside the first portion of the reaction chamber, and immersed in the first liquid chemical reactant and a second liquid chemical reactant within the flexible container that is configured to react exothermically with the first chemical reactant upon contact; characterized in that the apparatus further comprises: a piercing element that is movable to pierce the flexible container and to help define a fluid communication path from inside the flexible container to the second portion of the reaction chamber when a distal end of the piercing element is extended into the flexible container , and one or more fluid distribution channels in the second portion of the reaction chamber configured to carry the second liquid chemical reactant from the fluid communication path to a section of the first portion of the reaction chamber away from where the flexible container is located. a housing that defines a reaction chamber; a rigid barrier inside the reaction chamber that demarcates a first portion of the reaction chamber from a second portion of the reaction chamber; a first liquid chemical reactant inside the reaction chamber; a flexible container , inside the first portion of the reaction chamber, and immersed in the first liquid chemical reactant and a second liquid chemical reactant within the flexible container that is configured to react exothermically with the first chemical reactant upon contact; characterized in that the apparatus further comprises: a piercing element that is movable to pierce the flexible container and to help define a fluid communication path from inside the flexible container to the second portion of the reaction chamber when a distal end of the piercing element is extended into the flexible container , and one or more fluid distribution channels in the second portion of the reaction chamber configured to carry the second liquid chemical reactant from the fluid communication path to a section of the first portion of the reaction chamber away from where the flexible container is located. a piercing element that is movable to pierce the flexible container and to help define a fluid communication path from inside the flexible container to the second portion of the reaction chamber when a distal end of the piercing element is extended into the flexible container , and one or more fluid distribution channels in the second portion of the reaction chamber configured to carry the second liquid chemical reactant from the fluid communication path to a section of the first portion of the reaction chamber away from where the flexible container is located.
A method of controlling a gas furnace that performs heating operation according to a heating signal (W) received from a thermostat and formed of one of a weak heating signal (W1) and a strong heating signal (W2), the weak heating signal (W1) which causes an operation of the gas furnace at a certain weak heating capacity smaller than a maximum heating capacity thereof, the strong heating signal (W2) which causes an operation of the gas furnace at the maximum heating capacity thereof, the method comprising the steps of: (a) receiving (S10) the heating signal (W); (b) determining (S20) whether the heating signal (W) is the weak heating signal (W1) or the strong heating signal (W2), based on a type of the received heating signal (W); (c) after the step (b) either operating (S50) a strong heating of the gas furnace when the heating signal (W) is the strong heating signal (W2) or calculating (S30) the certain weak heating capacity, when the heating signal (W) is the weak heating signal (W1); and (d) operating (S40) a weak heating of the gas furnace with the calculated certain weak heating capacity, wherein the step (c) comprises calculating the weak heating capacity according to a difference between an intake air temperature (Ti) sucked into the gas furnace and a reference temperature (Ts), wherein the intake air temperature (Ti) is variable over time, wherein the reference temperature (Ts) is set to a specific temperature higher than a specific intake air temperature at a certain time point among the variable intake air temperature (Ti), and wherein the weak heating capacity is varied in a stepwise manner according to a magnitude of a temperature difference (Td) obtained by subtracting the intake air temperature (Ti) from the reference temperature (Ts), based on a preset starting capacity. (a) receiving (S10) the heating signal (W); (b) determining (S20) whether the heating signal (W) is the weak heating signal (W1) or the strong heating signal (W2), based on a type of the received heating signal (W); (c) after the step (b) either operating (S50) a strong heating of the gas furnace when the heating signal (W) is the strong heating signal (W2) or calculating (S30) the certain weak heating capacity, when the heating signal (W) is the weak heating signal (W1); and (d) operating (S40) a weak heating of the gas furnace with the calculated certain weak heating capacity,