mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft having a hybrid electrical propulsion system comprising an electric motor and a heat engine , the aircraft comprising: a fuselage defining a longitudinal axis (A) between a forward end and an aft end ; and an electrical system of the hybrid electrical propulsion system having an electric storage and an electric-motor controller electrically connected to the electric storage , wherein the electric-motor controller is positioned on a top portion of the aircraft; wherein the electric storage is positioned on a bottom side of a cabin of the aircraft opposite from the electric-motor controller , wherein the electrical system includes at least one conductor extending from the electric storage , up a first side of a cabin wall of the aircraft to the electric-motor controller . a fuselage defining a longitudinal axis (A) between a forward end and an aft end ; and an electrical system of the hybrid electrical propulsion system having an electric storage and an electric-motor controller electrically connected to the electric storage , wherein the electric-motor controller is positioned on a top portion of the aircraft; wherein the electric storage is positioned on a bottom side of a cabin of the aircraft opposite from the electric-motor controller , wherein the electrical system includes at least one conductor extending from the electric storage , up a first side of a cabin wall of the aircraft to the electric-motor controller .
A laser-jet apparatus for creating a penetration through a stress region adjacent to a wellbore of a subterranean well , the laser-jet apparatus comprising: an outer tool housing , the outer tool housing being a tubular member with a housing central bore ; a laser assembly , the laser assembly having: a lens case located in the housing central bore with an outer diameter that is smaller than an inner diameter of the housing central bore , defining an annular passage between the tool housing and the lens case ; a focusing lens located within the lens case , the focusing lens shaped to control the divergence of a laser beam passing through the lens case ; and a collimating lens located within the lens case , the collimating lens shaped to fix the diameter of the laser beam ; a jet fluid path located in the annular passage, the jet fluid path shaped to merge a jet fluid with the laser beam ; and wherein the outer tool housing has a frusto-conical tip at an exit end, the frusto-conical tip shaped to direct the combined jet fluid and laser beam to the stress region adjacent the wellbore the apparatus characterized in that : the collimating lens and focusing lens are arranged such that laser beam passes through collimating lens after passing through focusing lens . an outer tool housing , the outer tool housing being a tubular member with a housing central bore ; a laser assembly , the laser assembly having: a lens case located in the housing central bore with an outer diameter that is smaller than an inner diameter of the housing central bore , defining an annular passage between the tool housing and the lens case ; a focusing lens located within the lens case , the focusing lens shaped to control the divergence of a laser beam passing through the lens case ; and a collimating lens located within the lens case , the collimating lens shaped to fix the diameter of the laser beam ; a lens case located in the housing central bore with an outer diameter that is smaller than an inner diameter of the housing central bore , defining an annular passage between the tool housing and the lens case ; a focusing lens located within the lens case , the focusing lens shaped to control the divergence of a laser beam passing through the lens case ; and a collimating lens located within the lens case , the collimating lens shaped to fix the diameter of the laser beam ; a jet fluid path located in the annular passage, the jet fluid path shaped to merge a jet fluid with the laser beam ; and wherein the outer tool housing has a frusto-conical tip at an exit end, the frusto-conical tip shaped to direct the combined jet fluid and laser beam to the stress region adjacent the wellbore the apparatus characterized in that : the collimating lens and focusing lens are arranged such that laser beam passes through collimating lens after passing through focusing lens .
A chemical heat storage material comprising: a surface layer formed of silica and calcium silicate; and calcium oxide particles with the surface layer, wherein the calcium silicate is formed between the silica layer and the calcium oxide particles.
A composition for use in treating muscular dystrophy or dystrophinopathy comprising a therapeutically effective amount of recombinant AAV vector expressing miR-29c, wherein the composition is administered with a second composition comprising a therapeutically effective amount of recombinant AAV vector expressing micro-dystrophin, wherein the recombinant AAV vector expressing miR-29c comprises the nucleotide sequences of SEQ ID NO: 3 and SEQ ID NO: 4, and the recombinant AAV vector expressing micro-dystrophin comprises a muscle specific control element operably linked to the nucleotide sequence of SEQ ID NO: 7.
A method for controlling a subject vehicle travelling along a road behind a vehicle transmitting wireless signals representative of the velocity and/or acceleration of the transmitting vehicle or at least one parameter affecting the velocity and/or acceleration of the transmitting vehicle , the method comprising - receiving said wireless signals from the transmitting vehicle via means for wireless communication of the subject vehicle , and - controlling (S6) the velocity and/or acceleration of the subject vehicle in dependence on the received signals, - during said control (S6) in dependence on the received signals, monitoring (S3) by means of the subject vehicle other than the means for wireless communication a distance (DSF) between the subject vehicle and a further vehicle travelling between the subject vehicle and the transmitting vehicle , wherein the monitoring of the distance (DSF) between the subject vehicle and the further vehicle comprises continuously or repeatedly determining the distance (DSF) between the subject vehicle and the further vehicle , and comparing (S4) the determined distance (DSF) to a threshold distance value, - and determining in dependence on the monitoring of the distance (DSF) between the subject vehicle and the further vehicle whether or not to control (S5) the velocity and/or acceleration of the subject vehicle in dependence on the monitored distance (DSF), characterized in that, as long as the determined distance (DSF) is above the threshold distance value, the control (S6) in dependence on the signals received from the transmitting vehicle is maintained. - receiving said wireless signals from the transmitting vehicle via means for wireless communication of the subject vehicle , and - controlling (S6) the velocity and/or acceleration of the subject vehicle in dependence on the received signals, - during said control (S6) in dependence on the received signals, monitoring (S3) by means of the subject vehicle other than the means for wireless communication a distance (DSF) between the subject vehicle and a further vehicle travelling between the subject vehicle and the transmitting vehicle , wherein the monitoring of the distance (DSF) between the subject vehicle and the further vehicle comprises continuously or repeatedly determining the distance (DSF) between the subject vehicle and the further vehicle , and comparing (S4) the determined distance (DSF) to a threshold distance value, - and determining in dependence on the monitoring of the distance (DSF) between the subject vehicle and the further vehicle whether or not to control (S5) the velocity and/or acceleration of the subject vehicle in dependence on the monitored distance (DSF), characterized in that, as long as the determined distance (DSF) is above the threshold distance value, the control (S6) in dependence on the signals received from the transmitting vehicle is maintained.
A sound-absorbing panel comprising an absorption layer formed of an open-pored porous material of a fibreboard comprising a compressed and baked fibre mat , wherein at least a part of the fibres of the fibre mat being made of plastic-coated melt fibres having a fibre core and a fibre sheath , and the material of the fibre core having a higher melting point than the material of the fibre sheath , the fibreboard being made of at least two fibre mats , wherein that each fibre mat comprises matrix fibres in addition to the said melt fibres , wherein the melt fibres consist of a core of PET and a sheath of co-PET, wherein the at least two fibre mats are assembled to form a fibre mat unit, characterized in that the at least two fibre mats are each made solely of a thermoplastic material which is PET, in that the matrix fibres consist of PET and the fibre content of the matrix fibres is between 20 and 60% by weight and in that the thickness of the at least two fibre mats in the fibre mat unit is between 5 and 25 millimetres each and in that the thickness of the assembled fibre mat unit is between 30 and 120 millimetres, which fibre mat unit is brought to a fibreboard between 15 and 35 millimetres thick after the pressing and baking step.
Road construction machine, in particular slipform paver or curing machine for freshly manufactured concrete layers, comprising a machine frame supported by running gears (3A, 3B; 4A, 4B), on which machine frame a working device is provided, which has a working means that can be moved in the direction running transversely to the working direction (I), which working means is fastened to a carriage which is guided on a linear guide running transversely to the working direction, characterised in that the carriage is connected to a cable that is deflected on one longitudinal side of the machine frame , the free ends of which are fastened to the cable drum of a cable winch on the other longitudinal side of the machine frame in such a way that the carriage can be moved in the transverse direction by rotating the cable drum, the cable drum having a first and a second drum half , one end of the cable being fastened to one drum half and the other end of the cable being fastened to the other drum half , and in that the cable winch is designed in such a way that the cable winch can assume a first operating mode in which the first and second drum halves are connected to one another in such a way that rotating the first and/or second drum halves in one direction or the other causes the carriage to move in one direction or in the other direction, and the cable winch can assume a second operating mode, in which the first and second drum halves can be rotated in opposite directions at least in one direction of rotation, so that the cable tension of the cable can be adjusted by rotating one drum half relative to the other drum half. the carriage is connected to a cable that is deflected on one longitudinal side of the machine frame , the free ends of which are fastened to the cable drum of a cable winch on the other longitudinal side of the machine frame in such a way that the carriage can be moved in the transverse direction by rotating the cable drum, the cable drum having a first and a second drum half , one end of the cable being fastened to one drum half and the other end of the cable being fastened to the other drum half , and in that the cable winch is designed in such a way that the cable winch can assume a first operating mode in which the first and second drum halves are connected to one another in such a way that rotating the first and/or second drum halves in one direction or the other causes the carriage to move in one direction or in the other direction, and the cable winch can assume a second operating mode, in which the first and second drum halves can be rotated in opposite directions at least in one direction of rotation, so that the cable tension of the cable can be adjusted by rotating one drum half relative to the other drum half.
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a first liquid pipe having a first flow path and configured to connect the evaporator and the first condenser ; a second liquid pipe having a second flow path and configured to connect the evaporator and the second condenser ; a first vapor pipe configured to connect the evaporator and the first condenser ; and a second vapor pipe configured to connect the evaporator and the second condenser ; wherein the evaporator has: a third flow path connected to the first liquid pipe and the first vapor pipe , and a fourth flow path connected to the second liquid pipe and the second vapor pipe , characterized in that the loop-type heat pipe comprises a connecting portion configured to connect the first liquid pipe and second liquid pipe to the evaporator , wherein the connecting portion has a first porous body configured to connect the first flow path and the second flow path , and the evaporator has a partitioning wall configured to partition the third flow path and the fourth flow path . an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a first liquid pipe having a first flow path and configured to connect the evaporator and the first condenser ; a second liquid pipe having a second flow path and configured to connect the evaporator and the second condenser ; a first vapor pipe configured to connect the evaporator and the first condenser ; and a second vapor pipe configured to connect the evaporator and the second condenser ; wherein the evaporator has: a third flow path connected to the first liquid pipe and the first vapor pipe , and a fourth flow path connected to the second liquid pipe and the second vapor pipe , characterized in that the loop-type heat pipe comprises a connecting portion configured to connect the first liquid pipe and second liquid pipe to the evaporator , wherein the connecting portion has a first porous body configured to connect the first flow path and the second flow path , and the evaporator has a partitioning wall configured to partition the third flow path and the fourth flow path . a third flow path connected to the first liquid pipe and the first vapor pipe , and a fourth flow path connected to the second liquid pipe and the second vapor pipe , characterized in that the loop-type heat pipe comprises a connecting portion configured to connect the first liquid pipe and second liquid pipe to the evaporator , wherein the connecting portion has a first porous body configured to connect the first flow path and the second flow path , and the evaporator has a partitioning wall configured to partition the third flow path and the fourth flow path .
A lattice of ceramic tubes comprising a plurality of ceramic tubes , each provided with a hollow interior accessible through two opposite ends of the ceramic tube , a connection system mutually connecting the plurality of ceramic tubes , forming a chain of ceramic tubes, a fixing system anchoring the connection system to a support; wherein the connection system comprises an anchoring for each end of each ceramic tube inserted by pressure into a portion of the hollow interior of the ceramic tube adjacent to the end thereof, characterized in that the connection system further comprises a flexible connector mutually connecting the anchorings of successive ceramic tubes adjacent to one another within the chain of ceramic tubes , the flexible connector being configured for allowing a 180° folding between successive segments of the chain of ceramic tubes, allowing the chain of ceramic tubes to be folded through the flexible connectors for storage and transport. a plurality of ceramic tubes , each provided with a hollow interior accessible through two opposite ends of the ceramic tube , a connection system mutually connecting the plurality of ceramic tubes , forming a chain of ceramic tubes, a fixing system anchoring the connection system to a support; wherein the connection system comprises an anchoring for each end of each ceramic tube inserted by pressure into a portion of the hollow interior of the ceramic tube adjacent to the end thereof, characterized in that the connection system further comprises a flexible connector mutually connecting the anchorings of successive ceramic tubes adjacent to one another within the chain of ceramic tubes , the flexible connector being configured for allowing a 180° folding between successive segments of the chain of ceramic tubes, allowing the chain of ceramic tubes to be folded through the flexible connectors for storage and transport.
Thermal management system for a vehicle, wherein the thermal management system comprises a first coolant circuit for a battery and a second coolant circuit for an electric motor for driving the vehicle, wherein the two coolant circuits can be operated by means of a multi-way valve in series with one another in a first mode of the system and in a first valve position of the multi-way valve or in parallel with one another in a second mode of the system and in a second valve position of the multi-way valve , wherein the thermal management system further comprises an oil cooling circuit for additionally cooling the electric motor , wherein the oil cooling circuit is thermally connected to the second coolant circuit via a heat exchanger , characterized in that the two coolant circuits can alternatively also be operated in a third mode of the system and in a third valve position of the multi-way valve , in which the multi-way valve takes up an intermediate position in which the coolant flows of the two coolant circuits are mixed with each other as needed.
A memory interface circuit comprising: a first transmit and receive data interface, that is configured to communicate with a second transmit and receive data interface of a second memory interface circuit over a transmission channel, wherein the first transmit and receive data interface includes a selectable on-die termination resistance configured to be turned on when receiving data in a first data transmission mode and turned off when receiving data in a second data transmission mode on a single-ended transmission line of the transmission channel; and a power supply electrically coupled to the first transmit and receive data interface and configured to apply a first voltage level for the first data transmission mode and to apply a second voltage level for the second data transmission mode, where the second voltage level is lower than the first voltage level; wherein a voltage swing of the single-ended transmission line at the first transmit and receive data interface is the same in both the first data transmission mode and in the second data transmission mode. a first transmit and receive data interface, that is configured to communicate with a second transmit and receive data interface of a second memory interface circuit over a transmission channel, wherein the first transmit and receive data interface includes a selectable on-die termination resistance configured to be turned on when receiving data in a first data transmission mode and turned off when receiving data in a second data transmission mode on a single-ended transmission line of the transmission channel; and a power supply electrically coupled to the first transmit and receive data interface and configured to apply a first voltage level for the first data transmission mode and to apply a second voltage level for the second data transmission mode, where the second voltage level is lower than the first voltage level; wherein a voltage swing of the single-ended transmission line at the first transmit and receive data interface is the same in both the first data transmission mode and in the second data transmission mode.
A child car seat , to be positioned on a seat of a motor vehicle, comprising a base provided with an ISOFIX coupling system , for anchoring the same to the seat of the motor vehicle, and a shell positioned on the base in an angularly reclinable manner with respect thereto, the shell extending between a lower portion, proximal to the base , and an upper portion, distal from the base , and being provided with a sitting part at the lower portion and a backrest extending between the lower portion and the upper portion, said shell being connectable to a fixed point of the vehicle by means of a top tether anchorage, comprising a flexible element extending longitudinally between a first end and a second end , said second end being connectable to said fixed point of the vehicle, characterized in that said first end of said flexible element is fixed to a coupling point positioned on said lower portion of the shell and said flexible element engages with said base , passing around a first return element positioned on said base of the child car seat , and engages with said shell passing around a second return element positioned on the backrest at the upper portion of said shell .
A socket comprising: an upper socket base ; a lower socket base coupled to the upper socket base, characterized in that the lower socket base coupled to the upper socket base defines an aperture sized to allow insertion of a subscriber identification module (SIM) card and a secure digital (SD) card and delimits an interior space sized to accommodate the SIM card and SD card in a back to back abutting relationship, such that pins of the SD card and pins of the SIM card face opposite directions; a first set of pins coupled to the upper socket base and configured to interoperate with the SD card; and a second set of pins coupled to the lower socket base and configured to interoperate with the SIM card. an upper socket base ; a lower socket base coupled to the upper socket base, characterized in that the lower socket base coupled to the upper socket base defines an aperture sized to allow insertion of a subscriber identification module (SIM) card and a secure digital (SD) card and delimits an interior space sized to accommodate the SIM card and SD card in a back to back abutting relationship, such that pins of the SD card and pins of the SIM card face opposite directions; a first set of pins coupled to the upper socket base and configured to interoperate with the SD card; and a second set of pins coupled to the lower socket base and configured to interoperate with the SIM card.