mhurhangee/ep-ind-claims huggingface dataset:
Shear flow stress testing device for fuselage shells consisting of shell couplers, fuselage shells, means for the fixing of shell couplers and fuselage shells and means for the introduction of corrective force, whereby the fuselage shells are connected with means for fixing to shell couplers forming an equivalent cross section for the fuselage and that the equivalent cross section is formed from Nfuselage shells with N-shell couplers, whereby N is a whole number and greater than 1.
A method of synthesizing a MTW framework type zeolite, the method comprising: (a) preparing a reaction mixture comprising: a FAU framework type zeolite; polyethyleneimine; fluoride ions; and water; (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the MTW framework type zeolite; and wherein the reaction mixture has a composition, in terms of molar ratios, as follows: SiO 2 /Al 2 O 3 30 to 500 Q/SiO 2 0.10 to 0.60 F/SiO 2 0.10 to 0.60 H 2 O/SiO 2 10 to 40. (a) preparing a reaction mixture comprising: a FAU framework type zeolite; polyethyleneimine; fluoride ions; and water; a FAU framework type zeolite; polyethyleneimine; fluoride ions; and water; (b) subjecting the reaction mixture to crystallization conditions sufficient to form crystals of the MTW framework type zeolite; and
A wireless fire alarm notification system, comprising: a control panel for broadcasting alarm messages via wireless links; and a wireless repeater device having a slave transceiver that receives the alarm messages from the control panel via the wireless links, the wireless repeater device having a master transceiver for wirelessly broadcasting the alarm messages to slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), wherein the wireless repeater device broadcasts alarm signals to its slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), via the master transceiver, upon receiving an alarm signal from one of its slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), via the master transceiver 116. a control panel for broadcasting alarm messages via wireless links; and a wireless repeater device having a slave transceiver that receives the alarm messages from the control panel via the wireless links, the wireless repeater device having a master transceiver for wirelessly broadcasting the alarm messages to slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), wherein the wireless repeater device broadcasts alarm signals to its slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), via the master transceiver, upon receiving an alarm signal from one of its slave devices (14, 18, 19, 72, 74, 76, 78, 80, 82), via the master transceiver 116.
An apparatus for blocking water and/or mud spray generated by contact of wheels of motorized and non-motorized vehicles with wet road surface, comprising, • A minimum of one blowing vent located on the body of the vehicle and body of the fender, ensuring flow of compressed air at the required angle and speed and generating an air curtain, • A minimum of one air distribution duct located on the underbody of the vehicle, transporting compressed air from a compressed air supply to the blowing vents, • One control unit located on the underbody of the vehicle, processing speed and precipitation data sent by at least one sensor located between the wheels and body of vehicle, detecting speed and precipitation and sending respective speed and precipitation data to the control unit, the control unit using data sent by the at least one sensor to set the optimum air pressure level to be released by the compressed air supply, compressed air tank and valve, • the generated air curtain being located between the inner body of the fender and the wheel, preventing the spray generated by the wheels from egressing out by using the controlled and compressed air blown by blowing ducts. • A minimum of one blowing vent located on the body of the vehicle and body of the fender, ensuring flow of compressed air at the required angle and speed and generating an air curtain, • A minimum of one air distribution duct located on the underbody of the vehicle, transporting compressed air from a compressed air supply to the blowing vents, • One control unit located on the underbody of the vehicle, processing speed and precipitation data sent by at least one sensor located between the wheels and body of vehicle, detecting speed and precipitation and sending respective speed and precipitation data to the control unit, the control unit using data sent by the at least one sensor to set the optimum air pressure level to be released by the compressed air supply, compressed air tank and valve, • the generated air curtain being located between the inner body of the fender and the wheel, preventing the spray generated by the wheels from egressing out by using the controlled and compressed air blown by blowing ducts.
An electrical power system connected to a power grid, comprising: a generator comprising a stator and a rotor, the stator connected to the power grid via a stator power path; a power converter coupled to a rotor bus of the rotor; a control system comprising one or more control devices, the one or more control devices configured to operate the power converter to provide an AC signal for the rotor bus; and, an uninterruptible power supply comprising: a power storage element configured to receive and store electrical power, and configured to power the control system during a power failure; and, a health check circuit configured to verify a health status of the power storage element, the health check circuit comprising a health check disable component configured to disable the health check circuit during the power failure. a generator comprising a stator and a rotor, the stator connected to the power grid via a stator power path; a power converter coupled to a rotor bus of the rotor; a control system comprising one or more control devices, the one or more control devices configured to operate the power converter to provide an AC signal for the rotor bus; and, an uninterruptible power supply comprising: a power storage element configured to receive and store electrical power, and configured to power the control system during a power failure; and, a health check circuit configured to verify a health status of the power storage element, the health check circuit comprising a health check disable component configured to disable the health check circuit during the power failure. a power storage element configured to receive and store electrical power, and configured to power the control system during a power failure; and, a health check circuit configured to verify a health status of the power storage element, the health check circuit comprising a health check disable component configured to disable the health check circuit during the power failure.
A method for unlocking a fin lock mechanism that releasably holds one or more missile control fins in a locked position where the control fins are prevented from rotating, the method comprising the steps of: applying an alternating positive and negative rotational force to a control fin; monitoring the position of the control fin during the applying step; and while the position of the control fin does not exceed a predetermined value, repeating the applying step a predetermined number of times or for a predetermined period. applying an alternating positive and negative rotational force to a control fin; monitoring the position of the control fin during the applying step; and while the position of the control fin does not exceed a predetermined value, repeating the applying step a predetermined number of times or for a predetermined period.
A method of selecting which subset of antennas to use in a base station for wireless telecommunications, the method comprising: using a first subset of antennas for communications with at least one user terminal; monitoring transmit power of a user terminal by processing over time transmit power increment/decrement commands and by processing reports of transmit power sent by the user terminal; calculating average power of the user terminal as a time weighted running average; determining whether the highest of the transmit powers of the at least one user terminal is higher than the average transmit power of that user terminal; dependent upon the result of that determination testing (26,1$) an alternative subset of the antennas for subsequent use. using a first subset of antennas for communications with at least one user terminal; monitoring transmit power of a user terminal by processing over time transmit power increment/decrement commands and by processing reports of transmit power sent by the user terminal; calculating average power of the user terminal as a time weighted running average; determining whether the highest of the transmit powers of the at least one user terminal is higher than the average transmit power of that user terminal; dependent upon the result of that determination testing (26,1$) an alternative subset of the antennas for subsequent use.
A lens barrel, comprising: at least one lens group (51, 52) which constitutes an imaging optical system; a lens frame which retains one lens group of the at least one lens group; a retaining frame which retains the lens frame; the at least one lens group being capable of moving from a collapse position to a photographable position, and characterised in that the lens barrel further comprises a plurality of cam members arranged between the lens frame and the retaining frame, wherein each of the cam members can be moved individually, and the tilt of the lens frame relative to the retaining frame is configured to be changed by moving at least one of the cam members. at least one lens group (51, 52) which constitutes an imaging optical system; a lens frame which retains one lens group of the at least one lens group; a retaining frame which retains the lens frame; the at least one lens group being capable of moving from a collapse position to a photographable position, and characterised in that the lens barrel further comprises a plurality of cam members arranged between the lens frame and the retaining frame, wherein each of the cam members can be moved individually, and the tilt of the lens frame relative to the retaining frame is configured to be changed by moving at least one of the cam members.
A lead having low peak MRI heating, the lead comprising: a lead body having at least one lumen, a proximal end configured to interface with an implantable medical device, and a distal end; a cable conductor extending along at least a portion of the lead body within the at least one lumen; a coil extending along a portion of the distal end of the lead body, at least a section of coil exposed along the portion of the lead body and configured to deliver electrical stimulation therapy, characterized in that the section of the coil is under longitudinal compression to lower peak MRI heating along the section of the coil; and the lead further comprises at least two couplings (74, 76) mechanically and electrically connecting the cable conductor to the coil, where the at least two couplings (74, 76) maintain longitudinal compression of the section of the coil. a lead body having at least one lumen, a proximal end configured to interface with an implantable medical device, and a distal end; a cable conductor extending along at least a portion of the lead body within the at least one lumen; a coil extending along a portion of the distal end of the lead body, at least a section of coil exposed along the portion of the lead body and configured to deliver electrical stimulation therapy, characterized in that the section of the coil is under longitudinal compression to lower peak MRI heating along the section of the coil; and the lead further comprises at least two couplings (74, 76) mechanically and electrically connecting the cable conductor to the coil, where the at least two couplings (74, 76) maintain longitudinal compression of the section of the coil.
Method for monitoring production by a knitting machine, wherein the yarn delivery of at least one yarn delivery device is monitored by a sensor device and a control unit, wherein a sensor signal is produced with a measurement pulse per length unit of a yarn delivery path (ΔXF) by the sensor device, the sensor signal is evaluated by the control unit and if necessary a stop signal is generated for the knitting machine by the control unit, wherein by means of a clock unit of the control unit a clock signal is provided, a clock pulse of the clock signal corresponds to a length unit of a knitting path of the knitting machine and by means of the control unit the sensor signal is evaluated as a function of the clock signal, characterised in that the length unit of the knitting path (ΔXS) is smaller by a factor of at least 2, preferably of 3 to 10, than the length unit of the yarn delivery path (ΔXF) so that for each measurement pulse by the factor more, i.e. at least 2, clock pulses are available and in that by means of the control unit the sensor signal is evaluated as a function of the clock signal, in that beginning respectively with a measurement pulse a number of clock pulses are counted and the number of clock pulses is compared with a predefined number (Ac), wherein the predefined number (Ac) corresponds to the factor or is determined from the latter and on exceeding the predefined number (Ac) a stop signal is generated for the knitting machine.
A nucleic acid encoding stem cell factor for use in a method of treating a subject suffering from an ischemic injury associated with a condition selected from the group consisting of myocardial infarction, peripheral vascular disease and heart failure, wherein the nucleic acid is to be administered outside the site of the injury for delivery to the site of the injury where it is taken up by cells and SCF is expressed.
A detector for an inspection system, comprising: at least one first scintillator configured to, in response to interaction with a pulse of inspection radiation, re-emit first light in a first wavelength domain; at least one second scintillator configured to, in response to interaction with the pulse of inspection radiation, re-emit second light in a second wavelength domain different from the first wavelength domain; at least one first sensor configured to measure the first light and not the second light; and at least one second sensor configured to measure at least the second light, characterized in that the at least one second scintillator is located adjacent the at least one first scintillator, along a direction transverse to a direction of propagation of the inspection radiation, wherein the at least one first sensor and the at least one second sensor are located on a same side of the at least one first scintillator or the at least one second scintillator, along a depth of the first scintillator or along a depth of the second scintillator, the depth of the first scintillator or of the second scintillator extending in the direction of propagation of the inspection radiation. at least one first scintillator configured to, in response to interaction with a pulse of inspection radiation, re-emit first light in a first wavelength domain; at least one second scintillator configured to, in response to interaction with the pulse of inspection radiation, re-emit second light in a second wavelength domain different from the first wavelength domain; at least one first sensor configured to measure the first light and not the second light; and at least one second sensor configured to measure at least the second light, characterized in that the at least one second scintillator is located adjacent the at least one first scintillator, along a direction transverse to a direction of propagation of the inspection radiation, wherein the at least one first sensor and the at least one second sensor are located on a same side of the at least one first scintillator or the at least one second scintillator, along a depth of the first scintillator or along a depth of the second scintillator, the depth of the first scintillator or of the second scintillator extending in the direction of propagation of the inspection radiation.
A device for producing a cylinder crankcase using a low-pressure casting method or a gravity casting method, comprising: an outer casting mold comprising mold parts (12, 14, 16, 18) which, in an assembled state, form a mold cavity that forms, for casting purposes, an outer contour of the cylinder crankcase; a dosing furnace configured to contain a liquid metal; at least one gate arranged geodetically below the mold cavity and via which the dosing furnace can be fluidically connected to the mold cavity characterized in that each gate is connected to a sprue bushing configured to project into a region of the mold cavity that forms the cylinder space of the cylinder crankcase. an outer casting mold comprising mold parts (12, 14, 16, 18) which, in an assembled state, form a mold cavity that forms, for casting purposes, an outer contour of the cylinder crankcase; a dosing furnace configured to contain a liquid metal; at least one gate arranged geodetically below the mold cavity and via which the dosing furnace can be fluidically connected to the mold cavity characterized in that each gate is connected to a sprue bushing configured to project into a region of the mold cavity that forms the cylinder space of the cylinder crankcase.
An internal combustion engine having a combustion chamber and having an exhaust system into which the exhaust gas exiting the combustion chamber can be introduced and which has an exhaust-gas recirculation arrangement, by means of which exhaust-gas recirculation arrangement the exhaust gas can be at least partially recirculated into a combustion air feed line for the supply of combustion air to the combustion chamber, wherein, in the exhaust-gas recirculation arrangement, there is provided a first heat exchanger unit by means of which heat energy can be extracted from the exhaust gas, and wherein a compressor unit is provided, by means of which intake air taken from the surroundings is compressed and the compressed intake air stream can be conducted, bypassing the combustion chamber, initially through the first heat exchanger unit provided in the exhaust-gas recirculation arrangement, characterized in that, in the exhaust-gas recirculation arrangement of the exhaust system, there is provided a second heat exchanger unit which is connected in parallel in terms of flow with respect to the first heat exchanger unit, wherein only the first heat exchanger unit can be supplied with a compressed partial air stream.
A method of forming dialkyl carbonate comprising: introducing reactants to a reactor having a gaseous head space and a liquid body space, the reactants comprising alkanol, carbon monoxide, oxygen, and a catalyst, the reactor operating under conditions to form dialkyl carbonate and water, wherein alkanol and the catalyst are introduced to the liquid body space of the reactor in a liquid, and wherein oxygen and carbon monoxide are introduced to the liquid body space of the reactor in a gas, introducing a separate stream comprising oxygen to the head space of the reactor such that the head space comprises an oxygen content of between 0.10 mole % and 1.00 mole %, removing a product stream from the head space of the reactor, the product stream comprising dialkyl carbonate, water, oxygen, and residual reactants, introducing the product stream to a cyclonic separation device to produce a liquid bottom stream and a gaseous top stream, capturing and introducing the liquid bottom stream from the cyclonic separation device to the reactor, wherein the gaseous top stream contains product dialkyl carbonate. introducing reactants to a reactor having a gaseous head space and a liquid body space, the reactants comprising alkanol, carbon monoxide, oxygen, and a catalyst, the reactor operating under conditions to form dialkyl carbonate and water, wherein alkanol and the catalyst are introduced to the liquid body space of the reactor in a liquid, and wherein oxygen and carbon monoxide are introduced to the liquid body space of the reactor in a gas, introducing a separate stream comprising oxygen to the head space of the reactor such that the head space comprises an oxygen content of between 0.10 mole % and 1.00 mole %, removing a product stream from the head space of the reactor, the product stream comprising dialkyl carbonate, water, oxygen, and residual reactants, introducing the product stream to a cyclonic separation device to produce a liquid bottom stream and a gaseous top stream, capturing and introducing the liquid bottom stream from the cyclonic separation device to the reactor,
An implantable lead for a cancer treatment system comprising: a lead body having a proximal end and a distal end, the lead body defining a lumen; an expandable lead head connected to the distal end of the lead body, the lead head configured to be expanded between a first non-expanded position and a second expanded position in order to fill an intracorporeal void; two or more electrodes disposed on an outer surface of the lead head; two or more electrical conductors configured to provide electrical communication between the two or more electrodes and the proximal end of the lead body; wherein the expandable lead head comprises an expandable balloon configured to assume an amorphous shape defined by the walls of the void when the expandable balloon is expanded into a second expanded position. a lead body having a proximal end and a distal end, the lead body defining a lumen; an expandable lead head connected to the distal end of the lead body, the lead head configured to be expanded between a first non-expanded position and a second expanded position in order to fill an intracorporeal void; two or more electrodes disposed on an outer surface of the lead head; two or more electrical conductors configured to provide electrical communication between the two or more electrodes and the proximal end of the lead body; wherein the expandable lead head comprises an expandable balloon configured to assume an amorphous shape defined by the walls of the void when the expandable balloon is expanded into a second expanded position.
A machine for producing food products comprising a supporting structure, a loading station of a precursor of said food products and a moulding station of said food products, said moulding station being characterized in that it comprises a first supporting and conveying chain and a second processing chain, said second processing chain comprising a first and a second plurality of half-moulds opposite each other and movable between a first rest position and a second forming and cutting position of said food products, said machine also comprising first operating means of said first and second chains for movement of said food products along a first direction of advance and second operating means of said half-moulds (51; 52) adapted to move said half-moulds (51; 52) between a first rest position and a second forming and cutting position and vice versa, said half-moulds (51; 52) comprising supporting means for operative connection with said second processing chain, and forming and cutting means for simultaneous forming and cutting of said food products.