mhurhangee/patent-ind-claim-en huggingface dataset:
An ignition system for a gas turbine engine, the ignition system comprising: an annular main combustor including an inner wall and an outer wall spaced radially apart from one another, wherein a combustor dome wall joins the inner and outer walls ; a high pressure engine case defining an engine axis (C); a torch ignitor disposed within the high pressure engine case, having a combustion chamber oriented about a torch axis (A), the combustion chamber having axially upstream and downstream ends defining a flow direction through the combustion chamber, along the axis; wherein the torch ignitor includes an elbow connected to the downstream end of the combustion chamber ; a cap defining the axially upstream end of the combustion chamber and oriented about the axis, wherein a fuel injector and at least one glow plug are seated in the cap, a tip at a downstream end of the combustion chamber for issuing flame; and an access hatch configured to allow access through the high pressure engine case to the cap and to seal against the high pressure engine case when not accessing the cap, wherein the access hatch and the combustion chamber are positioned forward relative to the combustor dome wall of the main combustor in a direction along the engine axis, such that the torch axis (A) is oriented circumferentially relative to the engine axis (C) so that the elbow turns from the torch axis (A) to an aft facing direction. an annular main combustor including an inner wall and an outer wall spaced radially apart from one another, wherein a combustor dome wall joins the inner and outer walls ; a high pressure engine case defining an engine axis (C); a torch ignitor disposed within the high pressure engine case, having a combustion chamber oriented about a torch axis (A), the combustion chamber having axially upstream and downstream ends defining a flow direction through the combustion chamber, along the axis; wherein the torch ignitor includes an elbow connected to the downstream end of the combustion chamber ; a cap defining the axially upstream end of the combustion chamber and oriented about the axis, wherein a fuel injector and at least one glow plug are seated in the cap, a tip at a downstream end of the combustion chamber for issuing flame; and an access hatch configured to allow access through the high pressure engine case to the cap and to seal against the high pressure engine case when not accessing the cap, wherein the access hatch and the combustion chamber are positioned forward relative to the combustor dome wall of the main combustor in a direction along the engine axis, such that the torch axis (A) is oriented circumferentially relative to the engine axis (C) so that the elbow turns from the torch axis (A) to an aft facing direction.
A drive control apparatus that receives power and a plurality of frequency-multiplexed control signals through an electric wire and drives and controls a device to be controlled , wherein a detection frequency is set in the device to be controlled , one of the plurality of control signals is a control signal corresponding to the device to be controlled and a frequency of the control signal is close to the detection frequency, and the drive control apparatus comprising: a driver that drives the device to be controlled by using the power, a detection current generator that generates a rectangular-wave detection current whose frequency is the detection frequency, a magnetic field response element in which the detection current flows, an impedance of the magnetic field response element varying in response to a magnetic field generated around the electric wire, and a signal processor that detects the control signal corresponding to the device to be controlled from an output from the magnetic field response element and controls the device to be controlled based on the detected control signal, the signal processor comprising: a low-pass filter that extracts a low frequency component from the output from the magnetic field response element. a driver that drives the device to be controlled by using the power, a detection current generator that generates a rectangular-wave detection current whose frequency is the detection frequency, a magnetic field response element in which the detection current flows, an impedance of the magnetic field response element varying in response to a magnetic field generated around the electric wire, and a signal processor that detects the control signal corresponding to the device to be controlled from an output from the magnetic field response element and controls the device to be controlled based on the detected control signal, the signal processor comprising: a low-pass filter that extracts a low frequency component from the output from the magnetic field response element.
A method for monitoring an electrical network in a rail vehicle, wherein the electrical network comprises at least one power converter (C), at least one drive motor (M) and at least one first phase line (P, P1) for electrically connecting the at least one power converter (C) and the at least one drive motor, wherein a level of current change of a first phase current (I, I1) is determined, wherein a network error is detected if at least one criterion based on a current change is met, wherein the criterion based on a current change is met if the level of current change of the first phase current (I, I1) is higher than a predetermined current change threshold (SW1), characterised in that the network error is detected in a machine-side sub-network (TN_M), wherein an error location in the machine-side sub-network (TN_M) is determined as a function of the level of current change, wherein the level of current change decreases with increasing distance between the error location in the machine-side sub-network (TN_M) and a determination point (BP) where the current change occurs.
An apparatus to control movement of an object , the apparatus comprising: at least one object attached to at least one resilient member , wherein the at least one resilient member constrains movement of the at least one object (!00) in a substantially vertical y-axis direction; and at least one support member moveably coupled to the at least one resilient member , wherein the at least one support member constrains resilient member movement along a set path relative to the support member and, wherein the at least one support member has a positive or negative incline through at least part of the length of the support member ; at least one coupling member that couples the at least one resilient member to the at least one support member , the at least one coupling member free to traverse the at least one support member ; and characterised in that the apparatus further comprises a force generating mechanism configured to impart a substantially horizontal x-axis force on the at least one object to initiate movement of the at least one object . at least one object attached to at least one resilient member , wherein the at least one resilient member constrains movement of the at least one object (!00) in a substantially vertical y-axis direction; and at least one support member moveably coupled to the at least one resilient member , wherein the at least one support member constrains resilient member movement along a set path relative to the support member and, wherein the at least one support member has a positive or negative incline through at least part of the length of the support member ; at least one coupling member that couples the at least one resilient member to the at least one support member , the at least one coupling member free to traverse the at least one support member ; and characterised in that the apparatus further comprises a force generating mechanism configured to impart a substantially horizontal x-axis force on the at least one object to initiate movement of the at least one object .
Unwinding apparatus for a coremaker machine, comprising a main structure adapted for unwinding a reel of a band of cardboard or similar material that may be fed to the spindle of a winding module of the coremaker machine, the unwinding apparatus further comprising a glue dispenser for depositing glue on at least one portion of said band , and, downstream of said glue dispenser , at least one heating element configured to heat said at least one portion of said band , wherein said heating element comprises a hot air emitter , characterised in that said emitter is movable between a first operative position in which said emitter is oriented so that the air flow generated by said emitter hits at least the portion of said band on which the glue is present, and a second rest position in which said air flow is deviated with respect to said band , so as not to hit it.
A composition comprising crystalline ( S )-4-(8-amino-3-(1-(but-2-ynoyl)pyrrolidin-2-yl)imidazo[1,5- a ]pyrazin-1-yl)- N -(pyridin-2-yl)benzamide free base wherein the crystalline ( S )-4-(8-amino-3-(1-(but-2-ynoyl)pyrrolidin-2-yl)imidazo[1,5- a ]pyrazin-1-yl)- N -(pyridin-2-yl)benzamide free base is characterized by a transmission X-ray powder diffraction pattern comprising peaks at 6.4, 8.6, 10.5, 11.6, and 15.7 °2θ ± 0.2 °2θ, wherein the X-ray powder diffraction pattern was acquired using Cu-K α1 radiation source.
A moisture management system for a medical device having a supply connection for receiving gas and a patient connection for supplying the gas to a patient, the system comprising: a water trap having an inlet , an outlet , a first reservoir , and a drain , the inlet receiving the gas from the supply connection and the outlet returning the gas to the patient connection, wherein the water trap is configured to remove moisture from the gas flowing from the inlet to the outlet, and wherein the moisture removed is held in the first reservoir; characterised by an evaporation chamber having an inlet , an exhaust , and a second reservoir , wherein the inlet is fluidly coupled to the drain of the water trap to receive the moisture from the first reservoir, wherein the moisture is subsequently held in the second reservoir, and wherein the evaporation chamber is configured such that the moisture evaporates from the second reservoir and exits as vapor via the exhaust; and an evaporator that increases a rate at which the moisture in the second reservoir evaporates via the exhaust. a water trap having an inlet , an outlet , a first reservoir , and a drain , the inlet receiving the gas from the supply connection and the outlet returning the gas to the patient connection, wherein the water trap is configured to remove moisture from the gas flowing from the inlet to the outlet, and wherein the moisture removed is held in the first reservoir; characterised by an evaporation chamber having an inlet , an exhaust , and a second reservoir , wherein the inlet is fluidly coupled to the drain of the water trap to receive the moisture from the first reservoir, wherein the moisture is subsequently held in the second reservoir, and wherein the evaporation chamber is configured such that the moisture evaporates from the second reservoir and exits as vapor via the exhaust; and an evaporator that increases a rate at which the moisture in the second reservoir evaporates via the exhaust.
Support for cell cultures comprising a culture chamber defining a supporting surface for a cell construct; characterised in that it comprises a first body defining a first portion of said culture chamber ; and a second body defining a second portion of said culture chamber complementary to said first portion; in that said first body and said second body are suitable to be reciprocally coupled so as to define said culture chamber ; in that said first body comprises a block defining at least a portion of said culture chamber suitable to be coupled with said second body by fitting to obtain an airtight seal; a transparent support defining said supporting surface ; and a base suitable to be coupled with said block by fitting to obtain an airtight seal and holding said transparent support between said block and said base ; and in that said base comprises an aperture suitable to be superimposed on at least part of said transparent support and in that said block comprises a first hollow element suitable to be coupled with said base by fitting; a second hollow element suitable to be coupled with said first hollow element ; and a divider cell support suitable to be arranged between said hollow elements so as to divide said culture chamber into two airtight sub-chambers .
A method of producing a polymer by causing a reaction solution containing a monomer and a radical polymerization initiator to continuously or intermittently flow through a flow path of a radical polymerization reaction apparatus, the method comprising: a step of flowing the reaction solution into a heating-initiation part of the reaction apparatus and heating the flowed reaction solution to a prescribed temperature to cause the radical polymerization initiator in the reaction solution that has flowed into the heating-initiation part to undergo cleavage and thereby initiate radical polymerization of the monomer; a step of advancing the radical polymerization of the monomer in the reaction solution; and a step of cooling the reaction solution and obtaining the polymer, wherein the heating of the reaction solution, which has flowed into the heating-initiation part, at the prescribed temperature in the range of T + 50°C to T + 150°C where T°C is an initiation temperature of the radical polymerization initiator in step provides a condition where the radical polymerization initiator present in a timewise sliced volume of the reaction solution that has flowed into the heating-initiation part undergoes cleavage all at once, wherein the all-at-once cleavage of the radical polymerization initiator present in the unit volume is brought about by heating the radical polymerization initiator present in this volume to the prescribed temperature by continuously mixing, under pressurization, the reaction solution with a heating medium in the heating-initiation part, simultaneously across the radial direction of a cross section of the flow path. a step of flowing the reaction solution into a heating-initiation part of the reaction apparatus and heating the flowed reaction solution to a prescribed temperature to cause the radical polymerization initiator in the reaction solution that has flowed into the heating-initiation part to undergo cleavage and thereby initiate radical polymerization of the monomer; a step of advancing the radical polymerization of the monomer in the reaction solution; and a step of cooling the reaction solution and obtaining the polymer, wherein the heating of the reaction solution, which has flowed into the heating-initiation part, at the prescribed temperature in the range of T + 50°C to T + 150°C where T°C is an initiation temperature of the radical polymerization initiator in step provides a condition where the radical polymerization initiator present in a timewise sliced volume of the reaction solution that has flowed into the heating-initiation part undergoes cleavage all at once, wherein the all-at-once cleavage of the radical polymerization initiator present in the unit volume is brought about by heating the radical polymerization initiator present in this volume to the prescribed temperature by continuously mixing, under pressurization, the reaction solution with a heating medium in the heating-initiation part, simultaneously across the radial direction of a cross section of the flow path.
A method in which at least two reference stations transmit signals (s1, s2; s3, s4), - wherein the signals - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - wherein at least one of the reference stations , besides transmitting its own signal (s1, s2), also receives at least one signal (s2, s1) sent by another reference station at the same time and determines a time stagger (τ1) and/or a phase angle between its own transmission and the reception with high precision, and - wherein at least one station which at least receives signals receives the signals (s3, s4) from at least two of the reference stations , - wherein future transmissions of the reference stations are controlled depending on the determined time offsets (τ1) and/or phase angles. - wherein the signals - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - are transmitted approximately at the same time (S1, S2), - are transmitted in the same frequency range, - are separable using a multiplexing method, - wherein at least one of the reference stations , besides transmitting its own signal (s1, s2), also receives at least one signal (s2, s1) sent by another reference station at the same time and determines a time stagger (τ1) and/or a phase angle between its own transmission and the reception with high precision, and - wherein at least one station which at least receives signals receives the signals (s3, s4) from at least two of the reference stations , - wherein future transmissions of the reference stations are controlled depending on the determined time offsets (τ1) and/or phase angles.
A safety lock comprising a transponder and a shackle , the shackle being movable from an open state to a locked state, said transponder comprising an inlay including an IC and antenna coupling elements arranged to couple the IC with an antenna , the inlay arranged in or on a base member , the safety lock further comprising a housing arranged to envelope the base member , wherein the base member comprises a reduction zone , the mechanical strength of which is reduced compared to portions of the base member next to said reduction zone , the reduction zone being arranged under the IC and/or the antenna coupling elements of the inlay , the base member further connected to a first arresting means by an essentially inextensible connection , and wherein said shackle comprises a second arresting means , wherein in the locked state of the shackle , the first arresting means are arranged to intermesh with the second arresting means such that force striving the shackle from the locked state to the open state is arranged to being transmitted to the reduction zone characterized in that said force is additionally transmitted to the RFID inlay , and if the safety lock is opened by force, the base member is exposed to force exceeding the mechanical strength of the reduction zone , leading to damaging of the RFID inlay.
Method for the manufacture of a solid, homogeneous, non-explosive particulate composition, comprising the steps of: a) providing an ammonium nitrate melt; b) adding zinc oxide and a compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof, to the ammonium nitrate melt, to obtain a melt comprising ammonium nitrate, zinc oxide and 10 to 30 weight% of the compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof; c) mixing the melt comprising ammonium nitrate, zinc oxide and the compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof; d) transforming the melt obtained in step c) into a solid, homogeneous, particulate composition. a) providing an ammonium nitrate melt; b) adding zinc oxide and a compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof, to the ammonium nitrate melt, to obtain a melt comprising ammonium nitrate, zinc oxide and 10 to 30 weight% of the compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof; c) mixing the melt comprising ammonium nitrate, zinc oxide and the compound selected from the group of limestone, dolomite, gypsum, kaolin clays and mixtures thereof; d) transforming the melt obtained in step c) into a solid, homogeneous, particulate composition.
Regenerated cellulosic molded body manufactured according to a lyocell method, which comprises elastane, wherein the elastane is incorporated in the molded body .
Computer-implemented method for training a scatter correction model for use in an X-ray imaging system , comprising: generating a set of simulated X-ray image data with and without scattered radiation, processing the image data with scattered radiation of the set of simulated X-ray image data using a domain adaptation technique to provide an adapted set of simulated X-ray image data (11s-a), wherein a target domain of the domain adaptation technique represents a set of experimental X-ray image data with scattered radiation, training the scatter correction model at least with the adapted set of simulated X-ray image data (11s-a), and providing the trained scatter correction model for application in the X-ray imaging system , wherein the scatter correction model is trained additionally using at least one set of experimental X-ray image data with and without scattered radiation. generating a set of simulated X-ray image data with and without scattered radiation, processing the image data with scattered radiation of the set of simulated X-ray image data using a domain adaptation technique to provide an adapted set of simulated X-ray image data (11s-a), wherein a target domain of the domain adaptation technique represents a set of experimental X-ray image data with scattered radiation, training the scatter correction model at least with the adapted set of simulated X-ray image data (11s-a), and providing the trained scatter correction model for application in the X-ray imaging system , wherein the scatter correction model is trained additionally using at least one set of experimental X-ray image data with and without scattered radiation.