mhurhangee/patent-ind-claim-en huggingface dataset:
A hybrid rocket engine comprising: a first pump powered by a first turbine ; a second pump powered by a second turbine ; a gas generator connected to the first pump and the second pump, wherein an output of the gas generator is connected to the first turbine and the second turbine to provide mechanical power to the first pump and the second pump; a third pump powered by a third turbine ; a fourth pump powered by a fourth turbine ; and a nozzle comprising an expander cycle and a combustion chamber ; wherein an output of the third pump is connected to the expander cycle, wherein an output of the fourth pump, an output of the third turbine, and an output of the fourth turbine are connected to the combustion chamber, and the expander cycle is in a wall of the nozzle, characterised in that an output of the expander cycle is connected to the third turbine and the fourth turbine to provide mechanical power to the third pump and the fourth pump. a first pump powered by a first turbine ; a second pump powered by a second turbine ; a gas generator connected to the first pump and the second pump, wherein an output of the gas generator is connected to the first turbine and the second turbine to provide mechanical power to the first pump and the second pump; a third pump powered by a third turbine ; a fourth pump powered by a fourth turbine ; and a nozzle comprising an expander cycle and a combustion chamber ; wherein an output of the third pump is connected to the expander cycle, wherein an output of the fourth pump, an output of the third turbine, and an output of the fourth turbine are connected to the combustion chamber, and the expander cycle is in a wall of the nozzle,
A harmonic oscillator, wherein the harmonic oscillator comprises: a dielectric body ; and a plurality of responding units attached onto a surface of the dielectric body , wherein the responding units are conductive structures having a geometrical pattern made from a conductive material; each responding unit has a positive equivalent refractive index for an electromagnetic field corresponding to a working frequency of the harmonic oscillator; the dielectric body has multiple coaxial cylindrical surfaces that are internally and externally nested, wherein the responding units are attached onto at least one of the cylindrical surfaces; characterised in that , at least some of the plurality of responding units are located on the innermost cylindrical surface of the multiple cylindrical surfaces; dimensions of the responding units on each cylindrical surface decrease progressively in radial direction as a diameter of the respective cylindrical surface increases; the dimensions of the responding units attached onto a respective cylindrical surface gradually decrease or increase from two ends to the middle along an axial direction of said respective cylindrical surface. a dielectric body ; and a plurality of responding units attached onto a surface of the dielectric body , wherein the responding units are conductive structures having a geometrical pattern made from a conductive material; each responding unit has a positive equivalent refractive index for an electromagnetic field corresponding to a working frequency of the harmonic oscillator; the dielectric body has multiple coaxial cylindrical surfaces that are internally and externally nested, wherein the responding units are attached onto at least one of the cylindrical surfaces; characterised in that , at least some of the plurality of responding units are located on the innermost cylindrical surface of the multiple cylindrical surfaces; dimensions of the responding units on each cylindrical surface decrease progressively in radial direction as a diameter of the respective cylindrical surface increases; the dimensions of the responding units attached onto a respective cylindrical surface gradually decrease or increase from two ends to the middle along an axial direction of said respective cylindrical surface.
A solubilized extracellular matrix (ECM) hydrogel or a soluble fraction thereof and a pharmaceutically acceptable carrier, for use in treating a tumor in a subject.
A process for preparing N-(5-((4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-yl)amino)-4-methoxy-2-morpholinophenyl)acrylamide: or a pharmaceutically acceptable salt thereof, the process comprising (a) reacting N1-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-yl)-6-methoxy-4-morpholinobenzene-1,3-diamine: with a compound of Formula 4 to obtain a compound of Formula 2; and (b) reacting the compound of Formula 2 with a base to obtain N-(5-((4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-yl)amino)-4-methoxy-2-morpholinophenyl)acrylamide: wherein, X is halogen. (a) reacting N1-(4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-yl)-6-methoxy-4-morpholinobenzene-1,3-diamine: with a compound of Formula 4 to obtain a compound of Formula 2; and (b) reacting the compound of Formula 2 with a base to obtain N-(5-((4-(4-((dimethylamino)methyl)-3-phenyl-1H-pyrazol-1-yl)pyrimidin-2-yl)amino)-4-methoxy-2-morpholinophenyl)acrylamide: wherein, X is halogen.
Device for monitoring a situation within a volume, comprising at least one electronic unit containing: - a plurality of sensors of different kinds, - a microcontroller for managing sensors, said microcontroller including memory means, - at least one program for controlling the sensors according to a predefined profile and one program for processing the data read by the sensors, which programs are stored in said memory means, - means for signaling the detection of data representative of the occurrence of a particular event within the volume, - means for supplying electrical energy, said device further comprising a remote management unit and means for exchanging data between the electronic unit and the remote management unit , said means being defined by a radio transmitter/receiver comprised by the electronic unit and the remote management unit , said electronic unit comprising means for the manual activation of the radio transmitter comprised by said unit, characterized in that the manual activation means are defined by a button arranged on a housing dedicated to an infrared presence sensor provided with its lens forming a projection on the external face of the housing . - a plurality of sensors of different kinds, - a microcontroller for managing sensors, said microcontroller including memory means, - at least one program for controlling the sensors according to a predefined profile and one program for processing the data read by the sensors, which programs are stored in said memory means, - means for signaling the detection of data representative of the occurrence of a particular event within the volume, - means for supplying electrical energy,
A system for removing dental deposits from an exterior surface of one or more teeth or gum tissue in a mouth of a mammal, the system comprising: a mouthpiece sized and shaped to be inserted into the mouth , the mouthpiece including one or more fluid ports to deliver liquid to the mouth and to remove liquid from the mouth; a pressure wave generator configured to generate pressure waves having a broadband power spectrum and acoustic waves at multiple different frequencies; a pump in fluid communication with the one or more fluid ports of the mouthpiece , and a control mechanism in communication with the pump , the control mechanism configured to control the operation of the pump , characterized in that the control mechanism is configured to operate the pump to move the liquid into and out of the one or more fluid ports of the mouthpiece in an oscillatory manner and in which the frequency of the oscillations varies during a treatment procedure, wherein the pump , the pressure wave generator or both are configured to generate an oscillatory movement of liquid at a first frequency range during a first treatment phase and at a second frequency range during a second treatment phase, the second frequency range differing from the first frequency range. a mouthpiece sized and shaped to be inserted into the mouth , the mouthpiece including one or more fluid ports to deliver liquid to the mouth and to remove liquid from the mouth; a pressure wave generator configured to generate pressure waves having a broadband power spectrum and acoustic waves at multiple different frequencies; a pump in fluid communication with the one or more fluid ports of the mouthpiece , and a control mechanism in communication with the pump , the control mechanism configured to control the operation of the pump , characterized in that the control mechanism is configured to operate the pump to move the liquid into and out of the one or more fluid ports of the mouthpiece in an oscillatory manner and in which the frequency of the oscillations varies during a treatment procedure, wherein the pump , the pressure wave generator or both are configured to generate an oscillatory movement of liquid at a first frequency range during a first treatment phase and at a second frequency range during a second treatment phase, the second frequency range differing from the first frequency range.
A thermal runaway detecting device for a battery system including a plurality of cells, comprising: a first measuring module for measuring temperature values of the plurality of cells via at least one temperature sensor; a second measuring module for measuring an output voltage value of the battery system; and a controller for determining validity of a thermal runaway detection, wherein the thermal runaway detection is based on the temperature value, wherein the controller is configured to: perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result. a first measuring module for measuring temperature values of the plurality of cells via at least one temperature sensor; a second measuring module for measuring an output voltage value of the battery system; and a controller for determining validity of a thermal runaway detection, wherein the thermal runaway detection is based on the temperature value, wherein the controller is configured to: perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result. perform the determining by monitoring data received from the first measuring module, and determine a validity determining result of the thermal runaway detection based on the temperature value, and wherein the controller is further configured to detect a thermal runaway of the battery system by selectively monitoring the temperature value or the output voltage value according to the validity determining result.
A method comprising: - optically tracking the position and orientation of a welding torch relative to a workpiece via an optical sensing device ; the welding torch having a set of visual markers disposed thereon; - determining an orientation of a display of the welding torch relative to a welding joint of the workpiece ; - displaying, on the display of the welding torch during a welding operation, a graphical representation of a welding parameter as a position of the welding torch changes, the orientation of the welding torch changes, a movement of the welding torch changes, or some combination thereof, wherein the graphical representation of the welding parameter is associated with the position of the welding torch relative to the joint, the orientation of the welding torch relative to the joint, the movement of the welding torch relative to the joint, or some combination thereof; - determining a change of orientation of the display relative to the joint; - rotating the graphical representation of the welding parameter on the display based at least in part on the determined change of orientation of the display of the welding torch relative to the joint, wherein determining the change of orientation of the display of the welding torch comprises - detecting, via the sensing device , a signal of said set of visual markers such that said signal is suitable to determine a corresponding rigid body model of said set of visual markers ; and - using the rigid body model for determining the change of orientation of the display of the welding torch with regard to the joint. - optically tracking the position and orientation of a welding torch relative to a workpiece via an optical sensing device ; the welding torch having a set of visual markers disposed thereon; - determining an orientation of a display of the welding torch relative to a welding joint of the workpiece ; - displaying, on the display of the welding torch during a welding operation, a graphical representation of a welding parameter as a position of the welding torch changes, the orientation of the welding torch changes, a movement of the welding torch changes, or some combination thereof, wherein the graphical representation of the welding parameter is associated with the position of the welding torch relative to the joint, the orientation of the welding torch relative to the joint, the movement of the welding torch relative to the joint, or some combination thereof; - determining a change of orientation of the display relative to the joint; - rotating the graphical representation of the welding parameter on the display based at least in part on the determined change of orientation of the display of the welding torch relative to the joint, wherein determining the change of orientation of the display of the welding torch comprises - detecting, via the sensing device , a signal of said set of visual markers such that said signal is suitable to determine a corresponding rigid body model of said set of visual markers ; and - using the rigid body model for determining the change of orientation of the display of the welding torch with regard to the joint.
An open-irrigated catheter system for performing mapping and ablation functions, comprising: a tip section (102; 202) having an exterior wall that defines an open interior region within the tip section (102; 202), wherein the exterior wall includes mapping electrode openings and irrigation ports , and wherein the exterior wall is conductive for delivering radio frequency (RF) energy for an RF ablation procedure, wherein the irrigation ports are in fluid communication with the open interior region to allow fluid to flow from the open interior region through the irrigation ports ; a distal insert (104; 204; 832A; 832B) positioned within the tip section (102; 202) to separate the open region into a distal fluid reservoir (106; 206) and a proximal fluid reservoir (105; 205); and mapping electrodes (103; 203) positioned in the mapping electrode openings in the tip section (102; 202), wherein the distal insert (104; 204; 832A; 832B) has a peripheral surface with openings (107; 207) therein sized to receive the mapping electrodes (103; 203). a tip section (102; 202) having an exterior wall that defines an open interior region within the tip section (102; 202), wherein the exterior wall includes mapping electrode openings and irrigation ports , and wherein the exterior wall is conductive for delivering radio frequency (RF) energy for an RF ablation procedure, wherein the irrigation ports are in fluid communication with the open interior region to allow fluid to flow from the open interior region through the irrigation ports ; a distal insert (104; 204; 832A; 832B) positioned within the tip section (102; 202) to separate the open region into a distal fluid reservoir (106; 206) and a proximal fluid reservoir (105; 205); and mapping electrodes (103; 203) positioned in the mapping electrode openings in the tip section (102; 202), wherein the distal insert (104; 204; 832A; 832B) has a peripheral surface with openings (107; 207) therein sized to receive the mapping electrodes (103; 203).
A solenoid pump , comprising: a housing with an inlet port and an outlet port ; a first through-bore connecting the inlet and outlet ports ; a plunger disposed within the first through-bore and including a second through-bore ; a spring arranged to urge the plunger toward the outlet port ; a solenoid coil arranged to displace the plunger toward the inlet port in response to a coil power (CP) applied to the solenoid coil ; and, a control unit including: an input for accepting an input voltage (IV); and, a power circuit for: generating the coil power (CP) during an interval equal to a time period (T off ); supplying the coil power (CP) to the solenoid coil ; and, selecting a duration of the time period (T off ) such that the duration of the time period (T off ) varies according to the input voltage (IV), characterized in that , the spring is a variable rate spring with a conical shape, wherein and a first diameter (D1) of the spring 114 is less than a second diameter (D2); and a one-way check-valve is arranged at the inlet . a housing with an inlet port and an outlet port ; a first through-bore connecting the inlet and outlet ports ; a plunger disposed within the first through-bore and including a second through-bore ; a spring arranged to urge the plunger toward the outlet port ; a solenoid coil arranged to displace the plunger toward the inlet port in response to a coil power (CP) applied to the solenoid coil ; and, a control unit including: an input for accepting an input voltage (IV); and, a power circuit for: generating the coil power (CP) during an interval equal to a time period (T off ); supplying the coil power (CP) to the solenoid coil ; and, selecting a duration of the time period (T off ) such that the duration of the time period (T off ) varies according to the input voltage (IV), characterized in that , the spring is a variable rate spring with a conical shape, wherein and a first diameter (D1) of the spring 114 is less than a second diameter (D2); and a one-way check-valve is arranged at the inlet . an input for accepting an input voltage (IV); and, a power circuit for: generating the coil power (CP) during an interval equal to a time period (T off ); supplying the coil power (CP) to the solenoid coil ; and, selecting a duration of the time period (T off ) such that the duration of the time period (T off ) varies according to the input voltage (IV), generating the coil power (CP) during an interval equal to a time period (T off ); supplying the coil power (CP) to the solenoid coil ; and, selecting a duration of the time period (T off ) such that the duration of the time period (T off ) varies according to the input voltage (IV), the spring is a variable rate spring with a conical shape, wherein and a first diameter (D1) of the spring 114 is less than a second diameter (D2); and a one-way check-valve is arranged at the inlet .
A method of measuring load on a wind turbine , the wind turbine comprising at least one rotor blade and at least one load sensor associated with the rotor blade , wherein the at least one load sensor is located at a position on the rotor blade remote from both a flap bending moment axis and an edge bending moment axis of the rotor blade , whereat a flap bending moment component and an edge bending moment component of the load on the rotor blade are measurable, the method comprising: measuring a load value from the load sensor ; and using the measured load value to determine: a flap bending moment component of the load; an edge bending moment component of the load, and an axial component of the load on the rotor blade , the method being characterized in that it further comprises separately calibrating each one of the at least one load sensors using a blade loads estimator that provides estimated axial force and flap/edge bending moments in order to obtain a blade stiffness gain ( K Axial , K Flap , K Edge ), using the measured load value and the obtained blade stiffness gain ( K Axial , K Flap , K Edge ) to determine the load components. wherein the at least one load sensor is located at a position on the rotor blade remote from both a flap bending moment axis and an edge bending moment axis of the rotor blade , whereat a flap bending moment component and an edge bending moment component of the load on the rotor blade are measurable, the method comprising: measuring a load value from the load sensor ; and using the measured load value to determine: a flap bending moment component of the load; an edge bending moment component of the load, and an axial component of the load on the rotor blade , measuring a load value from the load sensor ; and using the measured load value to determine: a flap bending moment component of the load; an edge bending moment component of the load, and an axial component of the load on the rotor blade , a flap bending moment component of the load; an edge bending moment component of the load, and an axial component of the load on the rotor blade , separately calibrating each one of the at least one load sensors using a blade loads estimator that provides estimated axial force and flap/edge bending moments in order to obtain a blade stiffness gain ( K Axial , K Flap , K Edge ), using the measured load value and the obtained blade stiffness gain ( K Axial , K Flap , K Edge ) to determine the load components.
Dishwasher , in particular a domestic dishwasher, for carrying out a washing program that has at least one CLEANING program portion and a DRYING program portion with which the washing program is completed, comprising a washing container that provides a washing chamber , is used to receive washware to be cleaned and has a loading opening for loading washware which can be closed by means of a door , comprising a heat pump device and a heat accumulator , the heat pump device being designed to extract heat from the heat accumulator and supply it to the washing liquid within the CLEANING program portion, and comprising a heat recovery device , by means of which heat can be supplied from the washing chamber to the heat accumulator , characterised by a door control apparatus that is designed to automatically open the door , at least by a gap, after a predetermined period of time after the end of the washing program, in order to heat the temperature in the washing chamber , and/or is designed to automatically open the door , at least by a gap, in a temperature-controlled manner after the end of the washing program, in order to heat the temperature in the washing chamber . and comprising a heat recovery device , by means of which heat can be supplied from the washing chamber to the heat accumulator , characterised by a door control apparatus that is designed to automatically open the door , at least by a gap, after a predetermined period of time after the end of the washing program, in order to heat the temperature in the washing chamber , and/or is designed to automatically open the door , at least by a gap, in a temperature-controlled manner after the end of the washing program, in order to heat the temperature in the washing chamber .