mhurhangee/patent-ind-claim-en huggingface dataset:
Axial flow fluid valve , in particular a coolant shut-off valve, with a valve housing which defines a flow channel radially outwardly, with a flow housing section , an inlet port which is attached to a first axial end of the flow housing section , and an outlet port which is attached to a second axial end of the flow housing section opposite the first axial end , a magnet housing which is arranged inside the valve housing and defines the flow channel radially inwardly, an electromagnet with a coil and a return device , which electromagnet is arranged inside the magnet housing , and a valve body which is arranged axially shiftably in the valve housing and which can be lowered onto a valve seat and lifted off from the valve seat via the electromagnet so as to change a throughflow of the fluid valve , characterized in that the magnet housing is defined by an overmolded body by which the electromagnet is overmolded and which encloses the coil , the return device and an axial end of the electromagnet remote from the valve seat . a flow housing section , an inlet port which is attached to a first axial end of the flow housing section , and an outlet port which is attached to a second axial end of the flow housing section opposite the first axial end , an electromagnet with a coil and a return device , which electromagnet is arranged inside the magnet housing , and a valve body which is arranged axially shiftably in the valve housing and which can be lowered onto a valve seat and lifted off from the valve seat via the electromagnet so as to change a throughflow of the fluid valve , characterized in that the magnet housing is defined by an overmolded body by which the electromagnet is overmolded and which encloses the coil , the return device and an axial end of the electromagnet remote from the valve seat .
Device for the production of large-area periodic nanostructures on an areally-extended, preferably rectangular, substrate, by means of a nano-imprint method, having the following features: a. a stamp roller with a longitudinal axis, on the circumferential surface of which a number of stamps of the same type are arranged, wherein i. in the circumferential direction of the stamp roller each of these stamps forms: 1. an annular structure, and 2. a nanostructure, which represents a negative of at least a partial region of the nanostructure to be produced, ii. the stamps are spaced apart from each other in the direction of the longitudinal axis of the roller, and iii. the distance between the stamps is less than or equal to the extent of the stamps in the direction of the longitudinal axis of the roller, b. an offset device, by means of which the stamp roller and substrate can be offset relative to each other in the direction of the longitudinal axis of the roller by a defined offset distance. a. a stamp roller with a longitudinal axis, on the circumferential surface of which a number of stamps of the same type are arranged, wherein i. in the circumferential direction of the stamp roller each of these stamps forms: 1. an annular structure, and 2. a nanostructure, which represents a negative of at least a partial region of the nanostructure to be produced, ii. the stamps are spaced apart from each other in the direction of the longitudinal axis of the roller, and iii. the distance between the stamps is less than or equal to the extent of the stamps in the direction of the longitudinal axis of the roller, i. in the circumferential direction of the stamp roller each of these stamps forms: 1. an annular structure, and 2. a nanostructure, which represents a negative of at least a partial region of the nanostructure to be produced, 1. an annular structure, and 2. a nanostructure, which represents a negative of at least a partial region of the nanostructure to be produced, ii. the stamps are spaced apart from each other in the direction of the longitudinal axis of the roller, and iii. the distance between the stamps is less than or equal to the extent of the stamps in the direction of the longitudinal axis of the roller, b. an offset device, by means of which the stamp roller and substrate can be offset relative to each other in the direction of the longitudinal axis of the roller by a defined offset distance.
Method for optimizing the noise generated by a hybrid power plant of a rotorcraft during a phase of flight, said hybrid power plant being provided with at least one heat engine and with at least one electric machine , comprising the following steps: • determination of a required power to be delivered by said hybrid power plant for said phase of flight, and • distribution of said required power between said at least one heat engine and at least one electric machine as a function of an target noise level and of said required power for said phase of flight as well as of a model of the noise generated by said at least one heat engine depending on a parameter of said at least one heat engine , said distribution comprising the following sub-steps: • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine , and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power, said noise model comprising a decrease zone (C) and if, during said distribution , said main power causes operation of at least one heat engine in said decrease zone (C), said main power is increased in order to leave said decrease zone (C) and said first supplementary power is reduced so that said hybrid power plant delivers said required power. • determination of a required power to be delivered by said hybrid power plant for said phase of flight, and • distribution of said required power between said at least one heat engine and at least one electric machine as a function of an target noise level and of said required power for said phase of flight as well as of a model of the noise generated by said at least one heat engine depending on a parameter of said at least one heat engine , said distribution comprising the following sub-steps: • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine , and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power, said noise model comprising a decrease zone (C) and if, during said distribution , said main power causes operation of at least one heat engine in said decrease zone (C), said main power is increased in order to leave said decrease zone (C) and said first supplementary power is reduced so that said hybrid power plant delivers said required power. • first control of said at least one electric machine to progressively increase a first supplementary power delivered by said at least one electric machine , and • second control of said at least one heat engine to reduce a main power delivered by said at least one heat engine so that said hybrid power plant delivers said required power,
A cutting device for obtaining a processed material by cutting off an end portion of a plate material by a first cutting blade and a second cutting blade which relatively approach each other, the cutting device comprising: a first contact part and the first cutting blade which clamp a processed material portion to be the processed material , of the plate material , from front and back surfaces thereof; the second cutting blade and a second contact part which clamp an end material portion to be the end portion , of the plate material , from front and back surfaces thereof; and a drive part which causes the first cutting blade and the second cutting blade to start relative approach each other while maintaining a flat state where the processed material portion and the end material portion are on the same plane, on at least one of the front surface and the back surface of the plate material , wherein a curved portion is formed in each of the first cutting blade and the second cutting blade in a case of being viewed in a direction in which the first cutting blade and the second cutting blade approach each other, and the second contact part includes: a flat portion which comes into contact with the end material portion of the plate material , and an inclined surface inclined with respect to the flat portion . a first contact part and the first cutting blade which clamp a processed material portion to be the processed material , of the plate material , from front and back surfaces thereof; the second cutting blade and a second contact part which clamp an end material portion to be the end portion , of the plate material , from front and back surfaces thereof; and a drive part which causes the first cutting blade and the second cutting blade to start relative approach each other while maintaining a flat state where the processed material portion and the end material portion are on the same plane, on at least one of the front surface and the back surface of the plate material , wherein a curved portion is formed in each of the first cutting blade and the second cutting blade in a case of being viewed in a direction in which the first cutting blade and the second cutting blade approach each other, and the second contact part includes: a flat portion which comes into contact with the end material portion of the plate material , and an inclined surface inclined with respect to the flat portion .
A cartridge, comprising: a liquid storage chamber; and an atomizing device comprising an atomizing base and a liquid absorbing member installed in the atomizing base , the atomizing base being provided with an atomizing chamber therein; wherein the atomizing base is made of one single piece of elastic material, the atomizing base is provided with a through hole, the liquid absorbing member extends through the through hole, the inner wall of the through hole closely abuts against the outer wall of the liquid absorbing member to isolate the liquid storage chamber from the atomizing chamber. a liquid storage chamber; and an atomizing device comprising an atomizing base and a liquid absorbing member installed in the atomizing base , the atomizing base being provided with an atomizing chamber therein; wherein the atomizing base is made of one single piece of elastic material, the atomizing base is provided with a through hole, the liquid absorbing member extends through the through hole, the inner wall of the through hole closely abuts against the outer wall of the liquid absorbing member to isolate the liquid storage chamber from the atomizing chamber.
A power tool comprising: a housing ; a brushless DC motor housed inside the housing , the motor comprising a rotor, a stator, and at least one sensor positioned to sense a state of the rotational position of the rotor inside the stator; a power supply ; an input unit actuated by a user comprising a variable-speed actuator; and a control unit configured to control commutation of the motor through a plurality of power switches coupled to the power supply , the control unit receiving a current sensor state from the sensor and a user-selected speed from the variable-speed actuator, wherein the control unit is further configured to determine whether the motor has reversed direction using the user-selected speed and the current sensor state characterized in that the control unit is further configured to disable commutation of the motor if the motor has reversed direction until a proper current sensor state is received from the sensor; wherein the control unit is further configured to utilize a sensor transition table to determine an expected sensor state based on a previous sensor state and to determine that the motor has reversed direction if the current sensor state is different from the expected sensor state; wherein the control unit is further configured to commutate with angle-advancing if the user-selected speed is above a predetermined speed threshold and without angle-advancing if the user-selected speed is below the predetermined speed threshold. a housing ; a brushless DC motor housed inside the housing , the motor comprising a rotor, a stator, and at least one sensor positioned to sense a state of the rotational position of the rotor inside the stator; a power supply ; an input unit actuated by a user comprising a variable-speed actuator; and a control unit configured to control commutation of the motor through a plurality of power switches coupled to the power supply , the control unit receiving a current sensor state from the sensor and a user-selected speed from the variable-speed actuator, wherein the control unit is further configured to determine whether the motor has reversed direction using the user-selected speed and the current sensor state characterized in that the control unit is further configured to disable commutation of the motor if the motor has reversed direction until a proper current sensor state is received from the sensor; wherein the control unit is further configured to utilize a sensor transition table to determine an expected sensor state based on a previous sensor state and to determine that the motor has reversed direction if the current sensor state is different from the expected sensor state; wherein the control unit is further configured to commutate with angle-advancing if the user-selected speed is above a predetermined speed threshold and without angle-advancing if the user-selected speed is below the predetermined speed threshold.
An electric vehicle comprising: an electric motor as a driving source of the vehicle; a control device ; a first operating member configured to be pressed by a driver; and a second operating member configured to be pressed by a driver; wherein the control device includes a forward mode for allowing forward driving of the vehicle and a reverse mode for allowing reverse driving of the vehicle; the control device is configured to select the reverse mode to drive the vehicle backward in a case where a pressing operation is performed on the first operating member and the second operating member ; and the control device is configured to automatically release selection of the reverse mode when the first operating member and the second operating member are no longer pressed after reverse driving of the vehicle. an electric motor as a driving source of the vehicle; a control device ; a first operating member configured to be pressed by a driver; and a second operating member configured to be pressed by a driver; wherein the control device includes a forward mode for allowing forward driving of the vehicle and a reverse mode for allowing reverse driving of the vehicle; the control device is configured to select the reverse mode to drive the vehicle backward in a case where a pressing operation is performed on the first operating member and the second operating member ; and the control device is configured to automatically release selection of the reverse mode when the first operating member and the second operating member are no longer pressed after reverse driving of the vehicle.
An air-based fryer, comprising: a food preparation chamber ; a heating device ; an airflow generating device configured to enable air heated by the heating device to form an airflow to heat food in the food preparation chamber ; a first temperature sensing device located nearby or on the heating device and configured to detect a temperature of a surface of the heating device ; a second temperature sensing device configured to detect a temperature of airflow for heating food in the food preparation chamber ; a controller configured to control operation of the heating device based on the temperature of the surface of the heating device detected by the first temperature sensing device and the temperature of the airflow detected by the second temperature sensing device and characterized in that the controller is configured to control power of the heating device based on the temperature of the surface of the heating device detected by the first temperature sensing device , to enable the temperature of the surface of the heating device below a predetermined surface temperature value, wherein the predetermined surface temperature value is equal to or lower than a smoke point temperature of the food to be prepared. a food preparation chamber ; a heating device ; an airflow generating device configured to enable air heated by the heating device to form an airflow to heat food in the food preparation chamber ; a first temperature sensing device located nearby or on the heating device and configured to detect a temperature of a surface of the heating device ; a second temperature sensing device configured to detect a temperature of airflow for heating food in the food preparation chamber ; a controller configured to control operation of the heating device based on the temperature of the surface of the heating device detected by the first temperature sensing device and the temperature of the airflow detected by the second temperature sensing device and characterized in that the controller is configured to control power of the heating device based on the temperature of the surface of the heating device detected by the first temperature sensing device , to enable the temperature of the surface of the heating device below a predetermined surface temperature value, wherein the predetermined surface temperature value is equal to or lower than a smoke point temperature of the food to be prepared.
Penile prosthesis for the female genital organ, comprising - a phallic-shaped body made of a selected material, - - a contact module arranged at one end of the body , configured to attach to and cover the user's genital organ and having a contact surface configured to be placed in contact with the user's pubic region and allow the prosthesis to be locked in its position of use on the user's genital organ; and - - a clitoral stimulation module , arranged in a selected position relative to the contact module , and configured to perform an action enabling stimulation of the wearer's clitoris; characterized in that the prosthesis further comprises - - means for detecting movement of said prosthesis during use, connected to the clitoral stimulation module , and configured to detect the movements made by the prosthesis according to selected parameters; and - processing means , connected to the means for detecting movement and the clitoral stimulation module , configured to vary the intensity of clitoral stimulation proportionately to the frequency and/or amplitude of movement detected. - a phallic-shaped body made of a selected material, - - a contact module arranged at one end of the body , configured to attach to and cover the user's genital organ and having a contact surface configured to be placed in contact with the user's pubic region and allow the prosthesis to be locked in its position of use on the user's genital organ; and - - a clitoral stimulation module , arranged in a selected position relative to the contact module , and configured to perform an action enabling stimulation of the wearer's clitoris; characterized in that the prosthesis further comprises - - means for detecting movement of said prosthesis during use, connected to the clitoral stimulation module , and configured to detect the movements made by the prosthesis according to selected parameters; and - processing means , connected to the means for detecting movement and the clitoral stimulation module , configured to vary the intensity of clitoral stimulation proportionately to the frequency and/or amplitude of movement detected. - processing means , connected to the means for detecting movement and the clitoral stimulation module , configured to vary the intensity of clitoral stimulation proportionately to the frequency and/or amplitude of movement detected.
A device for examining a sample by means of X-ray radiation, comprising: a radiation generating system for generating primary radiation ; a first goniometer arm at which the radiation generating system is mounted and which is pivotable about a goniometer axis ; a detection system which is configured for detecting secondary radiation emanating from the sample; a second goniometer arm at which the detection system is mounted and which is pivotable about the goniometer axis ; an evacuable sample chamber , within which the sample can be arranged in a sample region encompassing a part of the goniometer axis, wherein the sample chamber is delimited by means of a sample chamber wall which comprises a radiation transmission region which is permeable to the primary radiation and is vacuum-tight, in order to enable the primary radiation to penetrate into the sample chamber and to be able to impinge on the sample region at different angles of incidence (θ_in); wherein the sample chamber comprises, in a detection beam path , a first opening at which the sample chamber and the detection system can be connected in a vacuum-tight manner, such that the detection beam path can be evacuated, wherein the radiation transmission region closes the sample chamber in a vacuum-tight manner, wherein the radiation transmission region comprises an opening angle of between 100° and 165°, wherein the opening angle of the radiation transmission region measures the angular extent of the radiation transmission region with respect to the goniometer axis. a radiation generating system for generating primary radiation ; a first goniometer arm at which the radiation generating system is mounted and which is pivotable about a goniometer axis ; a detection system which is configured for detecting secondary radiation emanating from the sample; a second goniometer arm at which the detection system is mounted and which is pivotable about the goniometer axis ; an evacuable sample chamber , within which the sample can be arranged in a sample region encompassing a part of the goniometer axis, wherein the sample chamber is delimited by means of a sample chamber wall which comprises a radiation transmission region which is permeable to the primary radiation and is vacuum-tight, in order to enable the primary radiation to penetrate into the sample chamber and to be able to impinge on the sample region at different angles of incidence (θ_in); wherein the sample chamber comprises, in a detection beam path , a first opening at which the sample chamber and the detection system can be connected in a vacuum-tight manner, such that the detection beam path can be evacuated, wherein the radiation transmission region closes the sample chamber in a vacuum-tight manner, wherein the radiation transmission region comprises an opening angle of between 100° and 165°, wherein the opening angle of the radiation transmission region measures the angular extent of the radiation transmission region with respect to the goniometer axis.