mhurhangee/ep-ind-claims huggingface dataset:
An electronic mobile device, comprising: one or more mobile applications, wherein each mobile application has at least one corresponding graphical user interface, GUI, screen for display on a touch screen of the electronic mobile device; and a security system configured to: for each mobile application, maintaining corresponding security data, wherein said corresponding security data represents one or more secure components of a corresponding GUI screen; and generating a GUI screen for a mobile application based on corresponding security data, wherein each secure component of said GUI screen is locked, wherein user access to a locked component of said GUI screen is permitted only after successful user verification, and wherein a plurality of the secure components in a bounding box are locked at the same time when the bounding box is drawn around said plurality of secure components by touch gesture on the touch screen. one or more mobile applications, wherein each mobile application has at least one corresponding graphical user interface, GUI, screen for display on a touch screen of the electronic mobile device; and a security system configured to: for each mobile application, maintaining corresponding security data, wherein said corresponding security data represents one or more secure components of a corresponding GUI screen; and generating a GUI screen for a mobile application based on corresponding security data, wherein each secure component of said GUI screen is locked, wherein user access to a locked component of said GUI screen is permitted only after successful user verification, and wherein a plurality of the secure components in a bounding box are locked at the same time when the bounding box is drawn around said plurality of secure components by touch gesture on the touch screen. for each mobile application, maintaining corresponding security data, wherein said corresponding security data represents one or more secure components of a corresponding GUI screen; and generating a GUI screen for a mobile application based on corresponding security data, wherein each secure component of said GUI screen is locked, wherein user access to a locked component of said GUI screen is permitted only after successful user verification, and wherein a plurality of the secure components in a bounding box are locked at the same time when the bounding box is drawn around said plurality of secure components by touch gesture on the touch screen.
A sensor head of a sensor configured to measure a position of a measurement object, the sensor head comprising: a diffraction lens configured to emit light entering from a light source side along an optical axis and generate chromatic aberration with respect to the light; an objective lens disposed closer to the measurement object side than the diffraction lens is, and configured to collect light entering from the diffraction lens side to emit the light toward the measurement object side and emit the light entering from the measurement object side toward the diffraction lens side; and a case having a space formed therein and configured to accommodate at least the diffraction lens and the objective lens in the space, wherein the case has a first case section having a substantially cylindrical shape about the optical axis as a central axis and an end portion of which is open, a second case section having a substantially cylindrical shape and an end portion of which is open, and a third case section connected between the first case section and the second case section, the first case section has the diffraction lens disposed therein, the second case section has the objective lens disposed therein, and the third case section has a mirror member disposed therein and configured to bend light entering from the diffraction lens side toward the objective lens side. a diffraction lens configured to emit light entering from a light source side along an optical axis and generate chromatic aberration with respect to the light; an objective lens disposed closer to the measurement object side than the diffraction lens is, and configured to collect light entering from the diffraction lens side to emit the light toward the measurement object side and emit the light entering from the measurement object side toward the diffraction lens side; and a case having a space formed therein and configured to accommodate at least the diffraction lens and the objective lens in the space, wherein the case has a first case section having a substantially cylindrical shape about the optical axis as a central axis and an end portion of which is open, a second case section having a substantially cylindrical shape and an end portion of which is open, and a third case section connected between the first case section and the second case section, the first case section has the diffraction lens disposed therein, the second case section has the objective lens disposed therein, and the third case section has a mirror member disposed therein and configured to bend light entering from the diffraction lens side toward the objective lens side.
Voluntary waste disposal container comprising an upper opening for the introduction of waste and a lower opening positioned vertically below the upper opening, at a height relative to the ground allowing the introduction of waste by persons of small size, the container further comprising, in its interior, between the upper opening and the lower opening, a deflector (13; 39; 45) which is positioned to receive waste introduced through the opening and falling into the container, said deflector being made of a material able to dampen the fall of the waste and being shaped to guide the waste from the upper waste introduction opening on a path clearing the lower waste introduction opening to a drop location, inside the container, which is lower and distanced horizontally from the upper waste introduction opening, the deflector comprising at least one separating wall (21; 39b; 49, 51, 53) between waste introduced through the upper opening and waste introduced through the lower opening, this wall being substantially vertical, characterised in that said separating wall is flexible, in other words capable of deforming to adapt to the volumes of waste present on either side of said separating wall.
A method for manufacturing chewing gum, the method comprising: feeding a plurality of gum ingredients including at least an elastomer into a continuous extruder including a plurality of screws; rotating said plurality of screws and mixing said plurality of ingredients via said rotating of said plurality of screws within said continuous extruder; forming a partial chewing gum base or a finished chewing gum base via said mixing of said plurality of ingredients; creating a flow of said partial chewing gum base or finished chewing gum base including said plurality of ingredients through said continuous extruder towards a downstream extent of said plurality of screws via said rotating; and conveying said flow of said partial chewing gum base or said finished chewing gum base to a region of said continuous extruder that is proximate said downstream extent of said plurality of screws, said flow includes a temperature of less than 90 degrees Celsius when said flow reaches said downstream extent of said plurality of screws, further including masticating and plasticizing said elastomer via said mixing within said continuous extruder, said masticating and plasticizing of said elastomer via said mixing occurs at at most 140 degrees Celsius within said extruder; wherein said plurality of screws is at least three screws. feeding a plurality of gum ingredients including at least an elastomer into a continuous extruder including a plurality of screws; rotating said plurality of screws and mixing said plurality of ingredients via said rotating of said plurality of screws within said continuous extruder; forming a partial chewing gum base or a finished chewing gum base via said mixing of said plurality of ingredients; creating a flow of said partial chewing gum base or finished chewing gum base including said plurality of ingredients through said continuous extruder towards a downstream extent of said plurality of screws via said rotating; and conveying said flow of said partial chewing gum base or said finished chewing gum base to a region of said continuous extruder that is proximate said downstream extent of said plurality of screws, said flow includes a temperature of less than 90 degrees Celsius when said flow reaches said downstream extent of said plurality of screws, further including masticating and plasticizing said elastomer via said mixing within said continuous extruder, said masticating and plasticizing of said elastomer via said mixing occurs at at most 140 degrees Celsius within said extruder; wherein said plurality of screws is at least three screws.
A subjective optometry apparatus which includes an optometry unit having an optical member, configured to be located in front of a subject eye, and configured to change optical characteristics of a target light flux with using the optical member, and in which the target light flux can be projected on the subject eye through the optometry unit to subjectively measure optical characteristics of the subject eye, the subjective optometry apparatus comprising: a measurement optical system that includes a light projecting optical system having a measurement light source configured to emit measurement light and applying the measurement light emitted from the measurement light source to a fundus of the subject eye through the optometry unit, and a light receiving optical system in which a detector is configured to receive reflected light of the measurement light reflected on the fundus of the subject eye through the optometry unit, and that is configured to objectively measure the optical characteristics of the subject eye, wherein an optical axis (L5, L6) of the measurement optical system is set to be off-axis from an optical axis of the optical member in the optometry unit; a projection optical system that has a visual target presenting portion configured to emit the target light flux, and that is configured to project the target light flux emitted from the visual target presenting portion toward the subject eye; and a housing configured to accommodate the projection optical system, wherein the optometry unit is located outside the housing, and is configured to change the optical characteristics of the target light flux emitted from the visual target presenting portion using the optical member. a measurement optical system that includes a light projecting optical system having a measurement light source configured to emit measurement light and applying the measurement light emitted from the measurement light source to a fundus of the subject eye through the optometry unit, and a light receiving optical system in which a detector is configured to receive reflected light of the measurement light reflected on the fundus of the subject eye through the optometry unit, and that is configured to objectively measure the optical characteristics of the subject eye, wherein an optical axis (L5, L6) of the measurement optical system is set to be off-axis from an optical axis of the optical member in the optometry unit; a projection optical system that has a visual target presenting portion configured to emit the target light flux, and that is configured to project the target light flux emitted from the visual target presenting portion toward the subject eye; and a housing configured to accommodate the projection optical system, wherein the optometry unit is located outside the housing, and is configured to change the optical characteristics of the target light flux emitted from the visual target presenting portion using the optical member.
An apparatus comprising: an electromechanical device (4, 70, 86); a control unit configured to control the electromechanical device (4, 70, 86) by a control signal; and a motion detector (6, 6a, 6b) configured to provide a motion detector signal (12,16), wherein the motion detector (6, 6a, 6b) is configured to determine mechanical movement of the electromechanical device (4, 70, 86), wherein the control unit is configured to alter the current of the control signal depending on a phase difference between the control signal and the motion detector signal (12, 16), wherein the electromechanical device (4, 70, 86) is a stepper motor, the apparatus is characterised by that the apparatus further comprises a unit configured to average multiple phase differences between the control signal and the motion detector signal (12, 16) obtained over time before the current of the control signal is altered. an electromechanical device (4, 70, 86); a control unit configured to control the electromechanical device (4, 70, 86) by a control signal; and a motion detector (6, 6a, 6b) configured to provide a motion detector signal (12,16), wherein the motion detector (6, 6a, 6b) is configured to determine mechanical movement of the electromechanical device (4, 70, 86), wherein the control unit is configured to alter the current of the control signal depending on a phase difference between the control signal and the motion detector signal (12, 16), wherein the electromechanical device (4, 70, 86) is a stepper motor, the apparatus is characterised by that the apparatus further comprises a unit configured to average multiple phase differences between the control signal and the motion detector signal (12, 16) obtained over time before the current of the control signal is altered.
Device for the production of foam cream capable of being mounted on a rigid reservoir of liquid to be foamed comprising: - a liquid supply conduit, - a mixing chamber, - at least one non-return device (3a, 3b) disposed in the mixing chamber, - at least one air supply conduit, - a foam reserve in communication on the one hand with the mixing chamber, and on the other hand with an outlet conduit of the device, - at least one mixing element, disposed between the mixing chamber and the foam reserve or disposed in the mixing chamber, - a non-return device (30a, 30b) between the mixing chamber and the foam reserve, and - a pumping means for ejecting the foam from the foam reserve through the outlet conduit, the device is characterised in that: the pumping means: - either being produced by a piston sliding within the volume of the foam reserve, - or having at least one deformable part of the wall of the foam reserve, - or consisting of the outlet conduit of which one end enters the volume of the foam reserve and is rigidly connected to a displaceable part in said volume of the foam reserve, the mixing element being a screen, a grid or any other porous element. - a liquid supply conduit, - a mixing chamber, - at least one non-return device (3a, 3b) disposed in the mixing chamber, - at least one air supply conduit, - a foam reserve in communication on the one hand with the mixing chamber, and on the other hand with an outlet conduit of the device, - at least one mixing element, disposed between the mixing chamber and the foam reserve or disposed in the mixing chamber, - a non-return device (30a, 30b) between the mixing chamber and the foam reserve, and - a pumping means for ejecting the foam from the foam reserve through the outlet conduit, - either being produced by a piston sliding within the volume of the foam reserve, - or having at least one deformable part of the wall of the foam reserve, - or consisting of the outlet conduit of which one end enters the volume of the foam reserve and is rigidly connected to a displaceable part in said volume of the foam reserve, the mixing element being a screen, a grid or any other porous element.
An electric power connection part suitable for an electromagnetic clutch field coil assembly connected with an electric power connector at a side of a vehicle engine, the electric power connection part comprising: a housing assembly connected to the field coil assembly with electric wires, which are extracted from the field coil assembly to the outside of the field coil assembly, interposed between field coil assembly and housing assembly; a discharge device for absorbing a surge voltage and a magnetic field elimination device for eliminating a residual magnetic field wherein the discharge device is a diode and the magnetic field elimination device is a resistor, characterized in that the diode and the resistor are mounted within the housing assembly, which is mounted at a distance from the coil assembly so that heat radiated from the field coil assembly cannot be transmitted directly to the housing assembly; wherein the housing assembly is injection molded in the state with the discharge device and the magnetic field elimination device respectively fixed on the electric wires in parallel with the longitudinal direction of the electric wires by holders. a housing assembly connected to the field coil assembly with electric wires, which are extracted from the field coil assembly to the outside of the field coil assembly, interposed between field coil assembly and housing assembly; a discharge device for absorbing a surge voltage and a magnetic field elimination device for eliminating a residual magnetic field wherein the discharge device is a diode and the magnetic field elimination device is a resistor, characterized in that the diode and the resistor are mounted within the housing assembly, which is mounted at a distance from the coil assembly so that heat radiated from the field coil assembly cannot be transmitted directly to the housing assembly; wherein the housing assembly is injection molded in the state with the discharge device and the magnetic field elimination device respectively fixed on the electric wires in parallel with the longitudinal direction of the electric wires by holders.
A method for controlling a power generation system, the method comprising: visually monitoring, with a camera, a thermal output of a component (102, 104, 120) of the power generation system; detecting a heat distribution across the component (102, 104, 120) of the power generation system from the visually monitored thermal output of the component (102, 104, 120), during operation of the power generation system; calculating a projected heat distribution across the component (102, 104, 120) based on a library of modeling data for the power generation system; calculating whether a difference between the heat distribution and the projected heat distribution exceeds a thermal threshold; adjusting, by a system controller in communication with the camera and the power generation system, the power generation system in response to the difference exceeding the thermal threshold, wherein the adjusting includes modifying an operating setting of the power generation system; wherein the power generation system is positioned at a first geographic location, the system controller is positioned at least partially at a second geographic location different from the first geographic location, and wherein the power generation system is one of a plurality of power generation systems, each of the plurality of power generation systems being positioned at a different respective geographic location; and wherein the system controller is further configured to control one or more power generation systems of the plurality of power generation systems other than the power generation system. visually monitoring, with a camera, a thermal output of a component (102, 104, 120) of the power generation system; detecting a heat distribution across the component (102, 104, 120) of the power generation system from the visually monitored thermal output of the component (102, 104, 120), during operation of the power generation system; calculating a projected heat distribution across the component (102, 104, 120) based on a library of modeling data for the power generation system; calculating whether a difference between the heat distribution and the projected heat distribution exceeds a thermal threshold; adjusting, by a system controller in communication with the camera and the power generation system, the power generation system in response to the difference exceeding the thermal threshold, wherein the adjusting includes modifying an operating setting of the power generation system; wherein the power generation system is positioned at a first geographic location, the system controller is positioned at least partially at a second geographic location different from the first geographic location, and wherein the power generation system is one of a plurality of power generation systems, each of the plurality of power generation systems being positioned at a different respective geographic location; and wherein the system controller is further configured to control one or more power generation systems of the plurality of power generation systems other than the power generation system.
A method of detecting leaks in an underground liquid duct, in particular a water duct, according to which: - a diffuser is used to inject a gas into the liquid of the duct, the gas having a low atmospheric content, - and the path of the duct is traced on the surface with a detection system for measuring at successive points the air content in the injected gas, an abnormally high content constituting a leak indicator, characterized in that a diffuser is selected that has outlet pores for the gas with the mean diameter being less than 50 μm to produce gas bubbles with a reduced diameter and characterized in that: - the diffuser is installed in a rigid cylindrical jacket, one end of which is open and includes means of linking in a leaktight manner to a full-bore valve orifice, while the other end of the jacket is passed through in a leaktight sliding manner by a pipe for feeding gas to the diffuser, - the jacket is linked in a leaktight manner to the valve orifice, the latter being closed, - the valve is opened and the diffuser is inserted into the duct by passing it through the open valve. - a diffuser is used to inject a gas into the liquid of the duct, the gas having a low atmospheric content, - and the path of the duct is traced on the surface with a detection system for measuring at successive points the air content in the injected gas, an abnormally high content constituting a leak indicator, - the diffuser is installed in a rigid cylindrical jacket, one end of which is open and includes means of linking in a leaktight manner to a full-bore valve orifice, while the other end of the jacket is passed through in a leaktight sliding manner by a pipe for feeding gas to the diffuser, - the jacket is linked in a leaktight manner to the valve orifice, the latter being closed, - the valve is opened and the diffuser is inserted into the duct by passing it through the open valve.