mhurhangee/patent-ind-claim-en huggingface dataset:
An audio-haptic signal generator (100; 200; 300; 400) for a haptic system, the haptic system comprising the audio-haptic signal generator (100; 200; 300; 400) and an amplifier (130; 340) coupled to a haptic actuator (140; 350), wherein the audio-haptic signal generator comprises: an audio input interface (102; 202; 302; 402) configured to receive an audio signal; a haptic input interface (104; 204; 304; 404) configured to receive a haptic signal; a controller (110; 210; 310; 410) configured to receive the haptic signal, a haptic actuator state and an amplifier state; a mixer (120; 230; 330; 430) coupled to the audio input interface (102; 202; 302; 402) and to the haptic input interface (104; 204; 304; 404), the mixer (120; 230; 330; 430) having a mixer output interface (108; 212; 312; 412) configured to be coupled to the amplifier (130; 340); wherein the controller (110; 210; 310; 410) is further configured to control the mixer (120; 230; 330; 430) to process the audio signal depending on the haptic signal, the haptic actuator state and the amplifier state so that the system limitations of the amplifier (130; 340) and of the haptic actuator (140; 350) are not exceeded; and wherein the mixer (120; 230; 330; 430) is configured to mix the haptic signal and the processed audio signal and to output the mixed audio-haptic signal, whereby the haptic actuator (140; 350) generates an output based on the mixed audio-haptic signal. an audio input interface (102; 202; 302; 402) configured to receive an audio signal; a haptic input interface (104; 204; 304; 404) configured to receive a haptic signal; a controller (110; 210; 310; 410) configured to receive the haptic signal, a haptic actuator state and an amplifier state; a mixer (120; 230; 330; 430) coupled to the audio input interface (102; 202; 302; 402) and to the haptic input interface (104; 204; 304; 404), the mixer (120; 230; 330; 430) having a mixer output interface (108; 212; 312; 412) configured to be coupled to the amplifier (130; 340); wherein the controller (110; 210; 310; 410) is further configured to control the mixer (120; 230; 330; 430) to process the audio signal depending on the haptic signal, the haptic actuator state and the amplifier state so that the system limitations of the amplifier (130; 340) and of the haptic actuator (140; 350) are not exceeded; and wherein the mixer (120; 230; 330; 430) is configured to mix the haptic signal and the processed audio signal and to output the mixed audio-haptic signal, whereby the haptic actuator (140; 350) generates an output based on the mixed audio-haptic signal.
Shaft element for a drain trench , wherein the shaft element is produced from a number of identical components , wherein the component is formed substantially plate-shaped with a first side and a second side opposite the first side , which are each flat and arranged substantially parallel to one another, with a third side and a fourth side opposite the third side , wherein connection means are provided on the third side and on the fourth side such that a first connection means is formed on the third side and a second connection means on the fourth side, and a fifth side and a sixth side , wherein the sixth side is opposite the fifth side and both are respectively flat and arranged substantially parallel to one another, wherein connection means are provided on the fifth side and on the sixth side such that a third connection means is formed on the fifth side and a fourth connection means on the sixth side , which third connection means and fifth connection means are formed as projections and recesses, wherein the first connection means on the third side and the second connection means on the fourth side are formed congruent to one another in order to create a connection state between two adjacent identical components in one spatial direction, and wherein the third connection means on the fifth side and the fourth connection means on the sixth side are formed congruent to one another in order to create a connection state between two adjacent components in another spatial direction, that from the second side a projection protrudes approximately perpendicularly, which is preferably formed at the end of the second side in the direction of the sixth side , characterised in that the shaft element is assembled from a number of identical components , the projections of which border an opening , and that a closing part is provided, which closes the opening bordered by the projections and/or that an adapter is provided for the connection of a pipe, in particular of a corrugated pipe , which is arranged on the opening bordered by the projections .
A method for trimming a thermoformed panel comprising the steps of opening a thermoforming mold to reveal the thermoformed panel, attaching a robotic arm holding means to the thermoformed panel, removing the thermoformed panel from the thermoforming mold by the robotic arm holding means, repositioning the robotic arm holding means over a trimming table, the table comprising a cutting router affixed to the table bed, moving the robotic arm holding means relative to the cutting router in directions to trim all edges of the panel to required panel dimensions, moving the robotic arm and trimmed panel to a panel collection station, and depositing the trimmed panel at the collection station, wherein the directional movement of the robotic arm is controlled by input from 3-dimensional drawing software of the final shape of the thermoformed panel, and wherein the thermoformed panel is of a polymeric material. repositioning the robotic arm holding means over a trimming table, the table comprising a cutting router affixed to the table bed, moving the robotic arm holding means relative to the cutting router in directions to trim all edges of the panel to required panel dimensions, moving the robotic arm and trimmed panel to a panel collection station, and depositing the trimmed panel at the collection station, wherein the directional movement of the robotic arm is controlled by input from 3-dimensional drawing software of the final shape of the thermoformed panel, and wherein the thermoformed panel is of a polymeric material.
Method for determining a quantity of a first radioisotope of a source term contained in a package, said first radioisotope is suitable for emitting a first gamma line, a second gamma line is also suitable for being emitted either by the first radioisotope or by a second radioisotope of the source term, the first gamma line and the second gamma line are suitable for being attenuated, each according to a different attenuation rate, by the matrix of the package and the source term per se, the method comprising the following steps: a) a step of measuring, by at least one gamma detector and according to two diametrically opposed positions in relation to the package, net counts associated with the first and second gamma lines emitted; b) in the knowledge of the ratio of the counts of the first and second gamma lines in the absence of attenuation and based on the results of step a), a step of determining the attenuation rates of the first and second gamma lines by the package matrix; c) a step of determining, based on the attenuation rate of one or the other of the first and second gamma lines determined in step b), the quantity, advantageously the mass, of first radioisotope contained in the source term. a) a step of measuring, by at least one gamma detector and according to two diametrically opposed positions in relation to the package, net counts associated with the first and second gamma lines emitted; b) in the knowledge of the ratio of the counts of the first and second gamma lines in the absence of attenuation and based on the results of step a), a step of determining the attenuation rates of the first and second gamma lines by the package matrix; c) a step of determining, based on the attenuation rate of one or the other of the first and second gamma lines determined in step b), the quantity, advantageously the mass, of first radioisotope contained in the source term.
An electronic device comprising: a printed circuit board, PCB , including a thermal conduction plane ; at least one heat generating component mounted on a first surface of the PCB and connected to the thermal conduction plane through first vias that extend into the first surface of the PCB; a frame connected to the PCB so as to define a first thermally conductive path between at least a portion of the frame and the at least one heat generating component, the first thermally conductive path including the first vias, the thermal conduction plane, and vias that extend between the thermal conduction plane and the frame; and at least one thermally conductive layer between the frame and the at least one heat generating component so as to define a second thermally conductive path between at least a portion of the frame and the at least one heat generating component; characterized in that the thermal conduction plane includes a break such that it is not continuous across a total length of the thermal conduction plane, so as to direct heat transfer in the thermal conduction plane. a printed circuit board, PCB , including a thermal conduction plane ; at least one heat generating component mounted on a first surface of the PCB and connected to the thermal conduction plane through first vias that extend into the first surface of the PCB; a frame connected to the PCB so as to define a first thermally conductive path between at least a portion of the frame and the at least one heat generating component, the first thermally conductive path including the first vias, the thermal conduction plane, and vias that extend between the thermal conduction plane and the frame; and at least one thermally conductive layer between the frame and the at least one heat generating component so as to define a second thermally conductive path between at least a portion of the frame and the at least one heat generating component; characterized in that the thermal conduction plane includes a break such that it is not continuous across a total length of the thermal conduction plane, so as to direct heat transfer in the thermal conduction plane.
A pressurizing type hollow fiber membrane module comprising: at least two types of hollow fiber membranes having different inner diameters, comprising hollow fiber membranes A and B, a housing including a raw water inlet formed at a lower end of a sidewall thereof, a concentrated water outlet formed at an upper end of the sidewall thereof, and a treated water outlet formed at an upper end thereof such that treated water filtered through the hollow fiber membranes A and B is drained therethrough, wherein the hollow fiber membranes A and B are arranged inside the housing in a longitudinal direction of the housing , wherein the lower open ends of the hollow fiber membranes A and B are in fluid communication with each other, wherein the hollow fiber membranes A and B allow water to be filtered therethrough from outside the outer peripheral surfaces to respective hollows inside the hollow fiber membranes A and the hollow fiber membranes B, and wherein the hollow fiber membrane A has an inner diameter D A ranging from 0.4 mm to 1.2 mm, and the hollow fiber membrane B has an inner diameter D B larger than the inner diameter D A of the hollow fiber membrane A, and wherein a total membrane area ratio A/B of the hollow fiber membranes A and B is 2 or higher, here, the total membrane area means a total area of outer peripheral surfaces of the hollow fiber membranes. at least two types of hollow fiber membranes having different inner diameters, comprising hollow fiber membranes A and B, a housing including a raw water inlet formed at a lower end of a sidewall thereof, a concentrated water outlet formed at an upper end of the sidewall thereof, and a treated water outlet formed at an upper end thereof such that treated water filtered through the hollow fiber membranes A and B is drained therethrough, wherein the hollow fiber membranes A and B are arranged inside the housing in a longitudinal direction of the housing , wherein the lower open ends of the hollow fiber membranes A and B are in fluid communication with each other, wherein the hollow fiber membranes A and B allow water to be filtered therethrough from outside the outer peripheral surfaces to respective hollows inside the hollow fiber membranes A and the hollow fiber membranes B, and wherein the hollow fiber membrane A has an inner diameter D A ranging from 0.4 mm to 1.2 mm, and the hollow fiber membrane B has an inner diameter D B larger than the inner diameter D A of the hollow fiber membrane A, and wherein a total membrane area ratio A/B of the hollow fiber membranes A and B is 2 or higher, here, the total membrane area means a total area of outer peripheral surfaces of the hollow fiber membranes.
A system comprising: a linear accelerator having a central axis ; an ion pump including an ion pump magnet having an ion pump magnet position, an ion pump magnet shape, and an ion pump magnet orientation; said ion pump magnet configured to generate a magnetic field with an ion pump magnet magnetic field profile ; and a compensating magnet having a position, a shape, and an orientation; said compensating magnet configured to generate a magnetic field with a magnetic field profile, wherein at least one of the position, shape, orientation, and magnetic field profile of the compensating magnet are configured to reduce at least one component of the magnetic field in the linear accelerator generated by the ion pump magnet ; characterised in that the ion pump magnet and the compensating magnet define a respective axis oriented at an angle of 45 degrees relative to the central axis . a linear accelerator having a central axis ; an ion pump including an ion pump magnet having an ion pump magnet position, an ion pump magnet shape, and an ion pump magnet orientation; said ion pump magnet configured to generate a magnetic field with an ion pump magnet magnetic field profile ; and a compensating magnet having a position, a shape, and an orientation; said compensating magnet configured to generate a magnetic field with a magnetic field profile, wherein at least one of the position, shape, orientation, and magnetic field profile of the compensating magnet are configured to reduce at least one component of the magnetic field in the linear accelerator generated by the ion pump magnet ; characterised in that the ion pump magnet and the compensating magnet define a respective axis oriented at an angle of 45 degrees relative to the central axis .
A housing , comprising: a housing body , a first textured membrane , and a flexible second textured membrane that are stacked, wherein a side, farther away from the first textured membrane , of the second textured membrane is closer to an outer surface (a2) of the housing; wherein the first textured membrane comprises one first texture layer and one first bearing layer that are stacked, wherein the first texture layer is disposed on a side, farther away from the housing body , of the first bearing layer ; wherein the second textured membrane comprises one second texture layer and one flexible second bearing layer that are stacked, wherein the second texture layer is disposed on a side, farther away from the housing body , of the second bearing layer ; a texture pattern of the first texture layer is different from a texture pattern of the second texture layer; wherein the flexible second textured membrane is able to deform in response to an external force; and wherein the first textured membrane is a flexible structure, and the first textured membrane is able to deform in response to an external force. a housing body , a first textured membrane , and a flexible second textured membrane that are stacked, wherein a side, farther away from the first textured membrane , of the second textured membrane is closer to an outer surface (a2) of the housing; wherein the first textured membrane comprises one first texture layer and one first bearing layer that are stacked, wherein the first texture layer is disposed on a side, farther away from the housing body , of the first bearing layer ; wherein the second textured membrane comprises one second texture layer and one flexible second bearing layer that are stacked, wherein the second texture layer is disposed on a side, farther away from the housing body , of the second bearing layer ; a texture pattern of the first texture layer is different from a texture pattern of the second texture layer; wherein the flexible second textured membrane is able to deform in response to an external force; and wherein the first textured membrane is a flexible structure, and the first textured membrane is able to deform in response to an external force.
A fiber optic connector comprising: a housing; and a male ferrule contained within the housing, the male ferrule having a base portion , an endface portion protruding from the base, and at least one alignment tower extending from the base portion parallel to the endface portion, characterised in that the at least one alignment tower is connected to the endface portion via webbing . a housing; and a male ferrule contained within the housing, the male ferrule having a base portion , an endface portion protruding from the base, and at least one alignment tower extending from the base portion parallel to the endface portion,
A method of monitoring an implantation site of a patient of an implantable medical device (IMD, 6), the method comprising: determining, via a computing device , identification data for the patient; identifying, based at least in part on the identification data, IMD information that corresponds to the IMD; determining, based at least in part on the IMD information, an imaging program that defines one or more parameters for imaging the implantation site; initiating, by the computing device, an imaging device , the imaging device configured to capture, in accordance with the imaging program, one or more frames of image data; receiving, via the imaging device, at least one frame of the one or more frames, the at least one frame including an image of the implantation site; identifying, from the at least one frame of the image data, an abnormality at the implantation site; in response to identifying the abnormality, automatically triggering a supplemental image capture mode, wherein the imaging device, when operating in the supplemental image capture mode, is configured to capture one or more supplemental images of the implantation site; subsequent to triggering the supplemental image capture mode, receiving, by the computing device, the one or more supplemental images of the implantation site; and outputting, via the computing device, the one or more supplemental images of the implantation site. determining, via a computing device , identification data for the patient; identifying, based at least in part on the identification data, IMD information that corresponds to the IMD; determining, based at least in part on the IMD information, an imaging program that defines one or more parameters for imaging the implantation site; initiating, by the computing device, an imaging device , the imaging device configured to capture, in accordance with the imaging program, one or more frames of image data; receiving, via the imaging device, at least one frame of the one or more frames, the at least one frame including an image of the implantation site; identifying, from the at least one frame of the image data, an abnormality at the implantation site; in response to identifying the abnormality, automatically triggering a supplemental image capture mode, wherein the imaging device, when operating in the supplemental image capture mode, is configured to capture one or more supplemental images of the implantation site; subsequent to triggering the supplemental image capture mode, receiving, by the computing device, the one or more supplemental images of the implantation site; and outputting, via the computing device, the one or more supplemental images of the implantation site.
An oral composition of stabilized chlorine dioxide in a concentration in the range of about 0.005% to about 0.800% (w/v) and a buffer to provide the oral composition with a pH in the range of 6.0 to 7.4 for use in the prevention of oral diseases by reducing both gram-negative anaerobic/aerobic/facultative bacteria and gram-positive anaerobic/aerobic/facultative bacteria in plaque and polymicrobial dental biofilm environments.
A method for operating a large diesel engine, which is designed as a dual-fuel large diesel engine, which can be operated in a liquid mode in which a liquid fuel is introduced into a cylinder for combustion, and which can be further operated in a gas mode in which a gas is introduced into the cylinder as fuel, wherein the large diesel engine comprises at least one cylinder in which a piston is arranged movable back and forth along a cylinder wall in an axial direction between a lower reversal point (UT) and an upper reversal point (OT), wherein the piston has an upper side for delimiting a combustion chamber in the cylinder , wherein at least one gas inlet opening is provided in the cylinder wall , through which opening the gas is introduced into the cylinder as fuel in gas mode, wherein in gas mode, the introduction of the gas is terminated at an inlet distance (E), characterized in that the inlet distance (E) indicates the distance of the upper side of the piston from the gas inlet opening in the axial direction (A), and wherein the inlet distance (E) is at least 14% of the stroke (S), which is defined by the difference in position of the upper side of the piston at the upper reversal point (OT) and at the lower reversal point (UT).
A thermal increase system electrically coupled to a cavity for containing a load, the thermal increase system comprising: a radio frequency, RF, signal source configured to supply an RF signal; a transmission path electrically coupled between an output of the RF signal source and a first electrode that is positioned within the cavity , wherein the RF signal has a forward signal power along the transmission path; an impedance matching network electrically coupled along the transmission path between the output of the RF signal source and the first electrode, wherein the impedance matching network comprises a first variable inductance network , characterised by a power detection circuitry configured to detect reflected signal power along the transmission path; and a controller configured to modify, based on the reflected signal power, an inductance value of the first variable inductance network to reduce a ratio of the reflected signal power to the forward signal power. a radio frequency, RF, signal source configured to supply an RF signal; a transmission path electrically coupled between an output of the RF signal source and a first electrode that is positioned within the cavity , wherein the RF signal has a forward signal power along the transmission path; an impedance matching network electrically coupled along the transmission path between the output of the RF signal source and the first electrode, wherein the impedance matching network comprises a first variable inductance network , characterised by a power detection circuitry configured to detect reflected signal power along the transmission path; and a controller configured to modify, based on the reflected signal power, an inductance value of the first variable inductance network to reduce a ratio of the reflected signal power to the forward signal power.