mhurhangee/patent-ind-claim-en huggingface dataset:
A sample separating instrument , for use in emission transfer, which includes a separation medium and a holding section , the separation medium, in which a sample is electrophoresed, having an end part from which the sample is emitted and transferred to a transfer membrane that is moved in a state where the transfer membrane is in contact with the end part of the separation medium, the holding section, which holds the separation medium, having an opening on an end part side, the separation medium having an exposed part which is exposed outside the holding section through the opening, characterised by the exposed part having an extending part which extends on an edge part of the holding section which edge part is located on a side of the opening, and the sample separating instrument further comprising a fixing section for fixing the separation medium to the holding section, the fixing section being provided so as to be located between the edge part and the extending part. the separation medium, in which a sample is electrophoresed, having an end part from which the sample is emitted and transferred to a transfer membrane that is moved in a state where the transfer membrane is in contact with the end part of the separation medium, the holding section, which holds the separation medium, having an opening on an end part side, the separation medium having an exposed part which is exposed outside the holding section through the opening, characterised by the exposed part having an extending part which extends on an edge part of the holding section which edge part is located on a side of the opening, and the sample separating instrument further comprising a fixing section for fixing the separation medium to the holding section, the fixing section being provided so as to be located between the edge part and the extending part.
A conveyor system unit configured to form part of an endless conveyor system , each conveyor system unit comprising a first slat and a second slat together forming a pair of slats, each slat having a supporting surface with a first and a second long side edge portion and two short side edge portions , the first and second long side edge portions being longer than the two short side edge portions , and the first and second long side edge portions and the two short side edge portions together defining a rectangular supporting surface , wherein the first and second slats are arranged side by side in view of each other with a first long side edge portion of the first slat facing a second long side edge portion of the second slat , and wherein the first and second slats are interconnected by an elastomeric matrix extending across the supporting surfaces of the first and second slats , wherein the elastomeric matrix further comprises a connecting portion extending between the first and second slats thereby forming a continuous carrying surface of the conveyor system unit , wherein the connecting portion forms a hinged connection between the first and second slats , and wherein the elastomeric matrix is fastened to the first and second slats , characterized in that each conveyor system unit further comprises supporting side walls arranged at each short side edge portion of each slat , which supporting side walls extend upwards above the supporting surfaces of each slat , wherein the supporting side walls arranged on a same short edge side of the conveyor system unit are interconnected by an elastomeric matrix wall fastened to and extending across the supporting side walls , and the elastomeric matrix wall further comprising a connecting wall portion extending between the supporting side walls arranged on the same short edge side of the conveyor system unit thereby forming a continuous side wall at each short edge side of the conveyor system unit , wherein the connecting wall portions form a hinged connection between the supporting side walls at each short edge side of the conveyor system unit .
A sensor system comprising: a sensor comprising a sense capacitor (C S ) with a variable sense capacitance; and a readout integrated circuit comprising an analog to digital converter, ADC having an ADC input connected to the sense capacitor (C S ), wherein: a variable parasitic capacitance (C p1 , Cp2, C p3 ) is able to be coupled to the ADC input ; and when an input pressure is sensed by the sensor , the variable sense capacitance (C s ) is modulated, thereby generating one or more ADC output signals (430, d1, d0) in correspondence of the input pressure, characterised in that the sensor further comprises an offset capacitor (C OS ) operatively charged or discharged out of phase with respect to the sense capacitor (C S ). a sensor comprising a sense capacitor (C S ) with a variable sense capacitance; and a readout integrated circuit comprising an analog to digital converter, ADC having an ADC input connected to the sense capacitor (C S ), wherein: a variable parasitic capacitance (C p1 , Cp2, C p3 ) is able to be coupled to the ADC input ; and when an input pressure is sensed by the sensor , the variable sense capacitance (C s ) is modulated, thereby generating one or more ADC output signals (430, d1, d0) in correspondence of the input pressure, characterised in that the sensor further comprises an offset capacitor (C OS ) operatively charged or discharged out of phase with respect to the sense capacitor (C S ). a variable parasitic capacitance (C p1 , Cp2, C p3 ) is able to be coupled to the ADC input ; and when an input pressure is sensed by the sensor , the variable sense capacitance (C s ) is modulated, thereby generating one or more ADC output signals (430, d1, d0) in correspondence of the input pressure, characterised in that the sensor further comprises an offset capacitor (C OS ) operatively charged or discharged out of phase with respect to the sense capacitor (C S ).
A method for manufacturing a multilayer value document substrate, comprising - supplying a first and at least one second layer , wherein the first layer has at least one optical element; and - manufacturing the value document substrate by connecting the layers supplied, wherein the at least one second layer has a varying transparency, wherein - the layers supplied are connected in such a manner that the second layer covers the optical element of the first layer at least partly and a substantially transparent region of the second layer covers the optical element of the first layer ; characterized in that the varying of the transparency is produced by employing clouding, laser irradiation, UV irradiation, extrusion, thermoplastic embossing, grinding and/or mechanical surface treatment, and/or the varying of the transparency comprises configuring substantially transparent regions by means of heat sealing, hot embossing and/or applying pressure. - supplying a first and at least one second layer , wherein the first layer has at least one optical element; and - manufacturing the value document substrate by connecting the layers supplied, wherein the at least one second layer has a varying transparency, wherein - the layers supplied are connected in such a manner that the second layer covers the optical element of the first layer at least partly and a substantially transparent region of the second layer covers the optical element of the first layer ; the varying of the transparency is produced by employing clouding, laser irradiation, UV irradiation, extrusion, thermoplastic embossing, grinding and/or mechanical surface treatment, and/or the varying of the transparency comprises configuring substantially transparent regions by means of heat sealing, hot embossing and/or applying pressure.
A method comprising: targeting a sound source by processing at least two audio signals from at least two microphones of an apparatus and based on an output of at least one sensor of the apparatus ; tracking a position of the apparatus relative to the targeted sound source further based on the output of the at least one sensor , wherein tracking the position of the apparatus relative to the targeted sound source comprises determining a change in position of the apparatus from a first time period to a second time period; and processing the at least two audio signals from the at least two microphones dependent on the position of the apparatus relative to the targeted sound source to generate at least one output audio signal from the at least two microphones so as to maintain a direction of the targeted sound source independent of the apparatus actual position, wherein processing the at least two audio signals from the at least two microphones comprises beamforming the at least two audio signals from the at least two microphones dependent on the change in position of the apparatus to generate the at least one output audio signal, the at least one output audio signal comprising a focussing of acoustic energy from the targeted sound source independent of the apparatus actual position. targeting a sound source by processing at least two audio signals from at least two microphones of an apparatus and based on an output of at least one sensor of the apparatus ; tracking a position of the apparatus relative to the targeted sound source further based on the output of the at least one sensor , wherein tracking the position of the apparatus relative to the targeted sound source comprises determining a change in position of the apparatus from a first time period to a second time period; and processing the at least two audio signals from the at least two microphones dependent on the position of the apparatus relative to the targeted sound source to generate at least one output audio signal from the at least two microphones so as to maintain a direction of the targeted sound source independent of the apparatus actual position, wherein processing the at least two audio signals from the at least two microphones comprises beamforming the at least two audio signals from the at least two microphones dependent on the change in position of the apparatus to generate the at least one output audio signal, the at least one output audio signal comprising a focussing of acoustic energy from the targeted sound source independent of the apparatus actual position.
Stator of a turbine of a gas turbine, having a flow channel in which there are arranged guide vanes , which each have an outer and an inner vane platform , and having in each case a cooling-air chamber which is formed by adjacent vane platforms and serves for the passage of cooling air, characterized in that the resulting cooling-air chamber and/or a platform intermediate gap are/is formed in such a way that, proceeding from a side of the vane platform , which side faces the adjacent vane platform , there is formed at least one outflow pocket which is open towards a platform top side and which is connected to the cooling-air chamber , and in that , in the wall of the cooling-air chamber , there is formed at least one cooling-air pocket which is open radially inwardly towards the cooling-air chamber and which is delimited by an intermediate element or a sealing strip and which opens towards the platform intermediate gap .
A multidirectional drive device comprising: a driven member that comprises a spherical surface having depressions and protrusions; a rotation driving part that is in contact with the spherical surface of the driven member and rotates the driven member ; and a supporting member that is fixed to the driven member and supports an operated body (M), wherein at least either one of a position and an orientation of the operated body (M) is adjusted by rotation of the driven member ; and a holder that rotatably supports the driven member and has a spherical surface having depressions and protrusions, wherein the rotation driving part comprises first to third rotation driving parts, the first rotation driving part is disposed inside the holder , the first rotation driving part being in contact with the depressions and protrusions of the spherical surface of the driven member and rotating the driven member about a first axis (x), the third rotation driving part rotates the holder to rotate the driven member about a third axis (z) that intersects with the first axis (x), characterized in that the second rotation driving part is disposed inside the driven member , the second rotation driving part being in contact with the depressions and protrusions of the spherical surface of the holder and rotating the driven member , in conjunction with the operated body (M), about a second axis (y) that intersects with the first and third axes (x, z). a driven member that comprises a spherical surface having depressions and protrusions; a rotation driving part that is in contact with the spherical surface of the driven member and rotates the driven member ; and a supporting member that is fixed to the driven member and supports an operated body (M), wherein at least either one of a position and an orientation of the operated body (M) is adjusted by rotation of the driven member ; and a holder that rotatably supports the driven member and has a spherical surface having depressions and protrusions, wherein the rotation driving part comprises first to third rotation driving parts, the first rotation driving part is disposed inside the holder , the first rotation driving part being in contact with the depressions and protrusions of the spherical surface of the driven member and rotating the driven member about a first axis (x), the third rotation driving part rotates the holder to rotate the driven member about a third axis (z) that intersects with the first axis (x), characterized in that the second rotation driving part is disposed inside the driven member , the second rotation driving part being in contact with the depressions and protrusions of the spherical surface of the holder and rotating the driven member , in conjunction with the operated body (M), about a second axis (y) that intersects with the first and third axes (x, z).
A luminaire comprising: a mounting system comprising an adaptor plate that can be attached to a rail system , a lighting device comprises a shaft having a flange on a second end and configured to have a lamp on a first end, and a mounting device comprising at least a pair of interface plugs , wherein the pair of interface plugs are configured to be attached together to form an inner perimeter around a hollow space and the inner perimeter can embrace the second end of the shaft that is received through an opening of the adaptor plate , wherein the inner perimeter is substantially the same or larger than an outer perimeter of the shaft, but smaller than the flange , and wherein the opening of the adaptor plater is bigger than the flange , and smaller than the mounting device when the pair of the interface plugs are attached together. a mounting system comprising an adaptor plate that can be attached to a rail system , a lighting device comprises a shaft having a flange on a second end and configured to have a lamp on a first end, and a mounting device comprising at least a pair of interface plugs , wherein the pair of interface plugs are configured to be attached together to form an inner perimeter around a hollow space and the inner perimeter can embrace the second end of the shaft that is received through an opening of the adaptor plate , wherein the inner perimeter is substantially the same or larger than an outer perimeter of the shaft, but smaller than the flange , and wherein the opening of the adaptor plater is bigger than the flange , and smaller than the mounting device when the pair of the interface plugs are attached together.
A combustion device having a double-layer structure comprising: a main body , which is double layered, including an inner-layer wall and an outer-layer wall disposed outside of and spaced from the inner-layer wall such that the inner-layer wall and the outer-layer wall include a hollow disposed therebetween, and wherein the inner-layer wall forms a fuel receptacle with an opening ; and a wick having an end defining fuel-drawing end inserted into the fuel receptacle through the opening ; wherein an air gap between the inner-layer wall and the outer-layer wall effectively insulates fuel in fuel receptacle from being vaporized by heat and wherein the main body has an interconnecting portion interconnecting the inner-layer wall and the outer-layer wall , wherein the interconnecting portion extends from an outer periphery of the inner-layer wall to an inner periphery of the outer-layer wall , wherein the interconnecting portion is hollow and the wick is inserted through the interconnecting portion , and wherein the wick has an end defining burning end disposed outside of the interconnecting portion and the outer-layer wall ; wherein the wick is metallic; and wherein the inner-layer wall and the outer-layer wall are made from a transparent material. a main body , which is double layered, including an inner-layer wall and an outer-layer wall disposed outside of and spaced from the inner-layer wall such that the inner-layer wall and the outer-layer wall include a hollow disposed therebetween, and wherein the inner-layer wall forms a fuel receptacle with an opening ; and a wick having an end defining fuel-drawing end inserted into the fuel receptacle through the opening ; wherein an air gap between the inner-layer wall and the outer-layer wall effectively insulates fuel in fuel receptacle from being vaporized by heat and wherein the main body has an interconnecting portion interconnecting the inner-layer wall and the outer-layer wall , wherein the interconnecting portion extends from an outer periphery of the inner-layer wall to an inner periphery of the outer-layer wall , wherein the interconnecting portion is hollow and the wick is inserted through the interconnecting portion , and wherein the wick has an end defining burning end disposed outside of the interconnecting portion and the outer-layer wall ; wherein the wick is metallic; and wherein the inner-layer wall and the outer-layer wall are made from a transparent material.
A slot antenna comprising at least one rectangular electrode , a rectangular ground surface surrounding the electrode , wherein a rectangular slot is provided between the ground surface and the electrode, and at least one feed device , wherein the feed device is disposed in the region of the ground surface and/or the electrode , and wherein the feed device comprises a capacitive coupling device , wherein the feed device with the coupling device is located in the slot and the coupling device is λ/5 long, wherein λ is the wavelength of the useful signal, and wherein the length of the slot is greater than or equal to the wavelength of the useful signal.
An energy storage mounting system for an energy storage system of a vehicle, the mounting system comprising: - a vehicle mounting member connectable to a longitudinal frame of the vehicle, the vehicle mounting member comprising an elongated portion arranged to, when the vehicle mounting member is attached to the longitudinal frame, extend away from the longitudinal frame , wherein the elongated portion comprises a recess at an outer end portion thereof; and - a battery mounting member connectable to the energy storage system , the battery mounting member comprising a connecting portion , wherein the connecting portion is movable between a disconnected state, in which the connecting portion is positioned at a distance from the elongated portion of the vehicle mounting member , and a connected state, in which the connecting portion is positioned in the recess for connecting the battery mounting member to the vehicle mounting member , characterized in that the connecting portion is an elongated connecting portion rotatably connected to the battery mounting member , wherein the connecting portion is movable between the disconnected state and the connected state by rotation around a pivot joint of the battery mounting member . - a vehicle mounting member connectable to a longitudinal frame of the vehicle, the vehicle mounting member comprising an elongated portion arranged to, when the vehicle mounting member is attached to the longitudinal frame, extend away from the longitudinal frame , wherein the elongated portion comprises a recess at an outer end portion thereof; and - a battery mounting member connectable to the energy storage system , the battery mounting member comprising a connecting portion , wherein the connecting portion is movable between a disconnected state, in which the connecting portion is positioned at a distance from the elongated portion of the vehicle mounting member , and a connected state, in which the connecting portion is positioned in the recess for connecting the battery mounting member to the vehicle mounting member , characterized in that the connecting portion is an elongated connecting portion rotatably connected to the battery mounting member , wherein the connecting portion is movable between the disconnected state and the connected state by rotation around a pivot joint of the battery mounting member .
A drivetrain control apparatus for a motor-assisted vehicle , a drivetrain of said motor-assisted vehicle including an electric motor controller and an electric motor , the drivetrain control apparatus comprising: an opposing force processor adapted to calculate a value for a net opposing force acting on a vehicle; a vehicle speed sensor electrically connected to said opposing force processor; a differential air pressure sensor electrically connected to said opposing force processor, said air pressure sensor disposed to measure differential air pressure in a direction of travel of the vehicle; an accelerometer electrically connected to said opposing force processor, said accelerometer disposed to detect a component of acceleration in said direction of travel of the vehicle; a power assist processor electrically connected to said opposing force processor; and a motor power measurement circuit electrically connected to said power assist processor, said motor power measurement circuit disposed to output to said power assist processor a measured value of electrical power output from said motor controller to said electric motor , wherein said power assist processor is adapted to modify an amount of power sent from said electric motor controller to said electric motor in response to (i) said measured value of electrical power and (ii) a change in a magnitude of a net opposing force determined by said opposing force processor from signals sent from said air pressure sensor, said accelerometer, and said vehicle speed sensor, and wherein said apparatus does not require a direct measurement of torque. an opposing force processor adapted to calculate a value for a net opposing force acting on a vehicle; a vehicle speed sensor electrically connected to said opposing force processor; a differential air pressure sensor electrically connected to said opposing force processor, said air pressure sensor disposed to measure differential air pressure in a direction of travel of the vehicle; an accelerometer electrically connected to said opposing force processor, said accelerometer disposed to detect a component of acceleration in said direction of travel of the vehicle; a power assist processor electrically connected to said opposing force processor; and a motor power measurement circuit electrically connected to said power assist processor, said motor power measurement circuit disposed to output to said power assist processor a measured value of electrical power output from said motor controller to said electric motor , wherein said power assist processor is adapted to modify an amount of power sent from said electric motor controller to said electric motor in response to (i) said measured value of electrical power and (ii) a change in a magnitude of a net opposing force determined by said opposing force processor from signals sent from said air pressure sensor, said accelerometer, and said vehicle speed sensor, and wherein said apparatus does not require a direct measurement of torque.