mhurhangee/patent-ind-claim-en huggingface dataset:
An instrumentation device having a pulse output function, the instrumentation device comprising: a positive power supply terminal ; a negative power supply terminal ; a signal terminal ; characterized in that the instrumentation device further comprises: a control circuit connected to the positive power supply terminal through a power supply circuit ; an NPN-type transistor having a collector terminal connected to the positive power supply terminal , an emitter terminal connected to the negative power supply terminal through a feedback circuit , and a base terminal connected to the control circuit ; the feedback circuit being connected to the control circuit ; a PTC thermistor connected in series to the signal terminal ; and an N-channel type MOSFET having a drain terminal connected to the signal terminal through the PTC thermistor , a source terminal connected to the negative power supply terminal on a downstream side of the feedback circuit , and a gate terminal connected to the control circuit . a positive power supply terminal ; a negative power supply terminal ; a signal terminal ; a control circuit connected to the positive power supply terminal through a power supply circuit ; an NPN-type transistor having a collector terminal connected to the positive power supply terminal , an emitter terminal connected to the negative power supply terminal through a feedback circuit , and a base terminal connected to the control circuit ; the feedback circuit being connected to the control circuit ; a PTC thermistor connected in series to the signal terminal ; and an N-channel type MOSFET having a drain terminal connected to the signal terminal through the PTC thermistor , a source terminal connected to the negative power supply terminal on a downstream side of the feedback circuit , and a gate terminal connected to the control circuit .
A fastener having a damping function, with which at least a first and a second component are connectable via a screw connection, comprising the following features: a. an elastically deformable outer sleeve having a screw-in opening in a first axial end portion and a fastening section for a screw in a second axial end portion and b. a support sleeve , which is positive-lockingly arranged against rotation relative to the outer sleeve within the outer sleeve in the first axial end portion, characterized in that c. the outer sleeve comprises, at least in the first axial end portion , a rotationally asymmetrical circumferential contour with which a positive locking against rotation is establishable in a component opening (AO) adapted to the circumferential contour of the outer sleeve , and d. the support sleeve is rotationally asymmetrical and positive-lockingly arranged against rotation relative to the outer sleeve within the outer sleeve in the first axial end portion so that the circumferential contour of the elastically deformable outer sleeve is supported in the first axial end portion at least in certain areas in a form-maintaining manner, and e. the support sleeve is positive-lockingly connected to the fastening section arranged firmly in the second axial end portion against a relative rotation between the first and the second axial end portion of the outer sleeve . a. an elastically deformable outer sleeve having a screw-in opening in a first axial end portion and a fastening section for a screw in a second axial end portion and b. a support sleeve , which is positive-lockingly arranged against rotation relative to the outer sleeve within the outer sleeve in the first axial end portion, characterized in that c. the outer sleeve comprises, at least in the first axial end portion , a rotationally asymmetrical circumferential contour with which a positive locking against rotation is establishable in a component opening (AO) adapted to the circumferential contour of the outer sleeve , and d. the support sleeve is rotationally asymmetrical and positive-lockingly arranged against rotation relative to the outer sleeve within the outer sleeve in the first axial end portion so that the circumferential contour of the elastically deformable outer sleeve is supported in the first axial end portion at least in certain areas in a form-maintaining manner, and e. the support sleeve is positive-lockingly connected to the fastening section arranged firmly in the second axial end portion against a relative rotation between the first and the second axial end portion of the outer sleeve .
A connecting rod between a blade supporting the moving hooks and a driving bar of a Jacquard mechanism , the connecting rod comprising a body provided with at least one through housing for receiving a bearing shaft with the possibility of relative pivoting about a central axis (B222, B224) of the through housing , the through housing extending, along its central axis (B222, B224), between a first axial end and a second axial end , characterized in that the body of the connecting rod bears a first sealing gasket , at the first axial end of the through housing , and a second sealing gasket , at the second axial end of the through housing.
A windscreen wiper device , comprising: a wiper blade made of an elastomeric material and extending in a longitudinal direction; a carrier element that is pre-curved to have a curved shape when in a relaxed condition and operatively supporting said wiper blade and biasing said wiper blade into a curved shape; said carrier element having opposing lateral edges , at least one of said lateral edges having a notch formed therein; a connector base operably connected with said carrier element and including at least one projection received in said at least one notch of said carrier element for restricting relative movement between said connector base and said carrier element in said longitudinal direction; said connector base further including a plurality of locking arms which engage around said lateral edges of said carrier element to lockingly connect said connector base with said carrier element; the wiper device being characterised in that said plurality of locking arms include at least one long locking arm on one lateral side of said connector base and at least one short locking arm on an opposite lateral side of said connector base from said at least one long locking arm, said at least one short locking arm having a lateral width that is less than said at least one long locking arm; and said at least one short locking arm having ramped lower surfaces for allowing said at least one short locking arm to snappingly engage said carrier element. a wiper blade made of an elastomeric material and extending in a longitudinal direction; a carrier element that is pre-curved to have a curved shape when in a relaxed condition and operatively supporting said wiper blade and biasing said wiper blade into a curved shape; said carrier element having opposing lateral edges , at least one of said lateral edges having a notch formed therein; a connector base operably connected with said carrier element and including at least one projection received in said at least one notch of said carrier element for restricting relative movement between said connector base and said carrier element in said longitudinal direction; said connector base further including a plurality of locking arms which engage around said lateral edges of said carrier element to lockingly connect said connector base with said carrier element; the wiper device being characterised in that said plurality of locking arms include at least one long locking arm on one lateral side of said connector base and at least one short locking arm on an opposite lateral side of said connector base from said at least one long locking arm, said at least one short locking arm having a lateral width that is less than said at least one long locking arm; and said at least one short locking arm having ramped lower surfaces for allowing said at least one short locking arm to snappingly engage said carrier element.
A method for providing a processed cellulose-comprising mixed starting material for forming a regenerated cellulosic molded body , wherein the method comprises: providing a first starting material which comprises a lignocellulosic raw material; providing a second starting material which comprises a cellulose-containing lignin-free product; mixing the first starting material and the second starting material to a mixed starting material ; and at least partially commonly processing the first starting material and the second starting material for obtaining the processed cellulose-comprising mixed starting material , in particular a mixed pulp, wherein the lignocellulosic raw material comprises one of the group which is consisting of: a wood material, in particular wood chips, annual plants, and wherein the cellulose-containing lignin-free product comprises textiles. providing a first starting material which comprises a lignocellulosic raw material; providing a second starting material which comprises a cellulose-containing lignin-free product; mixing the first starting material and the second starting material to a mixed starting material ; and at least partially commonly processing the first starting material and the second starting material for obtaining the processed cellulose-comprising mixed starting material , in particular a mixed pulp, wherein the lignocellulosic raw material comprises one of the group which is consisting of: a wood material, in particular wood chips, annual plants, and wherein the cellulose-containing lignin-free product comprises textiles.
A method of desalinating water within a water treatment system, comprising: removing, within an ion-removal apparatus of the water treatment system, at least a portion of at least one scale-forming ion from a saline aqueous feed stream comprising the scale-forming ion and at least one dissolved monovalent salt to produce an ion-diminished stream containing less of the scale-forming ion relative to the saline aqueous feed stream; transferring heat, within a heat exchanger of the water treatment system, from a first heat exchanger stream to at least a portion of the ion-diminished stream to heat the ion-diminished stream; evaporating, within a humidifier of the water treatment system, water from the heated ion-diminished stream into a gaseous stream to produce a concentrated saline stream, which is enriched in a dissolved monovalent salt relative to the saline aqueous feed stream, and a humidified gaseous stream; condensing, within a dehumidifier of the water treatment system fluidically connected to the humidifier, water from the humidified gaseous stream to produce a water-containing stream and a dehumidified gaseous stream; and operating the water treatment system to establish a temperature and/or flow velocity of the ion-diminished stream within the humidifier such that scale is formed within the humidifier and at least about 60 wt% of all scale formed in the water treatment system is formed in the humidifier removing, within an ion-removal apparatus of the water treatment system, at least a portion of at least one scale-forming ion from a saline aqueous feed stream comprising the scale-forming ion and at least one dissolved monovalent salt to produce an ion-diminished stream containing less of the scale-forming ion relative to the saline aqueous feed stream; transferring heat, within a heat exchanger of the water treatment system, from a first heat exchanger stream to at least a portion of the ion-diminished stream to heat the ion-diminished stream; evaporating, within a humidifier of the water treatment system, water from the heated ion-diminished stream into a gaseous stream to produce a concentrated saline stream, which is enriched in a dissolved monovalent salt relative to the saline aqueous feed stream, and a humidified gaseous stream; condensing, within a dehumidifier of the water treatment system fluidically connected to the humidifier, water from the humidified gaseous stream to produce a water-containing stream and a dehumidified gaseous stream; and operating the water treatment system to establish a temperature and/or flow velocity of the ion-diminished stream within the humidifier such that scale is formed within the humidifier and at least about 60 wt% of all scale formed in the water treatment system is formed in the humidifier
System for generating the movement of a support plate, the support plate being, in a so-called neutral position, substantially parallel to an XY plane defined by a so-called X direction and a so-called Y direction, said system being configured to be able to move said support plate in at least some of the six degrees of freedom, said six degrees of freedom corresponding, respectively, to a so-called Xi translation along the X direction and a so-called θX rotation around this X direction, to a so-called Yi translation along the Y direction and a so-called θY rotation around this Y direction, to a so-called Zi translation along a so-called Z direction and a so-called θZ rotation around this Z direction, with the Z direction being orthogonal to said X and Y directions, said system comprising at least two control stages (E1, E2) superimposed in a direction Z and being secured to each other, at least one of said control stages (E1, E2) comprising a control module (M1, M2), characterised in that said at least one control module (M1, M2) comprises only movement units (U1, U2) designed so as to each generate a translational movement of the support plate in the XY plane, and this respectively in different directions, and in that said at least one control module, called first control module (M1), comprises: - a first lower plate and a first upper plate ; - at least two movement units (U1), the movement units (U1) being fixed on an upper face of the first lower plate ; and - straight guide rails , each one of said guide rails being mounted on one of said movement units (U1) to which it is associated, each one of said guide rails being arranged orthogonally to the direction of movement of the associated movement unit (U1) and being designed in such a way as to move under the action of the associated movement unit (U1), each one of said guide rails carrying a mobile carriage which is designed to be freely mobile orthogonally to the direction of movement of the associated movement unit (U1), each one of said mobile carriages being connected to a lower face of the first upper plate . - a first lower plate and a first upper plate ; - at least two movement units (U1), the movement units (U1) being fixed on an upper face of the first lower plate ; and - straight guide rails , each one of said guide rails being mounted on one of said movement units (U1) to which it is associated, each one of said guide rails being arranged orthogonally to the direction of movement of the associated movement unit (U1) and being designed in such a way as to move under the action of the associated movement unit (U1), each one of said guide rails carrying a mobile carriage which is designed to be freely mobile orthogonally to the direction of movement of the associated movement unit (U1), each one of said mobile carriages being connected to a lower face of the first upper plate .
A circuit arrangement for generating an output signal correlating with an approximation process on the basis of changes in the dielectric properties of the surroundings of a sensor electrode (Es), comprising: - a sensor electrode (Es) which at least in sections is adjacent to an observation area; - a microcontroller circuit (μC) for output of an alternating square wave voltage; - a voltage divider circuit for adjusting the level of the alternating square-wave voltage output by the microcontroller (μC), - and a field effect transistor (FET) in the function of an impedance converter, the field effect transistor being integrated into the circuit arrangement in such a way that the voltage output by the voltage divider circuit is present at its gate and at the same time on the sensor electrode (Es), and the field effect transistor in source follower set-up is integrated as an input stage in the circuit arrangement, a source connection of the FET being connected to the input of an evaluation circuit (XOR), and - a capacitor device (C 1 ) which is coupled between the gate and a reference potential and a charging resistor (R) connected upstream of the gate input, - wherein the capacitor device (C 1 ) is charged over a first half period (T / 2) and the capacitor device (C 1 ) is discharged over a subsequent second half period (T / 2) of the square-wave voltage. - a sensor electrode (Es) which at least in sections is adjacent to an observation area; - a microcontroller circuit (μC) for output of an alternating square wave voltage; - a voltage divider circuit for adjusting the level of the alternating square-wave voltage output by the microcontroller (μC), - and a field effect transistor (FET) in the function of an impedance converter, the field effect transistor being integrated into the circuit arrangement in such a way that the voltage output by the voltage divider circuit is present at its gate and at the same time on the sensor electrode (Es), and the field effect transistor in source follower set-up is integrated as an input stage in the circuit arrangement, a source connection of the FET being connected to the input of an evaluation circuit (XOR), and - a capacitor device (C 1 ) which is coupled between the gate and a reference potential and a charging resistor (R) connected upstream of the gate input, - wherein the capacitor device (C 1 ) is charged over a first half period (T / 2) and the capacitor device (C 1 ) is discharged over a subsequent second half period (T / 2) of the square-wave voltage.
A method for training a neural network and embedding a watermark in the neural network, wherein the watermark is for proving ownership of the neural network, and wherein the neural network comprises a plurality of trainable parameters associated with a number of network nodes, the method comprising: splitting the plurality of trainable parameters into a first set of trainable parameters and a second set of trainable parameters; inputting a first set of training samples to the neural network; training the neural network by iterating the first set of training samples through the neural self learning network to update the first set of trainable parameters and hindering the second set of trainable parameters to be updated during iteration of the first set of training samples; inputting a second set of training samples, to the neural network; and embedding the watermark by iterating the second set of training samples through the neural network to update the second set of trainable parameters and hindering the first set of trainable parameters to be updated during iteration of the second set of training samples; wherein the first set of training samples comprises general training samples for training the neural network, and wherein the second set of training samples comprises training samples for watermarking. splitting the plurality of trainable parameters into a first set of trainable parameters and a second set of trainable parameters; inputting a first set of training samples to the neural network; training the neural network by iterating the first set of training samples through the neural self learning network to update the first set of trainable parameters and hindering the second set of trainable parameters to be updated during iteration of the first set of training samples; inputting a second set of training samples, to the neural network; and embedding the watermark by iterating the second set of training samples through the neural network to update the second set of trainable parameters and hindering the first set of trainable parameters to be updated during iteration of the second set of training samples; wherein the first set of training samples comprises general training samples for training the neural network, and wherein the second set of training samples comprises training samples for watermarking.
Water-based two-component coating composition comprising A) at least one cross-linkable binder having at least one functional group reactive towards isocyanate groups, B) at least one cross-linking agent having at least one free isocyanate group, C) at least one catalyst compound comprising: I) at least one organo-metal catalyst for the curing reaction between isocyanate groups and functional groups reactive towards isocyanate groups and II) at least one oligomeric or polymeric binder compound having a glass transition temperature Tg of ≥ 20 °C, measured by DSC (differential scanning calorimetry) at a heating rate of 10 K/min, wherein the solids content of the catalyst compound consists of the combination of catalyst I) and binder compound II). A) at least one cross-linkable binder having at least one functional group reactive towards isocyanate groups, B) at least one cross-linking agent having at least one free isocyanate group, C) at least one catalyst compound comprising: I) at least one organo-metal catalyst for the curing reaction between isocyanate groups and functional groups reactive towards isocyanate groups and II) at least one oligomeric or polymeric binder compound having a glass transition temperature Tg of ≥ 20 °C, measured by DSC (differential scanning calorimetry) at a heating rate of 10 K/min, wherein the solids content of the catalyst compound consists of the combination of catalyst I) and binder compound II). I) at least one organo-metal catalyst for the curing reaction between isocyanate groups and functional groups reactive towards isocyanate groups and II) at least one oligomeric or polymeric binder compound having a glass transition temperature Tg of ≥ 20 °C, measured by DSC (differential scanning calorimetry) at a heating rate of 10 K/min,