mhurhangee/ep-ind-claims huggingface dataset:
System for monitoring output signals of an encoder, comprising: • an object being measured which is rotated or moved; • an encoder body which outputs output signals commensurate with the amount of displacement or the amount of movement of the object being measured; • a controller for determining a warning output by comparing an output signal from the encoder body with output signal data stored in a storage device, wherein the storage device is adapted to store basic operation patterns of the object being measured and signals output from the encoder body, and wherein the controlled is adapted to • associate a basic operation pattern of the object being measured which has been set in an initial state with an output signal output from the encoder body at that time and • store this association in the storage device and • compare the output signal from the encoder body obtained by subsequent basic operation with the output signal data from basic operation in the initial state which is stored in the storage device, and • output this comparison data or measurement data or a warning if the difference between the two signals is greater than a fixed reference value, and wherein the basic operation is determined by a movement speed and/or a movement direction of the encoder. • an object being measured which is rotated or moved; • an encoder body which outputs output signals commensurate with the amount of displacement or the amount of movement of the object being measured; • a controller for determining a warning output by comparing an output signal from the encoder body with output signal data stored in a storage device, wherein • associate a basic operation pattern of the object being measured which has been set in an initial state with an output signal output from the encoder body at that time and • store this association in the storage device and • compare the output signal from the encoder body obtained by subsequent basic operation with the output signal data from basic operation in the initial state which is stored in the storage device, and • output this comparison data or measurement data or a warning if the difference between the two signals is greater than a fixed reference value,
A camera system comprising: a camera head; a camera control unit coupleable to the camera head; a monitor coupleable to the camera control unit for displaying images from the camera head and information from the camera control unit; and a tablet computer coupleable to the camera control unit for control of the camera control unit and the camera head, the tablet computer further comprising an application that is authenticated by the camera control unit for pairing the tablet computer to the camera control unit characterized in that the tablet application locks out all other applications on the tablet computer upon connection with the camera control unit. a camera head; a camera control unit coupleable to the camera head; a monitor coupleable to the camera control unit for displaying images from the camera head and information from the camera control unit; and a tablet computer coupleable to the camera control unit for control of the camera control unit and the camera head, the tablet computer further comprising an application that is authenticated by the camera control unit for pairing the tablet computer to the camera control unit characterized in that the tablet application locks out all other applications on the tablet computer upon connection with the camera control unit.
A method performed by a local sink apparatus, comprising: establishing a first connected isochronous stream, CIS, for communication with a source apparatus, the first CIS being one of a bidirectional or a unidirectional link; sending a first CIS indication to a remote sink apparatus, the first CIS indication informing the remote sink apparatus of the first CIS established between the local sink apparatus and the source apparatus; receiving a second CIS indication from the remote sink apparatus, the second CIS indication informing the local sink apparatus of a second CIS established between the remote sink apparatus and the source apparatus, the second CIS being the other of the bidirectional or the unidirectional link; determining, subsequent to establishing the first CIS and subsequent to receiving the second CIS indication from the remote sink apparatus, whether or not a CIS swap should be performed; and performing the CIS swap when it is determined that the CIS swap should be performed, the CIS swap comprising swapping ownerships of the first and second CISes with the remote sink apparatus, wherein after completing the CIS swap, the local and remote sink apparatuses communicate with the source apparatus respectively in accordance with the second and first CISes, and wherein the CIS swap is performed without involving the source apparatus. establishing a first connected isochronous stream, CIS, for communication with a source apparatus, the first CIS being one of a bidirectional or a unidirectional link; sending a first CIS indication to a remote sink apparatus, the first CIS indication informing the remote sink apparatus of the first CIS established between the local sink apparatus and the source apparatus; receiving a second CIS indication from the remote sink apparatus, the second CIS indication informing the local sink apparatus of a second CIS established between the remote sink apparatus and the source apparatus, the second CIS being the other of the bidirectional or the unidirectional link; determining, subsequent to establishing the first CIS and subsequent to receiving the second CIS indication from the remote sink apparatus, whether or not a CIS swap should be performed; and performing the CIS swap when it is determined that the CIS swap should be performed, the CIS swap comprising swapping ownerships of the first and second CISes with the remote sink apparatus, wherein after completing the CIS swap, the local and remote sink apparatuses communicate with the source apparatus respectively in accordance with the second and first CISes, and wherein the CIS swap is performed without involving the source apparatus.
A method of conducting a binding assay comprising: (a) contacting a sample comprising an analyte of interest with (i) a solid surface including a first binding reagent immobilized thereto comprising a first binding region that binds to said analyte of interest, wherein said first binding reagent is linked to a first linking agent comprising a first oligonucleotide sequence and (ii) a second binding reagent comprising a second binding region that binds to said analyte of interest, wherein said second binding reagent is linked to a second linking agent comprising a second oligonucleotide sequence, wherein said second oligonucleotide sequence comprises a sequence complementary to at least a portion of said first oligonucleotide sequence; wherein said contacting step is conducted under conditions wherein said first and second binding regions bind to said analyte and said first oligonucleotide sequence hybridizes to said second oligonucleotide sequence, wherein said first and second binding reagents are brought into proximity to one another via said first and second linking agents, respectively, bound to each of the binding reagents, wherein a binding energy between the first oligonucleotide sequence and the second oligonucleotide sequence is below a level to stably attach the first oligonucleotide sequence and the second oligonucleotide sequence to each other in the absence of simultaneous binding of the first and second binding regions to the analyte; and (b) measuring the amount of said analyte bound to said solid support. (a) contacting a sample comprising an analyte of interest with (i) a solid surface including a first binding reagent immobilized thereto comprising a first binding region that binds to said analyte of interest, wherein said first binding reagent is linked to a first linking agent comprising a first oligonucleotide sequence and (ii) a second binding reagent comprising a second binding region that binds to said analyte of interest, wherein said second binding reagent is linked to a second linking agent comprising a second oligonucleotide sequence, wherein said second oligonucleotide sequence comprises a sequence complementary to at least a portion of said first oligonucleotide sequence; wherein said contacting step is conducted under conditions wherein said first and second binding regions bind to said analyte and said first oligonucleotide sequence hybridizes to said second oligonucleotide sequence, wherein said first and second binding reagents are brought into proximity to one another via said first and second linking agents, respectively, bound to each of the binding reagents, wherein a binding energy between the first oligonucleotide sequence and the second oligonucleotide sequence is below a level to stably attach the first oligonucleotide sequence and the second oligonucleotide sequence to each other in the absence of simultaneous binding of the first and second binding regions to the analyte; and (b) measuring the amount of said analyte bound to said solid support.
Hydraulic system for underwater use with a hydraulic actuating drive which comprises a hydraulic cylinder and at least one hydraulic machine (48, 49), and with at least one rotary drive device (54, 55) which is coupled mechanically to the hydraulic machine (48, 49) for a joint rotational movement, the hydraulic machine (48, 49) adjusting at least the hydraulic cylinder, characterized in that the hydraulic cylinder comprises at least three cylinder chambers (32, 33, 34, 35, 36), there being a first hydraulic circuit and a second hydraulic circuit which open into different cylinder chambers (32, 33, 34, 35, 36), the hydraulic system comprising a vessel, in the interior space of which the hydraulic cylinder and the at least one hydraulic machine (48, 49) are arranged, and the at least one rotary drive device (54, 55) being arranged outside the vessel and being configured for coupling to the hydraulic machine (48, 49) and for coupling from the hydraulic machine (48, 49).
Method for adjusting an agricultural particle spreader machine comprising means for distributing particles on at least one spreader disc, said disc being rotatable and capable of projecting the particles onto the ground, said adjustment aiming to obtain a desired value for two predetermined projection parameters, namely an average angle of projection of the particles at the disc output with respect to the machine's axis of progress and an average projection distance; characterised in that the method determines the setting for two predetermined projection parameters from a single measurement, and in that it comprises the following steps: - a step of measuring a first piece of information representative of a deviation between the desired value of a first of the projection parameters and a reference value of the first projection parameter; - a step of determining a second piece of information representative of a deviation between the desired value of the second of the projection parameters and a reference value of said second projection parameter according to the first measured piece of information and a predetermined calculation rule; - a first step of adjusting at least one element of the machine so as to obtain the desired value of the first parameter, as a function of the deviation between the desired value and the reference value of the first of the projection parameters; and - a second step of adjusting at least one element of the machine so as to obtain the desired value of the second parameter, according to the second piece of information representative of the deviation between the desired value and the reference value of the second of the projection parameters. - a step of measuring a first piece of information representative of a deviation between the desired value of a first of the projection parameters and a reference value of the first projection parameter; - a step of determining a second piece of information representative of a deviation between the desired value of the second of the projection parameters and a reference value of said second projection parameter according to the first measured piece of information and a predetermined calculation rule; - a first step of adjusting at least one element of the machine so as to obtain the desired value of the first parameter, as a function of the deviation between the desired value and the reference value of the first of the projection parameters; and - a second step of adjusting at least one element of the machine so as to obtain the desired value of the second parameter, according to the second piece of information representative of the deviation between the desired value and the reference value of the second of the projection parameters.
A water-based barrier adhesive comprising: a polyurethane; at least one water-soluble polymer, wherein the water-soluble polymer comprises at least one hydroxyl group; and water; wherein the polyurethane comprises a polyether urethane and an aliphatic polyester urethane. a polyurethane; at least one water-soluble polymer, wherein the water-soluble polymer comprises at least one hydroxyl group; and water; wherein the polyurethane comprises a polyether urethane and an aliphatic polyester urethane.
A composition, comprising: A first agent which is metformin or a salt thereof; A second agent which is aspirin or a salt thereof; and A third agent which is serotonin or a salt thereof. A first agent which is metformin or a salt thereof; A second agent which is aspirin or a salt thereof; and A third agent which is serotonin or a salt thereof.
A method of switching from a liquefied gas fuel being provided to a direct injection combustion engine during a liquefied gas fuel consuming mode, to a liquid fuel being provided to the engine during a liquid fuel consuming mode, the method comprising the steps of: a) pumping a liquefied gas fuel by means of a liquefied gas fuel pump (114, 214) to a high pressure pump (126, 226) which is configured to pump liquefied gas fuel to a high pressure rail (180, 280) of the direct injection combustion engine during the liquefied gas fuel consuming mode; b) switching from the liquefied gas fuel consuming mode to the liquid fuel consuming mode; c) pumping a liquid fuel at a pressure at least equal to the vapor pressure of the liquefied gas fuel to the high pressure pump (126, 126), by means of at least a first liquid fuel pump (154, 254), wherein liquefied gas fuel is flushed via a return fuel line (129, 229) between the high pressure pump (126, 226) and a fuel tank (112, 212); d) stop pumping liquefied gas fuel to the high pressure pump (126, 226); e) stop flushing liquefied gas fuel by closing a return valve (132, 232) in the return fuel line (129, 229); f) after a predetermined delay after step e) and during the liquid fuel consuming mode, opening the return valve (132, 232) for a predetermined time to flush liquid fuel comprising any residual liquefied gas fuel via the return fuel line (129, 229); and g) decreasing the pressure of the liquid fuel pumped to the high pressure pump (126, 226) to a pressure lower than the vapor pressure of the liquefied gas fuel. a) pumping a liquefied gas fuel by means of a liquefied gas fuel pump (114, 214) to a high pressure pump (126, 226) which is configured to pump liquefied gas fuel to a high pressure rail (180, 280) of the direct injection combustion engine during the liquefied gas fuel consuming mode; b) switching from the liquefied gas fuel consuming mode to the liquid fuel consuming mode; c) pumping a liquid fuel at a pressure at least equal to the vapor pressure of the liquefied gas fuel to the high pressure pump (126, 126), by means of at least a first liquid fuel pump (154, 254), wherein liquefied gas fuel is flushed via a return fuel line (129, 229) between the high pressure pump (126, 226) and a fuel tank (112, 212); d) stop pumping liquefied gas fuel to the high pressure pump (126, 226); e) stop flushing liquefied gas fuel by closing a return valve (132, 232) in the return fuel line (129, 229); f) after a predetermined delay after step e) and during the liquid fuel consuming mode, opening the return valve (132, 232) for a predetermined time to flush liquid fuel comprising any residual liquefied gas fuel via the return fuel line (129, 229); and g) decreasing the pressure of the liquid fuel pumped to the high pressure pump (126, 226) to a pressure lower than the vapor pressure of the liquefied gas fuel.
An incombustible sound absorption panel wherein a honeycomb material is filled with a foam material to form a core, a sound absorption surface material as an air-permeable fiber material is arranged on one surface of the honeycomb material and a sound insulation material without air permeability is arranged on an opposite surface of the honeycomb material, and each of the materials is adhesively bonded with an adhesive, characterised in that a layer of chips of the foam material is arranged between the honeycomb material and the sound absorption surface material, and when the chips are heated, the chips act as a blocking material filling gaps between fibers of the sound absorption surface material to generate a state of oxygen deficiency. a honeycomb material is filled with a foam material to form a core, a sound absorption surface material as an air-permeable fiber material is arranged on one surface of the honeycomb material and a sound insulation material without air permeability is arranged on an opposite surface of the honeycomb material, and each of the materials is adhesively bonded with an adhesive, characterised in that a layer of chips of the foam material is arranged between the honeycomb material and the sound absorption surface material, and when the chips are heated, the chips act as a blocking material filling gaps between fibers of the sound absorption surface material to generate a state of oxygen deficiency.
A rail vehicle, wherein the rail vehicle comprises at least one vehicle door, wherein the at least one vehicle door is arranged in a door region of the rail vehicle, wherein a side wall of the rail vehicle has a door opening, in which the vehicle door is arranged when in the closed state, wherein the rail vehicle also comprises at least one device for positioning an auxiliary unit in the door region of a rail vehicle, wherein the device for positioning comprises at least one part arrangeable in a stationary manner relative to the rail vehicle, wherein the stationary part comprises at least one fastening means for fastening the stationary part to the rail vehicle, wherein the device for positioning comprises at least one part movable relative to the stationary part, wherein the auxiliary unit is arranged on the movable part, wherein the movable part is movable in an actuator-supported manner between a retracted and extended state, wherein the auxiliary unit in the extended state of the movable part is arranged at a distance from an outer wall of the rail vehicle which is greater than the maximum distance of an open door from the outer wall, wherein the stationary part is fastened to the rail vehicle, characterised in that the auxiliary unit is a lighting unit or an image capture unit or an information unit, wherein the information unit generates information visually or acoustically, wherein the device for positioning is arranged above the door opening of the rail vehicle.
A method for operating a self-traveling robot, wherein an environment map of an environment of the robot is generated based on measuring data recorded within the environment, wherein a position of the robot within the environment is estimated, and wherein the robot travels within the environment based on the environment map and its known position, characterized in that an environment map, which is currently not needed for the navigation of the robot, is detected and transmitted to an external memory unit.
A positioner (200, 200A, 200B, 200C, 200D) comprising: a control calculating portion adapted to receive, as inputs, an opening setting signal (Xsp) for a valve, sent from a higher-level device, and an actual opening signal (Xpv) expressing the current opening of the valve, and adapted to generate a control signal from the opening setting signal (Xsp) and the actual opening signal (Xpv); an electropneumatic converting portion adapted to convert the control signal from the control calculating portion into an air pressure (Pn); a pneumatic circuit portion adapted to use, as an input air pressure (Pn), an air pressure that has been converted by the electropneumatic converting portion, for amplifying this input air pressure to form an output air pressure, and to output this output air pressure to the valve; a valve opening detecting portion adapted to detect the current opening of the valve to produce an actual opening signal (Xpv) for the control calculating portion; a first case that contains the control calculating portion and the valve opening detecting portion; and a second case that contains the electropneumatic converting portion and the pneumatic circuit portion, wherein: the first case is assembled together with the valve; and the second case is located in a position away from the valve. a control calculating portion adapted to receive, as inputs, an opening setting signal (Xsp) for a valve, sent from a higher-level device, and an actual opening signal (Xpv) expressing the current opening of the valve, and adapted to generate a control signal from the opening setting signal (Xsp) and the actual opening signal (Xpv); an electropneumatic converting portion adapted to convert the control signal from the control calculating portion into an air pressure (Pn); a pneumatic circuit portion adapted to use, as an input air pressure (Pn), an air pressure that has been converted by the electropneumatic converting portion, for amplifying this input air pressure to form an output air pressure, and to output this output air pressure to the valve; a valve opening detecting portion adapted to detect the current opening of the valve to produce an actual opening signal (Xpv) for the control calculating portion; a first case that contains the control calculating portion and the valve opening detecting portion; and a second case that contains the electropneumatic converting portion and the pneumatic circuit portion, wherein: the first case is assembled together with the valve; and the second case is located in a position away from the valve. the first case is assembled together with the valve; and the second case is located in a position away from the valve.