mhurhangee/ep-ind-claims huggingface dataset:
Method for pairing a motor with a remote control, wherein a first motor identification is present in the motor and the remote control is provided with a means for signal transmission for operating a roll-down blind, roller shutter, roller gate, awning, sun blind or similar closing means connected with the motor, comprising the following steps: a) entering a second motor identification in a computer program b) connecting the remote control with a computer comprising the computer program, c) transmitting the second motor identification from the computer program to the remote control connected with the computer, d) optionally interrupting the connection between the remote control and the computer, e) transmitting the second motor identification from the remote control to the motor, f) comparing the second motor identification transmitted from the remote control to the motor with the first motor identification present in the motor, g) when there is a match ( 6=6') between the first motor identification present in the motor and the second motor identification transmitted from the remote control to the motor, accepting signals transmitted from the remote control to the motor for operating the roll-down blind, roller shutter, roller gate, awning, sun blind or similar closing means, and h) when there is no match ( 6≠6') between the first motor identification present in the motor and the second motor identification transmitted from the remote control to the motor, ignoring signals transmitted by the remote control to the motor for operating the roll-down blind, roller shutter, roller gate, awning, sun blind or similar closing means. a) entering a second motor identification in a computer program b) connecting the remote control with a computer comprising the computer program, c) transmitting the second motor identification from the computer program to the remote control connected with the computer, d) optionally interrupting the connection between the remote control and the computer, e) transmitting the second motor identification from the remote control to the motor, f) comparing the second motor identification transmitted from the remote control to the motor with the first motor identification present in the motor, g) when there is a match ( 6=6') between the first motor identification present in the motor and the second motor identification transmitted from the remote control to the motor, accepting signals transmitted from the remote control to the motor for operating the roll-down blind, roller shutter, roller gate, awning, sun blind or similar closing means, and h) when there is no match ( 6≠6') between the first motor identification present in the motor and the second motor identification transmitted from the remote control to the motor, ignoring signals transmitted by the remote control to the motor for operating the roll-down blind, roller shutter, roller gate, awning, sun blind or similar closing means.
An image reading apparatus comprising: a light emitting element that emits a light; a light receiving element that receives the light reflected by a reference board upon being emitted from the light emitting element; a line period setter that sequentially sets line periods from among a plurality of line periods, the set line periods being sequentially longer, or sequentially shorter, wherein a line period is a reading interval set for reading an original line by line; a luminance calculator that calculates a luminance based on a light amount received by the light receiving element for the line period set by the line period setter; a storage that stores therein a reference light amount of the light emitted by the light emitting element; and a light amount setter that, for each sequentially set line period, causes the light emitting element to emit the light with gradually changing the reference light amount from the reference light amount set as a default value, identifies a new reference light amount so that the luminance calculated by the luminance calculator is within a predetermined range, sets the new reference light amount as a default value for the next sequentially set line period, and causes the storage to store the new reference light amount. a light emitting element that emits a light; a light receiving element that receives the light reflected by a reference board upon being emitted from the light emitting element; a line period setter that sequentially sets line periods from among a plurality of line periods, the set line periods being sequentially longer, or sequentially shorter, wherein a line period is a reading interval set for reading an original line by line; a luminance calculator that calculates a luminance based on a light amount received by the light receiving element for the line period set by the line period setter; a storage that stores therein a reference light amount of the light emitted by the light emitting element; and a light amount setter that, for each sequentially set line period, causes the light emitting element to emit the light with gradually changing the reference light amount from the reference light amount set as a default value, identifies a new reference light amount so that the luminance calculated by the luminance calculator is within a predetermined range, sets the new reference light amount as a default value for the next sequentially set line period, and causes the storage to store the new reference light amount.
Valve arrangement for a vibration damper, having a valve housing having an annular valve seat and provided for receiving damping liquid, and a valve piston that is arranged in an interior of the valve housing such that it can be axially shifted relative to the valve seat, and the valve piston has a main valve that has a flexible circular valve disc that can be brought into releasable contact with a contact surface side on the valve seat and the valve disc is arranged such that it can be moved axially on the valve piston relative to said valve piston by means of a guide pin and radially guided and the valve arrangement has an electromagnet having an anchor for biasing a pilot valve, characterised in that a flexible support disc is arranged on the support surface side of the valve disc facing away from the contact surface side of the valve disc, said flexible support disc being equipped such that the valve disc is supported on the flexible support disc along a first partial peripheral region in the peripheral direction of the valve disc, and in that the valve disc can be re-shaped along a second partial peripheral region extending in the peripheral direction of the valve disc as a consequence of an application of a pressure imparted by the damping liquid.
One or more computer-readable storage media having computer-executable instructions thereon which, when executed by a computing device, implement a method of scheduling, for a plurality of telecommunications devices (102, 104), network resource allocations corresponding to one or more communication burst for a current communications block of a train of communications blocks, the method comprising: for the current communications block and for each telecommunications device (102, 104) of the plurality of telecommunications devices (102, 104), determining whether a respective telecommunications device (102, 104) may save energy by entering sleep mode during a time interval in which network resources are not allocated to the respective telecommunications device (102, 104), the time interval being at least one of: (a) before an earliest candidate communication burst commences (508, 522); (b) after a last candidate communication burst ends (508, 522); and (c) between an end of a first candidate communication (508, 522) burst and a beginning of a second candidate communication burst (508, 522), where the second communication burst (508, 522) is immediately subsequent to the first communication burst (508, 522), and wherein the determining is based at least in part on whether the time interval is greater than a threshold value representing the minimum time interval for which it is feasible to save power by placing the respective telecommunications device (102,104) into sleep mode; and assigning at least one candidate communication burst (508, 522) to the respective telecommunications device (102, 104) in response to determining that the time interval is greater than the threshold value. for the current communications block and for each telecommunications device (102, 104) of the plurality of telecommunications devices (102, 104), determining whether a respective telecommunications device (102, 104) may save energy by entering sleep mode during a time interval in which network resources are not allocated to the respective telecommunications device (102, 104), the time interval being at least one of: (a) before an earliest candidate communication burst commences (508, 522); (b) after a last candidate communication burst ends (508, 522); and (c) between an end of a first candidate communication (508, 522) burst and a beginning of a second candidate communication burst (508, 522), where the second communication burst (508, 522) is immediately subsequent to the first communication burst (508, 522), and wherein the determining is based at least in part on whether the time interval is greater than a threshold value representing the minimum time interval for which it is feasible to save power by placing the respective telecommunications device (102,104) into sleep mode; and assigning at least one candidate communication burst (508, 522) to the respective telecommunications device (102, 104) in response to determining that the time interval is greater than the threshold value.
A control method, applied to a semiconductor memory, the semiconductor memory comprising a Data Mask, DM, pin, wherein the DM pin is used for receiving an input mask signal, and the input mask signal is a signal for controlling writing data into the semiconductor memory, characterized in that the method comprises: in response to that the semiconductor memory is in a preset test mode, when a fourth Operand, OP, in a first Model Register, MR, indicates to enable the DM pin, controlling an impedance of the DM pin to be a first impedance parameter or a second impedance parameter according to a third OP in a third MR, wherein the third OP indicates whether the DM pin is a test object in the preset test mode; or when the fourth OP in the first MR indicates not to enable the DM pin, controlling the impedance of the DM pin to be in a high impedance state. when a fourth Operand, OP, in a first Model Register, MR, indicates to enable the DM pin, controlling an impedance of the DM pin to be a first impedance parameter or a second impedance parameter according to a third OP in a third MR, wherein the third OP indicates whether the DM pin is a test object in the preset test mode; or when the fourth OP in the first MR indicates not to enable the DM pin, controlling the impedance of the DM pin to be in a high impedance state.
A method for switching forward link communications of a user terminal between first and second satellites, the method performed by the user terminal and comprising: receiving first data on a forward link of the first satellite; receiving time-division multiplexing, TDM, configuration information on the forward link of the first satellite, the TDM configuration information specifying a TDM transmission pattern for forward link communications to the user terminal from at least the first and second satellites; switching forward link communications of the user terminal from the first satellite to the second satellite during a handover operation; receiving second data on a forward link of the second satellite after the handover operation; and transmitting one or more control or data messages to a network controller on a return link of the first satellite after the handover operation. receiving first data on a forward link of the first satellite; receiving time-division multiplexing, TDM, configuration information on the forward link of the first satellite, the TDM configuration information specifying a TDM transmission pattern for forward link communications to the user terminal from at least the first and second satellites; switching forward link communications of the user terminal from the first satellite to the second satellite during a handover operation; receiving second data on a forward link of the second satellite after the handover operation; and transmitting one or more control or data messages to a network controller on a return link of the first satellite after the handover operation.
A sensor comprising: - an n-dosed substrate, - measuring electronics arranged at least partly on the substrate, said measuring electronics comprising a Wheatstone bridge, characterised by - a field shield arranged on the substrate in such a manner that the field shield covers the Wheatstone bridge, - a power supply arranged to supply electrical voltage to the substrate and the measuring electronics, in such a manner that: - a quasi-DC voltage is supplied to the Wheatstone bridge, and - a DC voltage is supplied to the substrate, the level of said DC voltage being higher than or equal to the quasi-DC voltage supplied to the Wheatstone bridge. - an n-dosed substrate, - measuring electronics arranged at least partly on the substrate, said measuring electronics comprising a Wheatstone bridge, characterised by - a field shield arranged on the substrate in such a manner that the field shield covers the Wheatstone bridge, - a power supply arranged to supply electrical voltage to the substrate and the measuring electronics, in such a manner that: - a quasi-DC voltage is supplied to the Wheatstone bridge, and - a DC voltage is supplied to the substrate, the level of said DC voltage being higher than or equal to the quasi-DC voltage supplied to the Wheatstone bridge. - a quasi-DC voltage is supplied to the Wheatstone bridge, and - a DC voltage is supplied to the substrate, the level of said DC voltage being higher than or equal to the quasi-DC voltage supplied to the Wheatstone bridge.
Radiation detector comprising: - a chamber containing an environment adapted for generating electrons under the effect of radiations, - a cathode by which radiations to be detected enter, - an anode for generating signals according to a current generated by the movement of charges near this anode, these charges correspond to electrons from which the radiations directly or indirectly originate, - polarisation means generating an electrical field adapted for leading electrons in a direction going from the cathode to the anode, - an amplifying structure, situated between the cathode and the anode, comprising a space for amplifying electrons, delimited between an input electrode and an output electrode, the input electrodes and output electrodes being configured such that in the amplification space, a first electrical field prevails, adapted such that electrons are generated by flooding into the amplification space, the amplification space leading to at least one opening of the output electrode, to let at least some of the electrons generated by flooding pass, - a diffusion space situated between the output electrode and the anode, wherein a second electrical field prevails, adapted to a diffusion, in directions perpendicular to this field, of electrons by diffusion on atoms and molecules of the environment contained in the chamber, the environment adapted for generating electrons under the effect of radiations comprising a gas, comprising a mixture of at least 50% of a rare gas and of carbon dioxide, the amplification space being constituted of at least 90% by volume by said gas, characterised in that the distance (e) separating the input electrodes and output electrodes is greater than 500μm and less than or equal to 1.5mm. - a chamber containing an environment adapted for generating electrons under the effect of radiations, - a cathode by which radiations to be detected enter, - an anode for generating signals according to a current generated by the movement of charges near this anode, these charges correspond to electrons from which the radiations directly or indirectly originate, - polarisation means generating an electrical field adapted for leading electrons in a direction going from the cathode to the anode, - an amplifying structure, situated between the cathode and the anode, comprising a space for amplifying electrons, delimited between an input electrode and an output electrode, the input electrodes and output electrodes being configured such that in the amplification space, a first electrical field prevails, adapted such that electrons are generated by flooding into the amplification space, the amplification space leading to at least one opening of the output electrode, to let at least some of the electrons generated by flooding pass, - a diffusion space situated between the output electrode and the anode, wherein a second electrical field prevails, adapted to a diffusion, in directions perpendicular to this field, of electrons by diffusion on atoms and molecules of the environment contained in the chamber,
A yarn winder that winds a plurality of yarns around a plurality of bobbins to form a plurality of packages, the yarn winder comprising: a bobbin holder that is arranged to extend in a predetermined direction and holds the plurality of bobbins side by side in the predetermined direction; a plurality of traverse guides for traversing each of the plurality of yarns along the predetermined direction; a traverse device that includes at least one of the plurality of traverse guides and is configured to drive the at least one traverse guide; a movement drive unit that moves the traverse device at least in the predetermined direction; wherein the yarn winder is characterised by further comprising a position information acquisition unit that acquires position information related to a position of a predetermined part of the plurality of bobbins in the predetermined direction. a bobbin holder that is arranged to extend in a predetermined direction and holds the plurality of bobbins side by side in the predetermined direction; a plurality of traverse guides for traversing each of the plurality of yarns along the predetermined direction; a traverse device that includes at least one of the plurality of traverse guides and is configured to drive the at least one traverse guide; a movement drive unit that moves the traverse device at least in the predetermined direction; wherein the yarn winder is characterised by further comprising a position information acquisition unit that acquires position information related to a position of a predetermined part of the plurality of bobbins in the predetermined direction.
A method for determining the status of a force measuring device, particularly a weighing device, with at least one force measuring module having a force measuring cell and a communication means, with a terminal, and with at least one communication line via which communication signals are transmittable between the communication means und the terminal, characterized in that, during operation of the force measuring device, the electrical voltage (Vs) of the at least one communication line is measured at least once by means of a voltage sensor (SENS), thereby generating at least one measurement value, in that the at least one measurement value and/or processed results thereof are transmitted via the at least one communication line to the terminal and/or to the communication means of another force measuring module, and in that a parameter of the status of the force measuring device is determined therefrom.
A method for winding a web material around a winding core (A1, A2) and producing a roll (L1; L2) of web material, comprising the following steps: - providing a first winding roller and a second winding roller forming a winding nip through which said winding cores (A1, A2) and said web material pass; - winding a predetermined quantity of web material around a first winding core to form a first roll; - after winding said first roll, severing the web material and starting to wind a second roll around a second winding core, characterized in that the web material is severed by lengthening the path of said web material between said first winding roller and a further roller, arranged upstream of said first winding roller with respect to a direction of advancement (fN) of said web material, said web material being guided around said further roller. - providing a first winding roller and a second winding roller forming a winding nip through which said winding cores (A1, A2) and said web material pass; - winding a predetermined quantity of web material around a first winding core to form a first roll; - after winding said first roll, severing the web material and starting to wind a second roll around a second winding core,
A peritoneal dialysis system comprising: a bellows; a common inlet/outlet fluid receptacle (106, 60) in fluid communication with the bellows; a plurality of fluid lines (108, 112, 116, 120, 124) in fluid communication with the common inlet/outlet receptacle; a linear actuator (30, 32, 34, 36) positioned and arranged to expand and compress the bellows; a plurality of valves (44a, 44b, 44c, 44d, 44e) positioned and arranged to allow or occlude flow through the plurality of fluid lines to or from the bellows; and a control unit configured to control the linear actuator (30, 32, 34, 36) and the plurality of valves (44a, 44b, 44c, 44d, 44e). a bellows; a common inlet/outlet fluid receptacle (106, 60) in fluid communication with the bellows; a plurality of fluid lines (108, 112, 116, 120, 124) in fluid communication with the common inlet/outlet receptacle; a linear actuator (30, 32, 34, 36) positioned and arranged to expand and compress the bellows; a plurality of valves (44a, 44b, 44c, 44d, 44e) positioned and arranged to allow or occlude flow through the plurality of fluid lines to or from the bellows; and a control unit configured to control the linear actuator (30, 32, 34, 36) and the plurality of valves (44a, 44b, 44c, 44d, 44e).