mhurhangee/ep-ind-claims huggingface dataset:
Method for extending the functionality of an electric welding apparatus which comprises a programmable control unit and an input device, wherein a control command for a desired functional extension is issued to the control unit, and the control unit generates an apparatus code which is transmitted to an external verifying facility, wherein the external verifying facility uses the apparatus code to verify entitlement to the functional extension and, if entitlement exists, generates an external activation code which is transmitted to the control unit, and wherein the control unit verifies the validity of the external activation code and, if it is valid, implements the functional extension, characterised in that the control unit generates the apparatus code using the control command, the control command containing an identification number which characterises the desired functional extension and the identification number being used for generating the apparatus code, the identification number being encoded for generating the apparatus code.
A composition comprising a thermoplastic polymer, cellulosic material and a functional filler, wherein the functional filler comprises an inorganic particulate and a surface treatment agent on a surface of the inorganic particulate, wherein at least 50 % by weight of the thermoplastic polymer is recycled polymer.
A surgical generator, comprising: a power supply configured to generate a power signal; a radio frequency output stage configured to receive the power signal and generate a radio frequency signal from the power signal; an overcurrent detection circuit configured to detect one of an overcurrent of the power signal and an overcurrent of the radio frequency signal; an interrupt circuit coupled to the overcurrent detection circuit in operative communication therewith, wherein the interrupt circuit provides an interrupt signal in response to a detected overcurrent; and a processor configured to supply a pulse-width modulation signal to the power supply, the processor in operative communication with the interrupt circuit to receive the interrupt signal therefrom, wherein the processor or a cutoff circuit is configured to disable the radio frequency output stage in response to the overcurrent, wherein the processor is configured to incrementally decrease the duty cycle of the pulse-width modulation signal in response to the interrupt signal until the processor determines that a predetermined low duty cycle has been achieved and thereafter the processor is configured to maintain the predetermined low duty cycle of the pulse-width modulation signal until the processor determines that a predetermined time has passed, wherein the processor is configured to incrementally increase the duty cycle of the pulse-width modulation signal after the predetermined time, and wherein the processor is configured to enable the radio frequency output stage after the predetermined time. a power supply configured to generate a power signal; a radio frequency output stage configured to receive the power signal and generate a radio frequency signal from the power signal; an overcurrent detection circuit configured to detect one of an overcurrent of the power signal and an overcurrent of the radio frequency signal; an interrupt circuit coupled to the overcurrent detection circuit in operative communication therewith, wherein the interrupt circuit provides an interrupt signal in response to a detected overcurrent; and a processor configured to supply a pulse-width modulation signal to the power supply, the processor in operative communication with the interrupt circuit to receive the interrupt signal therefrom, wherein the processor or a cutoff circuit is configured to disable the radio frequency output stage in response to the overcurrent, wherein the processor is configured to incrementally decrease the duty cycle of the pulse-width modulation signal in response to the interrupt signal until the processor determines that a predetermined low duty cycle has been achieved and thereafter the processor is configured to maintain the predetermined low duty cycle of the pulse-width modulation signal until the processor determines that a predetermined time has passed, wherein the processor is configured to incrementally increase the duty cycle of the pulse-width modulation signal after the predetermined time, and wherein the processor is configured to enable the radio frequency output stage after the predetermined time.
A method for signal sensitivity matching, the method comprising: generating a first input signal from a first sensor in a sensor array and a second input signal from a second sensor in the sensor array, wherein the first input signal and the second input signal are respectively representable, at least at one frequency, by a first input vector and a second input vector, each of the first input vector and the second input vector having a phase component and a magnitude component; processing the first input signal and the second input signal, the processing including using the magnitude component of the first input vector and the second input vector to obtain (96, 97) respectively a first output vector corresponding to the first input vector and a second output vector corresponding to the second input vector, each of the first output vector and the second output vector having a magnitude that is substantially equal to a mathematical mean of the magnitudes of two or more input vectors, the two or more input vectors including (a) the first input vector, (b) the second input vector, and (c) zero or more other input vectors generated from zero or more other input signals generated from zero or more other input signal sensors in the sensor array; and generating an output signal having a magnitude that is a function of the first output vector and the second output vector. generating a first input signal from a first sensor in a sensor array and a second input signal from a second sensor in the sensor array, wherein the first input signal and the second input signal are respectively representable, at least at one frequency, by a first input vector and a second input vector, each of the first input vector and the second input vector having a phase component and a magnitude component; processing the first input signal and the second input signal, the processing including using the magnitude component of the first input vector and the second input vector to obtain (96, 97) respectively a first output vector corresponding to the first input vector and a second output vector corresponding to the second input vector, each of the first output vector and the second output vector having a magnitude that is substantially equal to a mathematical mean of the magnitudes of two or more input vectors, the two or more input vectors including (a) the first input vector, (b) the second input vector, and (c) zero or more other input vectors generated from zero or more other input signals generated from zero or more other input signal sensors in the sensor array; and generating an output signal having a magnitude that is a function of the first output vector and the second output vector.
Light, comprising at least one light source and at least one light guide, with - at least one slab like section branching at at least one junction (43, 45, 47) in at least a first branch (52, 54, 56) and a second branch (52, 54, 56), - at least one light entrance surface facing towards the light source for coupling light from the light source into the slab like section, wherein the light entrance surface comprises at least - one first lens (61, 62, 63, 64, 65, 66) configured to form a first collimated light beam (71, 73, 75) propagating from the first lens (61, 62, 63, 64, 65, 66) through said slab like section towards the first branch and - one second lens (61, 62, 63, 64, 65, 66) configured to form a second collimated light beam (71, 73, 75) propagating through said slab like section from the second lens (61, 62, 63, 64, 65, 66) towards the second branch, wherein said first and second lenses are configured to form the first and second collimated beams (71, 73, 75) to have optical axes directing in different directions and that said first and second collimated light beams (71, 73, 75) propagate in two different directions through said slab like section of the light guide, thereby defining the amount of light entering each of the branches (52, 54, 56). - at least one slab like section branching at at least one junction (43, 45, 47) in at least a first branch (52, 54, 56) and a second branch (52, 54, 56), - at least one light entrance surface facing towards the light source for coupling light from the light source into the slab like section, - one first lens (61, 62, 63, 64, 65, 66) configured to form a first collimated light beam (71, 73, 75) propagating from the first lens (61, 62, 63, 64, 65, 66) through said slab like section towards the first branch and - one second lens (61, 62, 63, 64, 65, 66) configured to form a second collimated light beam (71, 73, 75) propagating through said slab like section from the second lens (61, 62, 63, 64, 65, 66) towards the second branch,
A method of making an electronic device comprising: forming an interconnect layer stack on a rigid wafer substrate, said interconnect layer stack comprising a plurality of patterned electrical conductor layers with dielectric layers between adjacent patterned electrical conductor layers, and at least one solder pad on an uppermost patterned electrical conductor layer; forming an LCP solder mask, with the LCP solder mask having at least one aperture therein alignable with the at least one solder pad; aligning the at least one aperture in the LCP solder mask with the interconnect layer stack together; laminating the LCP solder mask and the interconnect layer stack together; positioning solder in the at least one aperture; and positioning an integrated circuit over the solder mask such that the integrated circuit pads contact the solder. forming an interconnect layer stack on a rigid wafer substrate, said interconnect layer stack comprising a plurality of patterned electrical conductor layers with dielectric layers between adjacent patterned electrical conductor layers, and at least one solder pad on an uppermost patterned electrical conductor layer; forming an LCP solder mask, with the LCP solder mask having at least one aperture therein alignable with the at least one solder pad; aligning the at least one aperture in the LCP solder mask with the interconnect layer stack together; laminating the LCP solder mask and the interconnect layer stack together; positioning solder in the at least one aperture; and positioning an integrated circuit over the solder mask such that the integrated circuit pads contact the solder.
A fixing unit position-adjusting apparatus for adjusting a position of a fixing unit with respect to a main body of an image forming apparatus, comprising: a first member including a positioning portion that is formed on a lateral surface of the first member, the positioning portion being engaged with a positioning portion of the main body so that the first member is mounted on the main body in a manner positionable in a left and right direction; and a second member including a reference pin insertion portion that is formed to receive insertion of a reference pin of the main body, wherein the first member includes a mounting hole configured to receive the reference pin insertion portion of the second member so that the second member is assembled with the first member, the mounting hole having a non-circular shape to enable the second member to move in the left and right directions with respect to the first member; and in a state where the first member and the second member are assembled and the reference pin of the main body is inserted into the reference pin insertion portion, the first member and the second member are provided in between the fixing unit and the main body so as to mount the fixing unit on the main body in a position adjustable manner. a first member including a positioning portion that is formed on a lateral surface of the first member, the positioning portion being engaged with a positioning portion of the main body so that the first member is mounted on the main body in a manner positionable in a left and right direction; and a second member including a reference pin insertion portion that is formed to receive insertion of a reference pin of the main body, wherein
A unit rack for power storage, comprising: a plurality of cell modules which are series- or parallel-connected with each other by connection lines; a housing for accommodating the cell modules; a receiving part of a circuit breaker, formed or installed in the housing, and having a ground clearance higher than the highest ground clearance of the cell modules; a circuit breaker received in the receiving part and connected between the connection lines; a receiving part cover for closing the receiving part of the circuit breaker; and a gasket for the receiving part cover, interposed between the receiving part of the circuit breaker and the receiving part cover, wherein the housing is provided with a penetrating hole which connects the inner space of the receiving part with a receiving space for the cell modules, and the connection lines pass through the penetrating hole, wherein the unit rack for power storage further comprises a gasket for the penetrating hole, interposed between the inner side of the penetrating hole and the connection lines. a plurality of cell modules which are series- or parallel-connected with each other by connection lines; a housing for accommodating the cell modules; a receiving part of a circuit breaker, formed or installed in the housing, and having a ground clearance higher than the highest ground clearance of the cell modules; a circuit breaker received in the receiving part and connected between the connection lines; a receiving part cover for closing the receiving part of the circuit breaker; and a gasket for the receiving part cover, interposed between the receiving part of the circuit breaker and the receiving part cover, wherein the housing is provided with a penetrating hole which connects the inner space of the receiving part with a receiving space for the cell modules, and the connection lines pass through the penetrating hole, wherein the unit rack for power storage further comprises a gasket for the penetrating hole, interposed between the inner side of the penetrating hole and the connection lines.
A pivot drive comprising a drive apparatus and a pivotable tube, wherein the drive apparatus comprises a drive element, a gearbox, a coupling and a drive flange, wherein the drive flange is operatively connected to the pivotable tube, and by means of the drive element, the gearbox and the coupling a torque can be transmitted from the drive apparatus via the drive flange to the pivotable tube, wherein the drive apparatus is arranged within the pivotable tube and the drive apparatus has a coupling flange and a stop flange, wherein the stop flange is operatively connected to the coupling flange and the coupling flange and the stop flange each have a stop so that the rotary movement transmitted by the drive apparatus to the pivotable tube is limited by the stops and the coupling flange can be immovably connected to a base, characterized in that the coupling engages the coupling flange and the coupling flange has a connecting part for decoupling the coupling from the coupling flange.
A method for remotely controlling a camera in an environment where there is a delay, comprising: providing a control device for controlling a remotely located camera via a network, the control device comprising a monitor for viewing an image provided by the camera; sending a control signal from the control device to the camera with a command for controlling at least one of a function, setting, or parameter of the camera; modifying an image displayed on the monitor of the control device in accordance with the command to provide an emulated image for display prior to execution of the command at the camera; characterized in that the method further comprises providing a time code for the command in the control signal; embedding the time code in an image frame upon execution of the command by the camera; and seamlessly replacing the emulated image with the actual image upon execution of the command and receipt of the image frame with the time code at the control device. providing a control device for controlling a remotely located camera via a network, the control device comprising a monitor for viewing an image provided by the camera; sending a control signal from the control device to the camera with a command for controlling at least one of a function, setting, or parameter of the camera; modifying an image displayed on the monitor of the control device in accordance with the command to provide an emulated image for display prior to execution of the command at the camera; characterized in that the method further comprises providing a time code for the command in the control signal; embedding the time code in an image frame upon execution of the command by the camera; and seamlessly replacing the emulated image with the actual image upon execution of the command and receipt of the image frame with the time code at the control device.
A gas-air mixing device used in a gas boiler, comprising: a gas supply tube branched into a first gas flow path and a second gas flow path; an air supply tube; and a pneumatic valve connected to an inlet side of the gas supply tube in order to control rate of a gas supply supplied to the gas supply tube; characterized in that the gas-air mixing device further comprises a drive unit having two valve bodies (161, 162) connected to a rod that moves vertically up and down by magnetic force of an electromagnet, and an air flow path branching apparatus arranged within the air supply tube and dividing the air flow path within the air supply tube into a first air flow path and a second air flow path, the air flow path branching apparatus consisting of a first air flow path guide and a second air flow path guide wherein a slot is formed between the first air flow path guide and the second air flow path guide through which air in the first air flow path passes and through which the rod passes though, and a joining part through which the rod passes through is formed on the first air flow path guide at a position corresponding to the slot, and in that when one of the two valve bodies (161,162) closes the slot due to the movement of the rod, the other of the two valve bodies (161, 162) closes the second gas flow path. a gas supply tube branched into a first gas flow path and a second gas flow path; an air supply tube; and a pneumatic valve connected to an inlet side of the gas supply tube in order to control rate of a gas supply supplied to the gas supply tube; characterized in that the gas-air mixing device further comprises a drive unit having two valve bodies (161, 162) connected to a rod that moves vertically up and down by magnetic force of an electromagnet, and an air flow path branching apparatus arranged within the air supply tube and dividing the air flow path within the air supply tube into a first air flow path and a second air flow path, the air flow path branching apparatus consisting of a first air flow path guide and a second air flow path guide wherein a slot is formed between the first air flow path guide and the second air flow path guide through which air in the first air flow path passes and through which the rod passes though, and a joining part through which the rod passes through is formed on the first air flow path guide at a position corresponding to the slot, and in that when one of the two valve bodies (161,162) closes the slot due to the movement of the rod, the other of the two valve bodies (161, 162) closes the second gas flow path.
A cast steel shot media for performing a blasting treatment, comprising, at a weight ratio 0.8% or more and 1.2% or less of C, 0.35% or more and 1.2% or less of Mn, and 0. 6% or more and 1.0% or less of Si, wherein a remainder has a hyper-eutectoid composition including Fe and inevitable impurities, characterised in that: the cast steel shot media has a structure having a fine pearlite structure as a main constituent, and the cast steel shot media comprises a mixed structure of a fine pearlite structure and pro-eutectoid cementite. 0.8% or more and 1.2% or less of C, 0.35% or more and 1.2% or less of Mn, and 0. 6% or more and 1.0% or less of Si, wherein a remainder has a hyper-eutectoid composition including Fe and inevitable impurities, characterised in that: the cast steel shot media has a structure having a fine pearlite structure as a main constituent, and the cast steel shot media comprises a mixed structure of a fine pearlite structure and pro-eutectoid cementite. the cast steel shot media has a structure having a fine pearlite structure as a main constituent, and the cast steel shot media comprises a mixed structure of a fine pearlite structure and pro-eutectoid cementite.
A method performed by a wireless device, comprising: detecting a synchronization signal, SS, block from a cellular base station; determining a SS index of a SS burst comprising the detected SS block, wherein one or more SS bursts each comprising a plurality of SS blocks are transmitted in a period of a periodic pattern; determining a relative position of the detected SS block within the SS bursty wherein determining the relative position of the detected SS block within the SS burst comprises performing a number of decoding attempts equal to a number of SS blocks in the SS burst to test each possible relative location hypothesis; determining a SS block index of the SS block that identifies the location of the SS block within the period of the periodic pattern according to which synchronization signals are transmitted by the cellular base station; and transmitting an indication of the SS block index of the SS block detected by the wireless device to the cellular base station. detecting a synchronization signal, SS, block from a cellular base station; determining a SS index of a SS burst comprising the detected SS block, wherein one or more SS bursts each comprising a plurality of SS blocks are transmitted in a period of a periodic pattern; determining a relative position of the detected SS block within the SS bursty wherein determining the relative position of the detected SS block within the SS burst comprises performing a number of decoding attempts equal to a number of SS blocks in the SS burst to test each possible relative location hypothesis; determining a SS block index of the SS block that identifies the location of the SS block within the period of the periodic pattern according to which synchronization signals are transmitted by the cellular base station; and transmitting an indication of the SS block index of the SS block detected by the wireless device to the cellular base station.