mhurhangee/ep-ind-claims huggingface dataset:
A method for creating a multi-layer clad strip for use in a metallic cookware, the method comprising: a. selecting a first metallic material, wherein the first metallic material is a nickel-free stainless steel; b. selecting a second metallic material to be bonded to the first metallic material, wherein the second metallic material is different from the first metallic material; c. selecting a third metallic material to be bonded to the second metallic material, wherein the third metallic material is different from the second metallic material; d. bonding the first metallic material and the second metallic material to one another, wherein the first metallic material forms a first layer and is positioned to have a surface be a cooking surface for the metallic cookware, and the second metallic material forms a second layer adjacent the first layer, and further bonding the third metallic material to the second metallic material opposite the first metallic material such that the second layer forms a core of the multi-layer clad strip. a. selecting a first metallic material, wherein the first metallic material is a nickel-free stainless steel; b. selecting a second metallic material to be bonded to the first metallic material, wherein the second metallic material is different from the first metallic material; c. selecting a third metallic material to be bonded to the second metallic material, wherein the third metallic material is different from the second metallic material; d. bonding the first metallic material and the second metallic material to one another, wherein the first metallic material forms a first layer and is positioned to have a surface be a cooking surface for the metallic cookware, and the second metallic material forms a second layer adjacent the first layer, and further bonding the third metallic material to the second metallic material opposite the first metallic material such that the second layer forms a core of the multi-layer clad strip.
A method, comprising: transmitting an initialization command, by a processor of a computing device, to a power tool configured with a secure element, wherein the secure element is a digital key storage unit configured to generate a private key and a corresponding public key upon receiving the initialization command; receiving the corresponding public key by the processor of the computing device; tagging the corresponding public key with a unique identification number associated with the power tool by the processor of the computing device; and storing the corresponding public key within a global database, wherein the corresponding public key in the global database is accessed by a plurality of devices (17, 19, 21, 54, 56) in a drilling system to verify whether a received data package is associated with the unique identification number of the power tool. transmitting an initialization command, by a processor of a computing device, to a power tool configured with a secure element, wherein the secure element is a digital key storage unit configured to generate a private key and a corresponding public key upon receiving the initialization command; receiving the corresponding public key by the processor of the computing device; tagging the corresponding public key with a unique identification number associated with the power tool by the processor of the computing device; and storing the corresponding public key within a global database, wherein the corresponding public key in the global database is accessed by a plurality of devices (17, 19, 21, 54, 56) in a drilling system to verify whether a received data package is associated with the unique identification number of the power tool.
An effector comprising: i. a tubular body having a proximal end and a distal end; ii. a plug at the distal end of the tubular body; iii. an active electrode extending from the plug; iv. an insulator coating at least a portion of an outer surface of the tubular body and at least a portion of the plug; and v. one or more return electrodes on the insulator, the return electrodes being electrically separated via the insulator from the active electrode and the plug; wherein the tubular body dissipates heat generated by the one or more return electrodes from the distal end of the tubular body to the proximal end of the tubular body; and wherein the distal end of the tubular body is plugged with the plug and crimped. i. a tubular body having a proximal end and a distal end; ii. a plug at the distal end of the tubular body; iii. an active electrode extending from the plug; iv. an insulator coating at least a portion of an outer surface of the tubular body and at least a portion of the plug; and v. one or more return electrodes on the insulator, the return electrodes being electrically separated via the insulator from the active electrode and the plug; wherein the tubular body dissipates heat generated by the one or more return electrodes from the distal end of the tubular body to the proximal end of the tubular body; and wherein the distal end of the tubular body is plugged with the plug and crimped.
A method for generating an array comprising: providing a template array comprising a plurality of template oligonucleotides coupled thereto, wherein each of the plurality of template oligonucleotides comprises a barcode and an adaptor sequence, and wherein the barcode identifies the spatial position of each of the plurality of template oligonucleotides; providing a plurality of oligonucleotides, wherein each member of the plurality of oligonucleotides comprises a sequence complementary to the adaptor sequence; coupling the plurality of template oligonucleotides to the plurality of oligonucleotides via the adaptor sequence; conducting extension reactions of the plurality of oligonucleotides using the plurality of template oligonucleotides as templates, thereby generating a plurality of recipient oligonucleotide products; and generating a recipient array comprising the plurality of recipient oligonucleotide products attached thereto, wherein each of the recipient oligonucleotide products comprises a member of the plurality of oligonucleotides and an additional oligonucleotide, wherein the additional oligonucleotide is complementary to an additional portion of a member of the plurality of template oligonucleotides. providing a template array comprising a plurality of template oligonucleotides coupled thereto, wherein each of the plurality of template oligonucleotides comprises a barcode and an adaptor sequence, and wherein the barcode identifies the spatial position of each of the plurality of template oligonucleotides; providing a plurality of oligonucleotides, wherein each member of the plurality of oligonucleotides comprises a sequence complementary to the adaptor sequence; coupling the plurality of template oligonucleotides to the plurality of oligonucleotides via the adaptor sequence; conducting extension reactions of the plurality of oligonucleotides using the plurality of template oligonucleotides as templates, thereby generating a plurality of recipient oligonucleotide products; and generating a recipient array comprising the plurality of recipient oligonucleotide products attached thereto, wherein each of the recipient oligonucleotide products comprises a member of the plurality of oligonucleotides and an additional oligonucleotide, wherein the additional oligonucleotide is complementary to an additional portion of a member of the plurality of template oligonucleotides.
A method for increasing the lifetime of at least two power dies or power modules, wherein the method comprises the steps of: - sensing the temperature of the power dies or the power modules, - identifying, for each power die or power module, temperature cycles from the sensed temperatures, - determining, for each power die or power module, reliability parameters from the identified temperature cycles, - determining, for each power die or power module, reference temperatures, using the reliability parameters, - subtracting, for each power die or power module, the sensed temperature of the power die or power module from the determined reference temperature of the power die or power module, - adjusting the duration of the conducting time and/or the switching delay of at least one power die or power module according to the sign of the output of the subtracting step. - sensing the temperature of the power dies or the power modules, - identifying, for each power die or power module, temperature cycles from the sensed temperatures, - determining, for each power die or power module, reliability parameters from the identified temperature cycles, - determining, for each power die or power module, reference temperatures, using the reliability parameters, - subtracting, for each power die or power module, the sensed temperature of the power die or power module from the determined reference temperature of the power die or power module, - adjusting the duration of the conducting time and/or the switching delay of at least one power die or power module according to the sign of the output of the subtracting step.
A crimp machine configured to insert an electric wire in blades of a crimp connector, thereby establishing a communication device which communicates via the electric wires, the crimp machine comprising: a terminal mount table (71 a) configured to receive at least two crimp connectors, each crimp connector comprising crimp terminals with blades; a crimp member movable close to and away from the terminal mount table (71 a), suitable for moving the electric wire in the blade of the crimp connector, the electric wire being positioned between the terminal mount table (71 a) and the crimp member; the crimp machine further comprising, for each connector: a connection terminal disposed in the terminal mount table (71 a) provided with a projecting pin arranged to be electrically connected to the crimp connector; and, an identification data setup device being disposed in the terminal mount table (71 a) and configured to allow the connection terminal to output an electric identification data. a connection terminal disposed in the terminal mount table (71 a) provided with a projecting pin arranged to be electrically connected to the crimp connector; and, an identification data setup device being disposed in the terminal mount table (71 a) and configured to allow the connection terminal to output an electric identification data.
A distance measuring sensor for the detection and distance determination of objects in a monitoring area, the sensor having a transmitter for transmitting transmission pulses, a receiver for generating a reception signal from transmission pulses remitted from the monitoring area, an A/D converter for digitizing the reception signal, and a control and evaluation unit (28, 30) which is configured to transmit a plurality of transmission pulses via the transmitter, to accumulate the respective reception signals generated by the receiver in a histogram, and to determine, from the histogram, a reception point in time and thus a measurement value for the signal time of flight from the sensor to the object, characterized in that the sensor comprises a noise generator configured to add a noise signal to the reception signal prior to its digitization in the A/D converter, the noise signal being a random noise, wherein the noise level is adaptable by the control and evaluation unit in order to set a reception sensitivity of the sensor via the ratio of useful signal and noise signal.
A method of determining the integrity of an aircraft hydraulic braking control system comprising an energy storage device, the method comprising: determining a reduction rate of a hydraulic pressure in the braking control system caused by a discharge of the energy storage device; and determining the integrity of the braking control system in accordance with the reduction rate; characterised in that the method is performed during flight of the aircraft.
A connector including: a first bus bar; a second bus bar separate from the first bus bar; a fuse having one end screwed to the first bus bar and the other end screwed to the second bus bar to electrically conduct and connect the first bus bar and the second bus bar to each other so as to be fused; and a housing that accommodates the first bus bar, the second bus bar and the fuse, wherein the first bus bar and the second bus bar include a tab for a device (12, 22) inserted into the device and connected to a circuit in the device and a tab (13, 23) for an external electric wire connected to the external electric wire, characterized in that the housing has a hood part that covers a periphery of the tab for the device (12, 22) and is fitted to a connector attaching hole of the device and the fuse is attached to an accommodating space in the hood part opened to the device. a first bus bar; a second bus bar separate from the first bus bar; a fuse having one end screwed to the first bus bar and the other end screwed to the second bus bar to electrically conduct and connect the first bus bar and the second bus bar to each other so as to be fused; and a housing that accommodates the first bus bar, the second bus bar and the fuse, wherein the first bus bar and the second bus bar include a tab for a device (12, 22) inserted into the device and connected to a circuit in the device and a tab (13, 23) for an external electric wire connected to the external electric wire, characterized in that the housing has a hood part that covers a periphery of the tab for the device (12, 22) and is fitted to a connector attaching hole of the device and the fuse is attached to an accommodating space in the hood part opened to the device.
A read signal processor comprising: three sample-hold circuits (12R, 12G, 12B) each configured to sample-hold a designated range of each pixel of a sensor output signal for a respective one of three colors with respect to output from a color linear image sensor corresponding to the color, and to output a sample-held signal corresponding to the color; three amplifiers (13R, 13G, 13B) each configured to amplify the respective sample-held signal based on a set gain, and to output an amplified signal corresponding to the color; an analog-digital convertor configured to analog-digital convert the amplifies signals to obtain digital data for each of the colors; first blocks configured to generate a plurality of serial signals from the digital data, and each configured to convert a respective one of the serial signals to a respective one of a plurality of low-amplitude differential signals, and to output the serial low-amplitude differential signals externally; output terminals each configured to output a signal externally and a second block configured to separate the digital data for each of the colors to plural bit groups and to perform sequentially multiple-bit parallel output in time division; wherein at least one of the output terminals is configured to output one of the plurality of serial low-amplitude differential signals, as well as one of the signals used to perform the multiple-bit parallel output. three sample-hold circuits (12R, 12G, 12B) each configured to sample-hold a designated range of each pixel of a sensor output signal for a respective one of three colors with respect to output from a color linear image sensor corresponding to the color, and to output a sample-held signal corresponding to the color; three amplifiers (13R, 13G, 13B) each configured to amplify the respective sample-held signal based on a set gain, and to output an amplified signal corresponding to the color; an analog-digital convertor configured to analog-digital convert the amplifies signals to obtain digital data for each of the colors; first blocks configured to generate a plurality of serial signals from the digital data, and each configured to convert a respective one of the serial signals to a respective one of a plurality of low-amplitude differential signals, and to output the serial low-amplitude differential signals externally; output terminals each configured to output a signal externally and a second block configured to separate the digital data for each of the colors to plural bit groups and to perform sequentially multiple-bit parallel output in time division; wherein at least one of the output terminals is configured to output one of the plurality of serial low-amplitude differential signals, as well as one of the signals used to perform the multiple-bit parallel output.
Method for controlling additional devices in an industrial truck, wherein the additional devices are arranged in the region of a load lifting apparatus, in particular a load fork, and are connected via a wireless data connection, characterized in that the wireless data connection exists to a portable computer apparatus, comprising a smartphone or a notebook or a tablet PC, via which information relating to the additional devices is displayed and the additional devices are operated.
A method for filtering an air stream in a grain dryer, permitting the recycling of air, wherein: - a stream of external air is caused to enter into said grain dryer; - a grain flow is poured by gravity into said grain dryer; - said air flow is caused to pass through the grain flow in a direction substantially perpendicular to the direction of the grain flow; - the air flow is filtered, once it has passed through the grains, so as to retain the particles present in the air flow; - the filtered flow is heated and it is directed upstream of the grain flow such that said filtered passes again through the grains; - the particles resulting from the filtering are blown. - a stream of external air is caused to enter into said grain dryer; - a grain flow is poured by gravity into said grain dryer; - said air flow is caused to pass through the grain flow in a direction substantially perpendicular to the direction of the grain flow; - the air flow is filtered, once it has passed through the grains, so as to retain the particles present in the air flow; - the filtered flow is heated and it is directed upstream of the grain flow such that said filtered passes again through the grains; - the particles resulting from the filtering are blown.
A system (100, 200, 300), comprising: a stimulator (12, 13) configured to stimulate a nerve (7, 9, 26, 28), wherein stimulation of the nerve assists or causes contraction of a respiratory muscle in the subject; and a processor configured to: receive a test result of a subject; and generate a stimulation parameter based on the test result, characterized in that the test reflects a condition of a brain in the subject, in that the stimulation parameter includes a stimulation charge, a frequency of pulses within a stimulation train, or a breath rate, in that the stimulator (12, 13) is configured to stimulate the nerve (7, 9, 26, 28) based on the stimulation parameter, and in that the system further comprises a mechanical ventilator. a stimulator (12, 13) configured to stimulate a nerve (7, 9, 26, 28), wherein stimulation of the nerve assists or causes contraction of a respiratory muscle in the subject; and a processor configured to: receive a test result of a subject; and generate a stimulation parameter based on the test result, characterized in that the test reflects a condition of a brain in the subject, in that the stimulation parameter includes a stimulation charge, a frequency of pulses within a stimulation train, or a breath rate, in that the stimulator (12, 13) is configured to stimulate the nerve (7, 9, 26, 28) based on the stimulation parameter, and in that the system further receive a test result of a subject; and generate a stimulation parameter based on the test result, characterized in that the test reflects a condition of a brain in the subject, in that the stimulation parameter includes a stimulation charge, a frequency of pulses within a stimulation train, or a breath rate, in that the stimulator (12, 13) is configured to stimulate the nerve (7, 9, 26, 28) based on the stimulation parameter, and in that the system further comprises a mechanical ventilator.
A method for mounting a camshaft in a bearing line of a cylinder head cover of an internal combustion engine, wherein the method comprises at least the following steps: - mounting at least one sealing ring on the camshaft in such a manner that the at least one sealing ring is pushed onto a region of the camshaft in which at least one groove encircling radially on the outer diameter of the camshaft is formed, and therefore the sealing ring is arranged in the groove; wherein the sealing ring is at least partially formed from an elastically deformable polymer, in particular a polytetrafluoroethylene (PTFE), characterized by the following process steps: - pushing a calibrating tool having a rotationally symmetrical opening, the smallest inside diameter of which is greater than the outside diameter of the camshaft in the region of the respective groove and is smaller than the outside diameter of the at least one sealing ring pushed onto the camshaft in the region of the groove over the at least one sealing ring in such a manner, or - pushing the camshaft into a calibrating tool having a rotationally symmetrical opening, the smallest inside diameter of which is greater than the outside diameter of the camshaft in the region of the respective groove and is smaller than the outside diameter of the least one sealing ring pushed onto the camshaft in the region of the groove in such a manner, that the at least one sealing ring is pressed into the respective groove and is held in the groove in a force-fitting and form-fitting manner. - mounting at least one sealing ring on the camshaft in such a manner that the at least one sealing ring is pushed onto a region of the camshaft in which at least one groove encircling radially on the outer diameter of the camshaft is formed, and therefore the sealing ring is arranged in the groove; wherein the sealing ring is at least partially formed from an elastically deformable polymer, in particular a polytetrafluoroethylene (PTFE), characterized by the following process steps: - pushing a calibrating tool having a rotationally symmetrical opening, the smallest inside diameter of which is greater than the outside diameter of the camshaft in the region of the respective groove and is smaller than the outside diameter of the at least one sealing ring pushed onto the camshaft in the region of the groove over the at least one sealing ring in such a manner, or - pushing the camshaft into a calibrating tool having a rotationally symmetrical opening, the smallest inside diameter of which is greater than the outside diameter of the camshaft in the region of the respective groove and is smaller than the outside diameter of the least one sealing ring pushed onto the camshaft in the region of the groove in such a manner,