mhurhangee/ep-ind-claims huggingface dataset:
A method for establishing programming of an implantable electrical neurostimulation device for treating chronic pain of a human subject, comprising a plurality of operations executed with at least one processor of an electronic device, the plurality of operations comprising: obtaining patient state data for a condition of the human subject in connection with chronic pain treatment with a neurostimulation treatment, the patient state data indicating a condition of the human subject relating to chronic pain experienced by the human subject; generating a plurality of neurostimulation programming parameters using a dynamic model, the dynamic model adapted to identify values of the neurostimulation programming parameters which predict an improvement to the condition of the human subject, wherein the dynamic model uses a time model to predict results of neurostimulation treatment for the human subject forward in time using the neurostimulation programming parameters; and outputting a neurostimulation program for the implantable electrical neurostimulation device, the neurostimulation program to include the neurostimulation programming parameters. obtaining patient state data for a condition of the human subject in connection with chronic pain treatment with a neurostimulation treatment, the patient state data indicating a condition of the human subject relating to chronic pain experienced by the human subject; generating a plurality of neurostimulation programming parameters using a dynamic model, the dynamic model adapted to identify values of the neurostimulation programming parameters which predict an improvement to the condition of the human subject, wherein the dynamic model uses a time model to predict results of neurostimulation treatment for the human subject forward in time using the neurostimulation programming parameters; and outputting a neurostimulation program for the implantable electrical neurostimulation device, the neurostimulation program to include the neurostimulation programming parameters.
A working tool for positioning a flat packaging blank on a plurality of beverage cans, the working tool comprising - a carrier, and also comprising - a plurality of manipulation elements arranged to be suspended from the carrier, via which manipulation elements a defined force is applicable to the flat packaging blank, in each instance in the area of a plurality of openings, such that a particular beverage can is pressed into a particular opening of the flat packaging blank, - wherein the plurality of manipulation elements in the working tool, which are arranged to be suspended from the carrier, are designed such that they can each apply a defined force in a temporally offset manner to the flat packaging blank along the particular circumference of the particular opening in order to press a particular beverage can into a particular opening, and wherein the working tool is designed such that the plurality of manipulation elements arranged so as to be suspended from the carrier can press all the beverage cans provided for a particular flat packaging blank into the openings of the particular flat packaging blank by means of a single stroke and return stroke of the working tool. - a carrier, and also comprising - a plurality of manipulation elements arranged to be suspended from the carrier, via which manipulation elements a defined force is applicable to the flat packaging blank, in each instance in the area of a plurality of openings, such that a particular beverage can is pressed into a particular opening of the flat packaging blank, - wherein the plurality of manipulation elements in the working tool, which are arranged to be suspended from the carrier, are designed such that they can each apply a defined force in a temporally offset manner to the flat packaging blank along the particular circumference of the particular opening in order to press a particular beverage can into a particular opening, and wherein the working tool is designed such that the plurality of manipulation elements arranged so as to be suspended from the carrier can press all the beverage cans provided for a particular flat packaging blank into the openings of the particular flat packaging blank by means of a single stroke and return stroke of the working tool.
Method for monitoring a line with a predetermined length and with a measuring conductor, wherein ― a plurality of measuring pulses are fed into the measuring conductor, ― the measuring pulses, in a normal state of the line, have a transit time, which is previously known due to the predetermined length of the line, ― reflected portions of the measuring pulses are respectively generated, which propagate in the opposite direction to the measuring pulses, characterized in ― that the line is monitored by determining whether there is an overlay (U1, U2) of the measuring pulses with the reflected portions at a predetermined measuring point, and by recognizing, in dependance on the overlay, a deviation of the transit time from the previously known transit time and a deviation from the normal state. ― a plurality of measuring pulses are fed into the measuring conductor, ― the measuring pulses, in a normal state of the line, have a transit time, which is previously known due to the predetermined length of the line, ― reflected portions of the measuring pulses are respectively generated, which propagate in the opposite direction to the measuring pulses, characterized in ― that the line is monitored by determining whether there is an overlay (U1, U2) of the measuring pulses with the reflected portions at a predetermined measuring point, and by recognizing, in dependance on the overlay, a deviation of the transit time from the previously known transit time and a deviation from the normal state.
A calcium binding peptide comprising a three amino acid repeat sequence having the formula (X-Y-Z) n, wherein: X is an amino acid selected from the group consisting of aspartic acid, glutamic acid, asparagine and glutamine; Y and Z are amino acids selected from alanine, serine, and threonine; n is a number from 3 to 15; said peptide has a length of up to 100 amino acids; said peptide is not phosphorylated; and said peptide binds calcium phosphate. X is an amino acid selected from the group consisting of aspartic acid, glutamic acid, asparagine and glutamine; Y and Z are amino acids selected from alanine, serine, and threonine; n is a number from 3 to 15; said peptide has a length of up to 100 amino acids; said peptide is not phosphorylated; and said peptide binds calcium phosphate.
A conductive ink comprising: metallic nanoparticles; a polymeric dispersant, the dispersant being a conductive polymer; and a solvent. metallic nanoparticles; a polymeric dispersant, the dispersant being a conductive polymer; and a solvent.
A machine-vision-assisted welding system comprising: - welding equipment; - a first Time of Flight (ToF) camera (102a-d) operable to generate a three-dimensional depth map of a welding scene; - digital image processing circuitry operable to extract welding information from said 3D depth map; and - circuitry operable to control a function of said welding equipment based on said extracted welding information, characterized in that said welding equipment comprises arc welding equipment that forms an arc during a welding operation; that the machine-vision assisted welding system comprises at least a second ToF camera (102a-d), wherein said first ToF camera (102a-d) and said at least second ToF camera (102a-d) differ in one or more of: field of focus, mounting location, wavelength of light used, and targets viewed, that a light source of said first camera (102a-d) is configured to emit light whose spectrum comprises a peak that is centered at a first wavelength, wherein said first wavelength is selected such that a power of said peak, as measured at a particular pixel of an imager of said first ToF camera (102a-d) after reflection off of said welding scene, is at least a threshold amount above a power of light from said arc at said first wavelength, as measured at said particular pixel of said imager of said first ToF camera (102a-d), and that IR reflectors (306a-c) are mounted on the torch on the operator's clothing and/or on the weld fixture and that the ToF cameras (102a-d) and the IR reflectors ( 306a-c) have different matching wavelengths for different tools or activities. - welding equipment; - a first Time of Flight (ToF) camera (102a-d) operable to generate a three-dimensional depth map of a welding scene; - digital image processing circuitry operable to extract welding information from said 3D depth map; and - circuitry operable to control a function of said welding equipment based on said extracted welding information, said welding equipment comprises arc welding equipment that forms an arc during a welding operation; that the machine-vision assisted welding system comprises at least a second ToF camera (102a-d), wherein said first ToF camera (102a-d) and said at least second ToF camera (102a-d) differ in one or more of: field of focus, mounting location, wavelength of light used, and targets viewed, that a light source of said first camera (102a-d) is configured to emit light whose spectrum comprises a peak that is centered at a first wavelength, wherein said first wavelength is selected such that a power of said peak, as measured at a particular pixel of an imager of said first ToF camera (102a-d) after reflection off of said welding scene, is at least a threshold amount above a power of light from said arc at said first wavelength, as measured at said particular pixel of said imager of said first ToF camera (102a-d), and that IR reflectors (306a-c) are mounted on the torch on the operator's clothing and/or on the weld fixture and that the ToF cameras (102a-d) and the IR reflectors ( 306a-c) have different matching wavelengths for different tools or activities.
Mounting rail for modular electrical apparatuses for the control and/or distribution of electric power, comprising a profile having a bottom wall and two side walls connected to the bottom wall and such as to delimit together with the bottom wall a recessed channel of the mounting rail, the profile comprising two fastening bands each of which is joined to a respective side wall and that together define a mounting track of the modular electrical apparatuses, wherein the mounting rail comprises an interconnection bus between the modular electrical apparatuses and a support device of the interconnection bus adapted to fasten the interconnection bus to the mounting rail, wherein: - the support device is housed in the recessed channel of the mounting rail and comprises a support portion adapted to support the interconnection bus and at least one coupling portion elastically deformable and adapted to be inserted in the recessed channel to engage at least one of the side walls in the recessed channel; - the coupling portion comprises at least one flexible wing having a first end portion fixed to the support portion and an opposite second free end portion. - the support device is housed in the recessed channel of the mounting rail and comprises a support portion adapted to support the interconnection bus and at least one coupling portion elastically deformable and adapted to be inserted in the recessed channel to engage at least one of the side walls in the recessed channel; - the coupling portion comprises at least one flexible wing having a first end portion fixed to the support portion and an opposite second free end portion.
A method comprising: receiving data and compressing the data to generate compressed data prior to storage of the compressed data in non-volatile memory, wherein the compressed data comprises a compressed version of the data, common meta information, and final meta information, wherein the compressed version of the data is broken into chunks and each chunk is accompanied by common meta information, and the last chunk is additionally accompanied by the final meta information, wherein the common meta information comprises one or more padding bits, the size of the compressed data, an offset, and a compression token, wherein the final meta information comprises a compressed Cyclical Redundancy Code and Logical Block Addressing information, wherein the compression token is a negative LBA value, and stored in a same space as the Logical Block Addressing information, and wherein the compression token indicates whether a corresponding portion of data is compressed, wherein absence of the compression token indicates that the corresponding portion of the data is uncompressed, and wherein decompression of the compressed data is performed at least partially based on a value of the compression token or absence of the compression token; the method further comprising decompressing the compressed data by a plurality of decompression logic, wherein for each detected offset a further decompression logic will operate in parallel, with each offset being the first valid symbol to be decompressed. receiving data and compressing the data to generate compressed data prior to storage of the compressed data in non-volatile memory, wherein the compressed data comprises a compressed version of the data, common meta information, and final meta information, wherein the compressed version of the data is broken into chunks and each chunk is accompanied by common meta information, and the last chunk is additionally accompanied by the final meta information, wherein the common meta information comprises one or more padding bits, the size of the compressed data, an offset, and a compression token, wherein the final meta information comprises a compressed Cyclical Redundancy Code and Logical Block Addressing information, wherein the compression token is a negative LBA value, and stored in a same space as the Logical Block Addressing information, and wherein the compression token indicates whether a corresponding portion of data is compressed, wherein absence of the compression token indicates that the corresponding portion of the data is uncompressed, and wherein decompression of the compressed data is performed at least partially based on a value of the compression token or absence of the compression token; the method further comprising decompressing the compressed data by a plurality of decompression logic, wherein for each detected offset a further decompression logic will operate in parallel, with each offset being the first valid symbol to be decompressed.
A method for the spectroscopic or spectrometric analysis of a sample preferably in the infrared spectral range, with the steps: a) generating a laser beam with a tunable laser with a wavelength in the preferably infrared spectral range, b) splitting the laser beam into a measurement beam and a reference beam, c) interaction of the sample with the measurement beam, d) interaction of a reference with the reference beam, e) superposing the measurement beam and the reference beam so that a first output beam and a second output beam are respectively obtained, the phases of which are shifted by 180° with respect to one another, f) detecting the first output beam, g) detecting the second output beam, characterized by h) formation of a differential signal between the first output beam and the second output beam, i) adjusting the differential signal to a predetermined setpoint by setting a phase difference between the measurement beam and the reference beam, j) determination of a refractive index (n) of the sample from the setting of the phase difference between the measurement beam and the reference beam, k) repeating the steps a) to j) for further wavelengths of the laser beam preferably in the infrared spectral range for capturing a spectrum of the refractive index (n) of the sample. a) generating a laser beam with a tunable laser with a wavelength in the preferably infrared spectral range, b) splitting the laser beam into a measurement beam and a reference beam, c) interaction of the sample with the measurement beam, d) interaction of a reference with the reference beam, e) superposing the measurement beam and the reference beam so that a first output beam and a second output beam are respectively obtained, the phases of which are shifted by 180° with respect to one another, f) detecting the first output beam, g) detecting the second output beam, characterized by h) formation of a differential signal between the first output beam and the second output beam, i) adjusting the differential signal to a predetermined setpoint by setting a phase difference between the measurement beam and the reference beam, j) determination of a refractive index (n) of the sample from the setting of the phase difference between the measurement beam and the reference beam, k) repeating the steps a) to j) for further wavelengths of the laser beam preferably in the infrared spectral range for capturing a spectrum of the refractive index (n) of the sample.
A flight control arrangement for a hybrid aircraft capable of horizontal fixed-wing flight, vertical takeoff and landing (VTOL) flight, and transitions therebetween, comprising: a fixed-wing flight control module configured and operative to control the horizontal fixed-wing flight, the fixed-wing flight control module being an integrated component having a respective first network interface connected to an aircraft data network via which the fixed-wing flight control module obtains sensory input and generates fixed-wing control output to network-connected fixed-wing flight components including one or more horizontal-thrust components; and a VTOL flight control module configured and operative to control the VTOL flight, the VTOL flight control module also being an integrated component having a respective second network interface connected to the aircraft data network via which the VTOL flight control module observes flight status as reflected in network messages originated by the fixed-wing flight control module, and based on the observed flight status, generates VTOL control output to network-connected VTOL flight components including one or more vertical-thrust components, wherein the aircraft data network includes a plurality of controller area network buses each carrying respective network messages originated by the fixed-wing flight control module and VTOL flight control module, and wherein the VTOL flight control module monitors and acts upon states, modes, and observable/sensors reporting of the fixed-wing flight control module as reflected in the network messages originated thereby. a fixed-wing flight control module configured and operative to control the horizontal fixed-wing flight, the fixed-wing flight control module being an integrated component having a respective first network interface connected to an aircraft data network via which the fixed-wing flight control module obtains sensory input and generates fixed-wing control output to network-connected fixed-wing flight components including one or more horizontal-thrust components; and a VTOL flight control module configured and operative to control the VTOL flight, the VTOL flight control module also being an integrated component having a respective second network interface connected to the aircraft data network via which the VTOL flight control module observes flight status as reflected in network messages originated by the fixed-wing flight control module, and based on the observed flight status, generates VTOL control output to network-connected VTOL flight components including one or more vertical-thrust components, wherein the aircraft data network includes a plurality of controller area network buses each carrying respective network messages originated by the fixed-wing flight control module and VTOL flight control module, and wherein the VTOL flight control module monitors and acts upon states, modes, and observable/sensors reporting of the fixed-wing flight control module as reflected in the network messages originated thereby.
A method, comprising: receiving, by a wireless communication device from a wireless communication node, a scheduling grant of an uplink channel; transmitting, by the wireless communication device to the wireless communication node, the uplink channel; and transmitting, by the wireless communication device to the wireless communication node, a transmission block indication for determining a transmission block size, TBS, of the uplink channel, wherein the transmission block indication is indicative of whether the TBS of the uplink channel is determined according to information of the scheduling grant. receiving, by a wireless communication device from a wireless communication node, a scheduling grant of an uplink channel; transmitting, by the wireless communication device to the wireless communication node, the uplink channel; and transmitting, by the wireless communication device to the wireless communication node, a transmission block indication for determining a transmission block size, TBS, of the uplink channel, wherein the transmission block indication is indicative of whether the TBS of the uplink channel is determined according to information of the scheduling grant.
A packaging system comprising: a delivery device including a handle assembly and a catheter having a proximal end extending from the handle assembly, the catheter further having a distal end configured to support a prosthesis; and a tray including: an upper surface, a first recess extending into the upper surface, the delivery device at least partially positioned into the first recess; wherein the first recess terminates at a bath area in which the distal end is positioned, and a clip on the upper surface and adjacent the bath area and the first recess, wherein the packaging system has a packaged configuration and a loading configuration, wherein the catheter is positioned outside of the first clip in the packaged configuration and the catheter is positioned within the first clip in the loading configuration; further wherein the catheter can move longitudinally within the clip in the loading configuration. a delivery device including a handle assembly and a catheter having a proximal end extending from the handle assembly, the catheter further having a distal end configured to support a prosthesis; and a tray including: an upper surface, a first recess extending into the upper surface, the delivery device at least partially positioned into the first recess; wherein the first recess terminates at a bath area in which the distal end is positioned, and a clip on the upper surface and adjacent the bath area and the first recess, wherein the packaging system has a packaged configuration and a loading configuration, wherein the catheter is positioned outside of the first clip in the packaged configuration and the catheter is positioned within the first clip in the loading configuration; further wherein the catheter can move longitudinally within the clip in the loading configuration. an upper surface, a first recess extending into the upper surface, the delivery device at least partially positioned into the first recess; wherein the first recess terminates at a bath area in which the distal end is positioned, and a clip on the upper surface and adjacent the bath area and the first recess, wherein the packaging system has a packaged configuration and a loading configuration, wherein the catheter is positioned outside of the first clip in the packaged configuration and the catheter is positioned within the first clip in the loading configuration; further wherein the catheter can move longitudinally within the clip in the loading configuration.
A structural module comprising a structural floor, load bearing walls, and a structural ceiling, arranged to support a plurality of other structural modules in a multi-storey building, wherein at least one load bearing wall comprises a structural frame and lightweight concrete between frame members of said structural frame, the concrete being cellular, including air entrainment, characterized in that, the concrete density is in the range of 400 to 600 kg/m 3, and the concrete is moulded between the frame members, completely filling voids between the frame members along the plane of the wall.