Test Probe Adapter
US-2021263073-A1 · Aug 26, 2021 · US
US9541579B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9541579-B2 |
| Application number | US-201213626305-A |
| Country | US |
| Kind code | B2 |
| Filing date | Sep 25, 2012 |
| Priority date | Sep 25, 2012 |
| Publication date | Jan 10, 2017 |
| Grant date | Jan 10, 2017 |
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Method and devices are described for visually detecting anomalies in non-repetitive signals. One device may take the form of an oscilloscope capable of displaying segments of a complete waveform record that includes non-periodic triggering events. The segments may be displayed vertically and horizontally offset from one another to aid in the visual detection of anomalies within the record. Decayed or aged segments of a waveform may also be simultaneously displayed.
Opening claim text (preview).
I claim: 1. A method for displaying, on a digital oscilloscope, triggered waveform records or triggered waveform segments of a single record along a sequence of primary waveform timelines that are offset along a secondary timeline, the method comprising: receiving and digitizing an analog waveform signal with an analog to digital converter; displaying, on a display section of the digital oscilloscope and along a first primary waveform timeline, a first waveform record or segment of the digitized waveform signal, comprising a first non-periodic triggering event; displaying, on the display section of the digital oscilloscope and along a second primary waveform timeline, a next waveform record or segment of the digitized waveform signal, comprising a next non-periodic triggering event, the next non-periodic triggering event occurring a non-zero elapsed time period after the first non-periodic triggering event, the second primary waveform timeline being substantially parallel to the first primary waveform timeline, the next non-periodic triggering event further being aligned with the first non-periodic triggering event on a secondary timeline transverse to the first primary waveform timeline and the second primary waveform timeline; and offsetting the second primary waveform timeline vertically and horizontally from the first primary waveform timeline and along the secondary timeline by an amount corresponding to the elapsed time period. 2. The method as in claim 1 further comprising: identifying the first event from a first stored waveform record that comprises a plurality of triggering events; generating first image data representing the first waveform record or segment that includes the identified first event; identifying the next event from the first stored waveform record, the next event separated from the first event by the elapsed time period; and generating next image data representing the next waveform record or segment that includes the identified next event. 3. The method as in claim 2 further comprising displaying the first waveform record or segment on a first display portion based on the first image data and simultaneously displaying the next waveform record or segment on a next display portion, offset vertically and horizontally from the first display portion, and such that the next event is aligned on the time axis with the first event, based on the next image data. 4. A method for displaying, on a digital oscilloscope, segments of a waveform along a sequence of waveform timelines, the method comprising: receiving and digitizing an analog non-periodic waveform signal with an analog to digital converter; displaying, on a display section of the digital oscilloscope and along a first waveform timeline, a first decayed waveform record segment of the digitized non-periodic waveform having a first variable image and a first non-periodic triggering event; simultaneously displaying, on the display section of the digital oscilloscope and along a second waveform timeline, a next decayed waveform record segment of the digitized non-periodic waveform, the next decayed segment having a next non-periodic triggering event and a next variable image that differs from the first variable image in accordance with a position of the waveform segment along a time axis transverse to the first waveform timeline and the second waveform timeline, the next non-periodic triggering event occurring a non-zero elapsed time period after the first non-periodic triggering event, the second waveform timeline being substantially parallel to the first waveform timeline; and offsetting the next decayed segment vertically and horizontally from the first decayed segment by an amount corresponding to the elapsed time period. 5. The method as in claim 4 further comprising varying an image intensity of the first and next waveform segments in accordance with the position of each waveform segment along the time axis. 6. The method as in claim 4 further comprising varying an image size of the first and next waveform segments in accordance with the position of each waveform segment along the time axis. 7. A system for displaying, on a digital oscilloscope, triggered waveform record segments of a digitized waveform along a sequence of waveform timelines, comprising: an analog to digital converter configured to receive and digitize an analog waveform; a display section of the digital oscilloscope; a program memory for storing executable instructions; a processor operable to access and execute the instructions stored within the memory for displaying, on the display section of the digital oscilloscope and along a first waveform timeline, a first waveform record segment of the digitized waveform comprising a first non-periodic triggering event, displaying, on the display section of the digital oscilloscope and along a second waveform timeline, a next waveform record segment of the digitized waveform comprising a next non-periodic triggering event, the next non-periodic triggering event occurring a non-zero elapsed time period after the first non-periodic triggering event, the second waveform timeline being substantially parallel to the first waveform timeline, the next non-periodic triggering event further being aligned with the first non-periodic triggering event on a time axis transverse to the first waveform timeline and the second waveform timeline, and offsetting the second waveform timeline vertically and horizontally from the first waveform timeline and along the time axis by an amount corresponding to the elapsed time period. 8. The system as in claim 7 further comprising a display for displaying the first and next waveform record segments. 9. The system as in claim 7 , wherein the processor is further operable to access and execute the instructions stored within the memory for: identifying the first event from a first stored waveform record that comprises a plurality of triggering events; generating first image data representing the first waveform record segment that includes the identified first event; identifying the next event from the first stored waveform record, the next event separated from the first event by the elapsed time period; and generating next image data representing the next waveform record segment that includes the identified next event. 10. The system as in claim 9 , wherein the processor is further operable to access and execute the instructions stored within the memory for displaying the first waveform record segment on a first display portion based on the first image data and simultaneously displaying the next waveform record segment on a next display portion, offset vertically and horizontally from the first display portion, and such that the next event is aligned on the time axis with the first event, based on the next image data. 11. The system as in claim 7 , further comprising: a user interface for activating and controlling visual detection of anomalies in waveform record events, the interface comprising a plurality of control keys, at least one key for controlling spacing between non-periodic triggering events. 12. A system for displaying, on a digital oscilloscope, segments of a digitized waveform along a sequence of waveform timelines, comprising: an analog to digital converter configured to receive and digitize an analog non-periodic waveform; a display section of the digital oscilloscope; a program memory for storing executable instructions; a processor operable to access and execute the instructions stored within the memory for displaying, on the display section of the digital oscilloscope and along a first waveform timeline, a first decayed wavefor
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