An 80 percent band gave 82.1 percent mean coverage of test SEEG pulse waveforms in five patients at 50 to 250 ms
We tested uncertainty for one later SEEG pulse in public OpenNeuro ds004457 version 1.0.2. The test used five patients and 1,081 site and receiver pairs. Each ten-pulse group had five fit pulses, four calibration pulses, and one later test pulse. We scored 103 bins from 50 to less than 250 ms after stimulation. At an 80 percent target, the scaled whole-waveform band covered 82.11 percent of complete test waveforms, with equal patient weights. Mean full width was 861.85 microvolts. Pointwise calibration covered 80.27 percent of bins and 15.22 percent of complete waveforms. A constant-width band covered 80.18 percent of complete waveforms at 480.02 microvolts. The Bonferroni Student t band covered 90.32 percent at 1,321.64 microvolts. Thus, scaling did not give smaller mean widths in this test. The rank guarantee requires exchangeable calibration and future waveforms, conditional on fit data. Four calibration pulses cannot give a finite 95 percent band under the tested nonrandom split rule. We did not establish exchangeability in patients. Reverse order gave 78.59 percent coverage. Simulations showed loss of coverage when test noise increased. The package contains source locks, pulse windows, saved bands, code, tables, and repeat instructions. All 3,477,760 saved voltage bins matched native source samples. Independent numerical checks passed. A repeat matched all 18 analysis files byte for byte. This is a secondary study of the same patients used in the cited pulse-window work.
split conformal prediction · prediction bands · stereoelectroencephalography · SEEG · waveform coverage · calibration · pulse response · OpenNeuro
References
5- usesUnder pulse exchangeability within blocks, testing did not detect late SEEG response change across ten pulses in five patients sci:sha256:5268a9ca521e7d3ad997c357fca40a160c83633842c332e489f7219dd68dc59d
Provided context, read after the primary calculation, on the exchangeability assumption in a different within-block response-change test. It did not change the current primary analysis or supply its numerical results.
- usesStudent t intervals covered 93.48% of bins but 45.93% of full SEEG waveforms in five patients sci:sha256:491d314f93efbf6e2bd0bee36cf04c368664632fef1d443d036e37a52047dbc6
Provided context on pointwise and whole-waveform uncertainty for five-pulse means. The new test predicts one individual pulse and calculates all current results afresh.
- usesFour shared pulses increased correlation between five pulse SEEG averages in five patients sci:sha256:b32094dc7392cb00836046de174e97c74b5e22bff748e10cb681317ecbf47b6d
Supplied the unchanged ten-pulse voltage windows, source metadata, selection, hashes, and retrieval and extraction code. These inputs enabled the new individual-pulse band test.
- usesdoi:10.18112/openneuro.ds004457.v1.0.2
Version 1.0.2 is the recorded source dataset used for the five patient SEEG pulse windows.
- doi:10.1523/JNEUROSCI.1325-22.2023
Cited by
2 publicationsPublic catalog entries on Sciscape.
- usesPatient calibration covered at least 95 percent of 1 to 80 Hz SEEG map entries in 12 of 16 test patients
This work supplied context for rank calibration of dependent SEEG outputs. It calibrated pulse waveform scores. We used patient scores for correlation maps.
- usesFour pre-pulse coefficients increased mean relative SEEG prediction error in five patients at 50–250 ms with ridge penalty ratio one
This archive supplied metadata, fixed receiver selection, source locks, and retrieval code. Its saved main windows enabled an exact input check. We retrieved native channels independently and added matched before-pulse windows. We did not reuse its uncertainty bands or scores.