Numerical Validation of the ESMA Framework: Benchmark Against the Bialynicki-Birula–Mycielski Gausson, Convergence Analysis, and Quantified Nonlocal Coupling

{"Editorial":[0],"note:":[1],"This":[2],"file":[3],"was":[4],"uploaded":[5],"here":[6],"by":[7,139],"mistake":[8],"as":[9],"a":[10,81,92,95,148],"new":[11],"version":[12],"of":[13,49,63,75,83,186],"\\"Variational":[14],"Formulation":[15],"and":[16,30,85,94],"Effective":[17],"Nonlinear":[18],"Self-Confinement":[19],"in":[20,112,130],"the":[21,44,50,58,64,70,102,113,118,125,131,155,174,182],"ESMA":[22,51,65],"Framework.\\"":[23],"Its":[24],"content":[25],"is":[26,31,40],"independent":[27,185],"numerical-validation":[28],"work":[29],"unrelated":[32],"to":[33,88,167],"that":[34],"paper's":[35],"v1.":[36],"The":[37],"same":[38],"material":[39],"also":[41],"published":[42],"under":[43],"correct":[45],"record,":[46],"\\"Numerical":[47],"Validation":[48],"Framework\\"":[52],"(concept":[53],"DOI:":[54],"10.5281/zenodo.19110504).":[55],"We":[56,123],"benchmark":[57],"split-step":[59],"Fourier":[60],"(SSFM)":[61],"implementation":[62],"framework's":[66],"logarithmic":[67],"term":[68],"against":[69],"exact":[71],"\\"gausson\\"":[72],"soliton":[73],"solution":[74],"Bialynicki-Birula":[76],"&":[77],"Mycielski":[78],"(1976),":[79],"obtaining":[80],"fidelity":[82],"1.000000000":[84],"norm":[86],"conservation":[87],"3×10⁻¹³":[89],"for":[90],"both":[91],"stationary":[93],"Galilean-boosted":[96],"soliton.":[97],"A":[98],"self-convergence":[99],"study":[100],"shows":[101],"numerical":[103,156],"scheme":[104],"converges":[105],"at":[106,160,169,181],"empirical":[107],"order":[108],"p":[109],"≈":[110],"2.25":[111],"time":[114],"step,":[115],"consistent":[116],"with":[117,143],"second-order":[119],"Strang":[120],"splitting":[121],"used.":[122],"quantify":[124],"nonlocal":[126],"coupling":[127],"artifact":[128],"identified":[129],"original":[132],"variance":[133],"operator:":[134],"two":[135],"wave":[136],"packets":[137],"separated":[138],"30":[140],"length":[141],"units,":[142],"zero":[144],"density":[145],"overlap,":[146],"show":[147],"spurious":[149],"relative":[150],"width":[151],"shift":[152],"ranging":[153],"from":[154],"noise":[157,183],"floor":[158,184],"(~10⁻⁹)":[159],"locality":[161],"scale":[162],"l":[163,170],"≤":[164],"3":[165],"up":[166],"7×10⁻²":[168],"=":[171],"20,":[172],"while":[173],"local":[175],"gradient-based":[176],"extension":[177],"(β":[178],"term)":[179],"remains":[180],"separation.":[187]}

Authors

Institutions

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-15
DOI
https://doi.org/10.5281/zenodo.22771125
Primary Topic
Seismic Imaging and Inversion Techniques
Type
preprint
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
preprint

Numerical Validation of the ESMA Framework: Benchmark Against the Bialynicki-Birula–Mycielski Gausson, Convergence Analysis, and Quantified Nonlocal Coupling

Jorge Menezes
Zenodo (CERN European Organization for Nuclear Research)
Seismic Imaging and Inversion Techniques
preprint

Numerical Validation of the ESMA Framework: Benchmark Against the Bialynicki-Birula–Mycielski Gausson, Convergence Analysis, and Quantified Nonlocal Coupling

Jorge Menezes
preprint en

Abstract

Editorial note: This file was uploaded here by mistake as a new version of "Variational Formulation and Effective Nonlinear Self-Confinement in the ESMA Framework." Its content is independent numerical-validation work and is unrelated to that paper's v1. The same material is also published under the correct record, "Numerical Validation of the ESMA Framework" (concept DOI: 10.5281/zenodo.19110504). We benchmark the split-step Fourier (SSFM) implementation of the ESMA framework's logarithmic term against the exact "gausson" soliton solution of Bialynicki-Birula & Mycielski (1976), obtaining a fidelity of 1.000000000 and norm conservation to 3×10⁻¹³ for both a stationary and a Galilean-boosted soliton. A self-convergence study shows the numerical scheme converges at empirical order p ≈ 2.25 in the time step, consistent with the second-order Strang splitting used. We quantify the nonlocal coupling artifact identified in the original variance operator: two wave packets separated by 30 length units, with zero density overlap, show a spurious relative width shift ranging from the numerical noise floor (~10⁻⁹) at locality scale l ≤ 3 up to 7×10⁻² at l = 20, while the local gradient-based extension (β term) remains at the noise floor independent of separation.

Zenodo (CERN European Organization for Nuclear Research)
Athens Euroclinic (GR)
Life in Land
Seismic Imaging and Inversion Techniques
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.