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DOC: introduction and generation state (#11)
* first draft of intro * Change of contents and dependency * pgamma virtual state generation! * ready to go draft of decay and gamma generation * draft now for the transition * add transition and graph * test diff transitions * strong EM weak transition * organise transition graph * add STM section --------- Co-authored-by: Remco de Boer <[email protected]>
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# MyST-NB Quickstart | ||
# Amplitude Analysis 101 / PWA101 (v2.0) | ||
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## CAS-assisted Amplitude Models building for photoproduction reaction | ||
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This document is a follow-up of PWA101 (v1.0) (temporarily see [here](https://compwa--217.org.readthedocs.build/report/999.html)), | ||
as an introduction to Amplitude Analysis / Partial Wave Analysis (PWA) by demonstrating its application to a specific reaction channel and amplitude model. | ||
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Now the focus is the use of symbolic expressions (computations), with the use of [ComPWA packages](https://compwa.github.io/), or CAS(Computer Algebra System)-assisted model building in general (the python package `SymPy` in this case) to illustrate the general process in PWA. | ||
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This tutorial aims to equip readers with deeper understanding of PWA methodologies and full workflow in the context of hadron physics through a practical, hands-on example with symbolic expressions via [ComPWA](https://compwa.github.io/). | ||
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Furthermore, | ||
address to the issue ✅ [ComPWA/gluex-nstar#1](https://github.com/ComPWA/gluex-nstar/issues/1), this document is PWA101(v2.0), which shows PWA methodologies and full workflow in the context of hadron physics with symbolic expressions via [ComPWA](https://compwa.github.io/). | ||
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# Table of contents: | ||
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```{toctree} | ||
hello | ||
reaction | ||
pgamma-state | ||
``` |
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