132 lines
4.7 KiB
Typst
132 lines
4.7 KiB
Typst
//#import "@preview/clean-acmart:0.0.1": acmart, acmart-ccs, acmart-keywords, acmart-ref, to-string
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#import "clean-acmart.typ": acmart, acmart-ccs, acmart-keywords, acmart-ref, to-string
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#import "@preview/cetz:0.3.4"
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#let title = [Dataflow Analysis for Compiler Optimization]
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#let authors = (
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(
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name: "Matthias Veigel",
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email: "matthias.veigel@uni-ulm.de",
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department: [Institute of Software Engineering and Programming Languages],
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institute: [University Ulm]
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),
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)
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#show: acmart.with(
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title: title,
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authors: authors,
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copyright: none
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//page: "A4"
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// Set review to submission ID for the review process or to "none" for the final version.
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// review: [\#001],
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)
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#set figure(supplement: [Fig.])
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#show figure.caption: it => [
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#set text(size: 8pt)
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*#it.supplement #context it.counter.display(it.numbering)*
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#it.body
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]
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#show figure.where(kind: "raw"): set figure(supplement: [Listing])
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#show figure.where(kind: "raw"): it => align(left)[
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#v(8pt, weak: true)
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#it.body
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#v(4pt, weak: true)
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#it.caption
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#v(8pt, weak: true)
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]
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#set heading(numbering: "1.1.1")
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= Abstract
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// define DFA here or in introduction
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todo
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= Introduction
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todo
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= Methodology
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== Objective and research questions <research_questions_s>
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The goal of this research paper is to find claims about the advantages and disadvantages of using dataflow analysis for compiler optimization and where DFA is already implemented in Compilers.
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This goal has been defined in two research questions:
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- RQ1 --- What are the advantages and disadvantages of using dataflow analysis for compiler optimization? \
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This questions aims to identify which advantages DFA has over other optimization techniques and which disadvantages it has when used.
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- RQ2 --- How is dataflow analysis used in current compilers? \
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This questions aims to identify how DFA is already used in current compilers and if it is used during normal compilation or if it has to be explicitly enabled.
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== Search and selection strategy
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My search strategy consisted of 4 steps as seen in @sas_fig. \
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#figure(
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caption: [Search string used in electronic databases],
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kind: "raw",
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align(left)[
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#set raw(syntaxes: "search-string.sublime-syntax", theme: "search-string.tmTheme")
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```SearchString
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dfa OR (dataflow AND analysis)
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AND (compiler* OR compilation)
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AND (optimiz*)
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```
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]
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) <sas_search_string>
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The papers from the first steps are collected from the electronic databases ACM Digital Library, IEEE Xplore, Springer Link, Web of Science with the search string seen in @sas_search_string.
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The search string in @sas_search_string was created using the research questions in @research_questions_s and was always applied to the full text of the papers.
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#place(
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bottom + center,
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scope: "parent",
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float: true,
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[
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#set par(leading: 0.3em)
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#set text(size: 9pt)
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#figure(
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caption: [Search and selection process],
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cetz.canvas({
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import cetz.draw: *
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let bs = (3.3, 1.1)
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rect((0, 0), (rel: bs), name: "acm")
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rect((0, -(bs.at(1)+0.3)*1), (rel: bs), name: "ieee")
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rect((0, -(bs.at(1)+0.3)*2), (rel: bs), name: "springer")
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rect((0, -(bs.at(1)+0.3)*3), (rel: bs), name: "websci")
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rect((bs.at(0)+1.5, -(bs.at(1)*1.5+0.45)), (rel: bs), name: "dup")
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rect((bs.at(0)*2+2.25, -(bs.at(1)*1.5+0.45)), (rel: bs), name: "sel")
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rect((bs.at(0)*3+3, -(bs.at(1)*1.5+0.45)), (rel: bs), name: "snow")
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rect((bs.at(0)*4+3.75, -(bs.at(1)*1.5+0.45)), (rel: bs), name: "inc")
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line("acm.east", (rel: (0.75, 0)), name: "dlu")
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line("ieee.east", (rel: (0.75, 0)))
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line("springer.east", (rel: (0.75, 0)))
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line("websci.east", (rel: (0.75, 0)), name: "dld")
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line("dlu.end", "dld.end", name: "dl")
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set-style(mark: (end: ">"))
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line("dl.50%", "dup.west")
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line("dup.east", "sel.west")
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line("sel.east", "snow.west")
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line("snow.east", "inc.west")
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content("acm", align(center)[ACM Digital Library \ n = ])
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content("ieee", align(center)[IEEExplore \ n = ])
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content("springer", align(center)[Springer Link \ n = ])
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content("websci", align(center)[Web of Science \ n = ])
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content("dup", align(center)[Duplicate removal \ n = ])
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content("sel", align(center)[Application of \ selection criteria \ n = ])
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content("snow", align(center)[Snowballing \ n = ])
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content("inc", align(center)[Papers included \ n = ])
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})
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) <sas_fig>
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]
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)
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#bibliography("refs.bib", title: "References", style: "association-for-computing-machinery")
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#colbreak(weak: true)
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#set heading(numbering: "A.a.a")
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= Artifact Appendix
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In this section we show how to reproduce our findings.
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