text:
@inproceedings{hvingelby2020dane,
  title     = {DaNE: A named entity resource for danish},
  author    = {Hvingelby, Rasmus and Pauli, Amalie Brogaard and Barrett, Maria and Rosted, Christina and Lidegaard, Lasse Malm and S{\o}gaard, Anders},
  booktitle = {Proceedings of the 12th Language Resources and Evaluation Conference},
  pages     = {4597--4604},
  year      = {2020}
}
@article{enevoldsen2021dacy,
  title   = {Dacy: A unified framework for danish nlp},
  author  = {Enevoldsen, Kenneth and Hansen, Lasse and Nielbo, Kristoffer},
  journal = {arXiv preprint arXiv:2107.05295},
  year    = {2021}
}
@inproceedings{derczynski2021danish,
  title     = {The Danish Gigaword Corpus},
  author    = {Derczynski, Leon and Ciosici, Manuel R and Baglini, Rebekah and Christiansen, Morten H and Dalsgaard, Jacob Aarup and Fusaroli, Riccardo and Henrichsen, Peter Juel and Hvingelby, Rasmus and Kirkedal, Andreas and Kjeldsen, Alex Speed and others},
  booktitle = {Proceedings of the 23rd Nordic Conference on Computational Linguistics (NoDaLiDa)},
  pages     = {413--421},
  year      = {2021}
}
@article{weischedel2013ontonotes,
  title   = {Ontonotes release 5.0 ldc2013t19},
  author  = {Weischedel, Ralph and Palmer, Martha and Marcus, Mitchell and Hovy, Eduard and Pradhan, Sameer and Ramshaw, Lance and Xue, Nianwen and Taylor, Ann and Kaufman, Jeff and Franchini, Michelle and others},
  journal = {Linguistic Data Consortium, Philadelphia, PA},
  volume  = {23},
  year    = {2013}
}
@article{sang2003introduction,
  title   = {Introduction to the CoNLL-2003 shared task: Language-independent named entity recognition},
  author  = {Sang, Erik F and De Meulder, Fien},
  journal = {arXiv preprint cs/0306050},
  year    = {2003}
}
@article{plank2021dan+,
  title   = {DaN+: Danish nested named entities and lexical normalization},
  author  = {Plank, Barbara and Jensen, Kristian N{\o}rgaard and van der Goot, Rob},
  journal = {arXiv preprint arXiv:2105.11301},
  year    = {2021}
}

repository: centre-for-humanities-computing/DaCy

repo_name: centre-for-humanities-computing/DaCy

gha_language: Python


text:
@article{Pelto-2019-Multi-year,
    title = "Multi-year evaluation of airborne geodetic surveys to estimate seasonal mass balance, Columbia and Rocky Mountains, Canada",
    author = "Pelto, Ben M.  and
      Menounos, Brian  and
      Marshall, Shawn J.",
    journal = "The Cryosphere, Volume 13, Issue 6",
    volume = "13",
    number = "6",
    year = "2019",
    publisher = "Copernicus GmbH",
    url = "https://aclanthology.org/G19-139001",
    doi = "10.5194/tc-13-1709-2019",
    pages = "1709--1727",
}

repository: gwf-uwaterloo/gwf-publications

license_type: permissive

repo_name: gwf-uwaterloo/gwf-publications

branch_name: refs/heads/main

extension: bib


text:
@inproceedings{subramanian2018learning,
  title = {Learning General Purpose Distributed Sentence Representations via Large Scale Multi-task Learning},
  author = {Sandeep Subramanian and Adam Trischler and Yoshua Bengio and Christopher J Pal},
  booktitle = {International Conference on Learning Representations},
  year = {2018},
  url = {https://openreview.net/forum?id=B18WgG-CZ}
}

license: MIT

url: https://raw.githubusercontent.com/Hugh-Shi/DL-NLP-Readings/924e4d189e5660c5b5d4854278f3df755ae2231d/Bibtex/Learning General Purpose Distributed Sentence Representations via Large Scale Multi-task Learning.bib

repository: Hugh-Shi/DL-NLP-Readings

repo_name: Hugh-Shi/DL-NLP-Readings

branch_name: refs/heads/master

gha_license_id: MIT


text:
SUMMARY = "A C implementation of John Gruber’s Markdown text to html language"
HOMEPAGE = "https://www.pell.portland.or.us/~orc/Code/discount/"
LICENSE = "BSD-3-Clause"
LIC_FILES_CHKSUM = "file://COPYRIGHT;md5=4fce0411d71254cfa33e28dba1458f18"

SRC_URI = " \
    https://www.pell.portland.or.us/~orc/Code/${BPN}/${BPN}-${PV}.tar.bz2 \
    file://0001-Do-not-run-ldconfig.patch \
    file://0002-Avoid-stripping-during-install.patch \
    file://0003-fixldflags.patch \
"
SRC_URI:append:class-target = " \
    file://0004-Do-not-build-use-cross-config.sed.patch \
    file://0005-Use-native-mktags.patch \
    file://0006-Use-native-branch.patch \
"
PV = "2.2.7b"
SRC_URI[sha256sum] = "b9368cc2063831635f9e790d0c4c338c2b4b72658cdc244323241bfcddf6ffd5"

inherit autotools-brokensep pkgconfig

DEPENDS += " \
    ${BPN}-native \
"

do_configure() {
    ./configure.sh \
        --shared \
        --prefix=${prefix} \
        --execdir=${bindir} \
        --libdir=${libdir} \
        --mandir=${mandir} \
        --enable-all-features \
        --with-fenced-code \
        --pkg-config
}

do_install:append:class-native() {
    for exec in branch cols config.sed echo mktags; do
        install ${B}/$exec ${D}${bindir}
    done
}

BBCLASSEXTEND = "native"

extension: bb


text:
@incollection{CavenderLadner-2008,
 abstract = {For many people with hearing impairments, the degree of hearing loss is only a small aspect of their disability and does not necessarily determine the types of accessibility solutions or accommodations that may be required. For some people, the ability to adjust the audio volume may be sufficient. For others, translation to a signed language may be more appropriate. For still others, access to text alternatives may be the best solution. Because of these differences, it is important for researchers in Web accessibility to understand that people with hearing impairments may have very different cultural-linguistic traditions and personal backgrounds.},
 address = {London},
 author = {Cavender, Anna and Ladner, Richard E},
 booktitle = {Web Accessibility},
 chapter = {3},
 doi = {http://dx.doi.org/10.1007/978-1-84800-050-6_3},
 edition = {1st},
 editor = {Harper, Simon and Yesilada, Yeliz},
 keywords = {wa-book},
 mendeley-groups = {WWW/Internet,WA Book Chapters,Books},
 month = {sep},
 pages = {25--35},
 publisher = {Springer},
 series = {Human-Computer Interaction Series},
 title = {Hearing Impairments},
 url = {http://dx.doi.org/http://dx.doi.org/10.1007/978-1-84800-050-6_3},
 year = {2008}
}

repository: sharpic/academic-kickstart

repo_name: sharpic/academic-kickstart


text:
@inproceedings{LiuEtAl:AAAI16,
 author = {Li Liu and Li Cheng and Ye Liu and Yongpo Jia and David S. Rosenblum},
 bib2html_dl_pdf = {http://www.ece.ualberta.ca/~lcheng5/papers/LiuEtAl_AAAI16.pdf},
 bib2html_pubtype = {Conference},
 booktitle = {National Conference on Artificial Intelligence (AAAI)},
 title = {Recognizing Complex Activities by a Probabilistic Interval-based Model},
 year = {2016}
}

repository: Vision-and-Learning-Lab-UAlberta/home

repo_name: Vision-and-Learning-Lab-UAlberta/home


text:
a {
	color : #171717;
	text-decoration : none;

}

a:hover {
	color : #3d3d3d;
	text-decoration : underline;
	background: transparent;
	font-weight: bold;
}

a.side {
	color : 171717;
	text-decoration : none;
	background: transparent;
}

a:hover.side {
	color : #3d3d3d;
	text-decoration : none;
	background: transparent;
}

a.white, li.white a {
	color: #ddd;
	text-decoration: none;
	background: transparent;
}

a:hover.white, li.white a:hover {
	color: #ddd;
	text-decoration: underline;
	background: transparent;
}

body {
	color : #bababa;
	background : #131313 url(images/bg.png) top center no-repeat ;
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 12px;
	padding-top: 0px;
	padding-bottom :10px;
	margin: 0px;
	outline: 0px;
}

form {
	margin : 0px;
}

hr {
	height : 1px;
	border : 1px solid #eee;
}

hr.side-hr {
	height : 1px;
	border : 1px solid #eee;
}

td {
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 11px;
}

pre {
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 11px;
}

.alt {
	color : #005599;

}
.footer {
	font-family: Arial;
	font-size: 10px;
	color: white;
        height:31px;
        margin:0px;
        background-position: bottom center;
        background-repeat: no-repeat;
	text-align:center;
	background-image: url(images/footer.png);
}

.button {
font-family : arial;
    font-size : 11px;
    color : white;
    padding:3px;
    border : 1px solid #111111;
    margin: 3px;
background-image: url(images/button.png);

}

.bbcode {
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 10px;
	color : #555;
	background-color : #f1f1f1;
	border : 1px solid #ccc;
	margin-top : 2px;
}

.textbox {
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 11px;
	color : #171717;
	background-color : #e5e5e5;
	border : 1px solid #585858;
}

.main-body {
	font-size : 11px;
	color : #171717;
	background-color : transparent;
	padding: 20px 30px;
}

.center {
	margin : 0 auto;
}

.side-body {
	font-size : 11px;
	color : #171717;
	background-color :  transparent;
	padding : 10px;
}

.main-bg {
	color : #bababa;
	background-color : #b5b5b5;
	border-right : 1px solid #ffffff;
	min-height:800px;

}

.border {
	border : 0px solid #;
	margin-bottom : 5px;
}

.admin-message {
	font-family : Verdana, Arial, Helvetica, sans-serif;
	font-size : 11px;
	text-align : center;
	color : #555;
	background-color : #f6f6f6;
	border : 1px solid #e1e1e1;
	padding : 3px 4px 5px 4px;
	margin-bottom : 5px;
}

.side-left .side-border-right {display: none;}
.side-right .side-border-left {display: none;}

.side-border-left {
	color : #171717;
	background-color : #b5b5b5;
	width: 200px;
	border-right : 1px solid #ffffff;

}

.side-border-right {
	color : #171717;
	background-color : #b5b5b5;
	width: 200px;
	border-left : 0px solid #424242;
	border-right : 0px solid #424242;
}

.news-category {
	border:0;
	margin:3px 5px 0 0;
	float:left;
}

.news-footer {
	font-size : 10px;
	color : #161616;
	background-color : #808080;
	text-align: center;
	padding : 3px 4px 4px 4px;
}

.capmain {
	font-family : Arial, Verdana, Helvetica, sans-serif;
	font-size : 12px;
	color : #ffffff;
	background-image:url(images/panel2.png);
	height:36px;
	text-align:center;
}

.scapmain {
	font-family : Arial, Verdana, Helvetica, sans-serif;
	font-size : 12px;
	color : #eeeeee;
	background-image:url(images/panel.png);
	height:34px;
	text-align:center;
  border-top: 1px solid #a2a2a2;
}
.side {
	background-image:url(images/side.png);
	height:30px;
	width:1px;
}
.center {
	margin: 0 auto;
}

.tbl-border { border:1px solid #a6a6a6;}

.tbl {
    font-size: 11px;
    color: #535353;
    padding: 4px;
    background-color: #dddddd;
}

.tbl1 {
    font-size: 11px;
    color: #535353;
    background-color: #dddddd;
    padding: 4px;
}
.tbl11 {
    font-size: 11px;
    color: #535353;
    background-color: #dddddd;
    border:1px solid #a6a6a6;
    border-right:0px solid #a6a6a6;
    padding: 2px;
}
.tbl2 {
    font-size: 11px;
    color: #535353;
    background-color: #eaeaea;
    padding: 4px;

}

.forum-caption {
    font-size : 11px;
    font-weight : bold;
    color : black;
    background : url(images/stred.png);
    padding : 2px 4px 4px 4px;
}
.quote {
	font-size : 11px;
	color : #555;
	background-color : #575757;
	padding : 4px;
	margin : 0px 20px 0px 20px;
	border : 1px solid #222;
}

.poll {
	height : 12px;
	border : 1px solid #222;
}

.comment-name {
	font-weight: bold;
	color: #04688d;
}

.shoutboxname {
	font-weight: bold;
	color: #ffffff;
}

.shoutbox {
	color: #161616;
}

.shoutboxdate {
	font-size: 10px;
	color: #8f8f8f;
}

.small {
	font-size : 10px;
	font-weight : normal;
}

.small2 {
	font-size : 10px;
	font-weight : normal;
	color : #bababa;
}

.side-small {
	font-size : 10px;
	font-weight : normal;
	color : #bababa;
	background-color : #1a1a1a;
}

.side-label {
	color : #bababa;
	background-color : #1a1a1a;
	padding : 2px 2px 3px 2px;
}

/* Vertical Navigation */

#navigation h2 {
	font-size: 10px;
	color : #bababa;
	background-color : #1a1a1a;
	margin: 0;
	padding: 4px;
}

#navigation ul {
	margin: 0;
	padding: 0;
	list-style-type: none;
}

* html #navigation ul li{
   height: 1%;
}

#navigation a {
	display: block;
	color : #bababa;
	background-color : #1a1a1a;
	padding: 2px;
	text-decoration : none;
}

#navigation a:hover {
	color : #bababa;
	background-color : #1a1a1a;
}

/* Page Navigation */

.pagenav {
	padding: 0.4em;
}

.pagenav span {
	color : #bababa;
	background-color : #1a1a1a;
	border: 1px solid #e1e1e1;
	padding: 0.2em 0.4em 0.2em 0.4em;
	margin: 0.2em;
}

.pagenav a {
	color : #bababa;
	background-color : #1a1a1a;
	border: 1px solid #e1e1e1;
	padding: 0.2em 0.4em 0.2em 0.4em;
	margin: 0.2em;
	text-decoration: none;
}

.pagenav a:hover {
	color : #bababa;
	background-color : #1a1a1a;
	margin: 0.2em;
	text-decoration: none;
}
.header {
	width:900px;
	height: 180px;
}
/* Menu navigation */
a.side-link {
   font-size: 10px;
   text-align : center;
   background-image: url('images/side-link.png');
   background-repeat: no-repeat;
   display: block;
   width: 182px;
   height: 16px;
   padding: 5px 0px 0px 10px;
  color: #515151;
  text-decoration: none;
}

a:hover.side-link {
   font-size: 10px;
   text-align : center;
   background-image: url('images/side.png');
   background-repeat: no-repeat;
   display: block;
   width: 182px;
   height: 16px;
   padding: 5px 0px 0px 10px;
  color: #9fcc00;
  text-decoration: none;
}
/* Menu sub. */
#container{
	margin:0 auto;
	padding:0px;
	position:relative;
	width:200px;
	margin-top: 0px;
	}

#sub-nav{
	width:549px;
	height:37px;
	margin:0px;
	padding:0;
	background:url(images/header2.png) no-repeat;
	color:#ffffff;
	float:left;
	}

#sub-nav img{
	position:absolute;
	right:0;
	top:0px;
	}

#sub-nav ul{
	margin:59;
	padding:20;
	list-style:none;
	}

#sub-nav ul li{
	margin-right: 38px;
	float:left;
}

#sub-nav ul li a{
	padding: 4px 0px 2px 0px;
	font: 10px/10px Tahoma;
	font-size: 10px;
	color: #ffffff;
	font-weight : bold;
	text-align:center;
	text-decoration:none;
	text-transform:uppercase;
	background:none;
}

.pic {
  -webkit-box-shadow: 0px 0px 15px rgba(0,0,0,0.5);
  -moz-box-shadow: 0px 0px 15px rgba(0,0,0,0.5);
  box-shadow: 0px 0px 15px rgba(0,0,0,0.5);
  border: 1px solid #000;
}

repository: otottkovacstibor/progvill-site

repo_name: otottkovacstibor/progvill-site

extension: css


text:
@article{RePa05,
 author = {Kui Ren and Jaemin Park and Kwangjo Kim},
 journal = {Journal of Zhejiang University (Science)},
 month = {July},
 number = {5},
 pages = {358-364},
 title = {On the Construction of Cryptographically Strong Boolean Functions with Desirable Trade-off},
 volume = {6(A)},
 year = {2005}
}


text:
include(FetchContent)

FetchContent_Declare(   spdlog
    GIT_REPOSITORY      https://github.com/gabime/spdlog
    GIT_TAG             v1.9.2
)

FetchContent_MakeAvailable(spdlog)

extension: cmake


text:
@comment{This file has been generated by Pybliographer}

@Book{LS-DYNA1998a,
  Title          = {L{S}-{DYNA} {T}heory {M}anual},
  Publisher      = {LSTC},
  year           = 1998
}

@Book{Krey89,
  Author         = {Kreyszig, Erwin},
  Title          = {Introductory functional analysis with applications},
  Publisher      = {John Wiley \& Sons},
  year           = 1989
}

@Book{Samet1990,
  Author         = {Samet, H.},
  Title          = {The design and analysis of spatial data structures},
  Publisher      = {Addison-Wesley},
  Address        = {Reading, MA},
  year           = 1990
}

@Book{Cormen2001,
  Author         = {Cormen, Thomas H. and Leiserson, Charles E. and
                   Rivest, Ronald L. and Stein, Clifford },
  Title          = {Introduction to Algorithms, Second Edition},
  Publisher      = {The MIT Press},
  citeulike-article-id = {201727},
  howpublished   = {Paperback},
  isbn           = {0262531968},
  keywords       = {algorithms, hma},
  month          = {September},
  priority       = {2},
  url            = {http://www.amazon.ca/exec/obidos/redirect?tag=citeulike09-20\&path=ASIN/0262531968},
  year           = 2001
}

@Book{Wriggers2006,
  Author         = {Wriggers, Peter},
  Title          = {Computational {C}ontact {M}echanics},
  Publisher      = {Springer},
  Edition        = {2},
  year           = 2006
}

@Book{Stampacchia1980,
  Author         = {Kinderlehrer, David and Stampacchia, Guido},
  Title          = {An introduction to variational inequalities and their
                   applications},
  Publisher      = {Academic Press},
  Address        = {New York},
  year           = 1980
}

@Book{LS-DYNA1998,
  Title          = {L{S}-{DYNA} {E}xamples {M}anual},
  Publisher      = {LSTC},
  year           = 1998
}

@Book{Knuth3,
  Author         = {Knuth, Donald E.},
  Title          = {Sztuka {P}rogramowania ({T}he art of computer
                   programming)},
  Publisher      = {Wydawnictwa Naukowo-Techniczne},
  Volume         = {3},
  Address        = {Warszawa},
  year           = 2002
}

@Book{CM88,
  Author         = {Cohen, H. and Muncaster, R. G.},
  Title          = {The {T}heory of {P}seudo-rigid {B}odies},
  Publisher      = {Springer},
  Address        = {New York},
  year           = 1988
}

@Book{Arnold89,
  Author         = {V. I. Arnold},
  Title          = {Mathematical Methods of Classical Mechanics},
  Publisher      = {Springer Verlag},
  Volume         = 60,
  Series         = {Graduate Texts in Mathematics},
  Address        = {New York},
  Edition        = {$2^{nd}$},
  Note           = {508 pages.},
  keywords       = {Analytic Mechanics.},
  year           = 1989
}

@Book{MH94,
  Author         = {Marsden, Jerrold E. and Hughes, Thomas J. R.},
  Title          = {Mathematical {F}oundations of {E}lasticity},
  Publisher      = {Courier Dover Publications},
  year           = 1994
}

@Book{Arnold75,
  Author         = {Arnold, W. I.},
  Title          = {R{\'o}wnania r{\'o}{\.z}niczkowe zwyczajne ({O}rdinary
                   differential equations)},
  Publisher      = {Pa{\'n}stwowe Wydawnictwo Naukowe},
  Address        = {Warszawa},
  year           = 1975
}

@Book{Arnold81,
  Author         = {V. I. Arnold},
  Title          = {Metody matematyczne mechaniki klasycznej
                   ({M}athematical methods of classical mechanics)},
  Publisher      = {Pa\'nstwowe Wydawnictwo Naukowe},
  Address        = {Warszawa},
  year           = 1981
}

@Book{BLM00,
  Author         = {Belytschko, T. and Liu, W. K. and Moran, B.},
  Title          = {Nonlinear Finite Elements for Continua and Structures},
  Publisher      = {J. Wiley and Sons},
  Address        = {New York},
  year           = 2000
}

@Book{Knuth1,
  Author         = {Knuth, Donald E.},
  Title          = {Sztuka {P}rogramowania ({T}he art of computer
                   programming)},
  Publisher      = {Wydawnictwa Naukowo-Techniczne},
  Volume         = {1},
  Address        = {Warszawa},
  year           = 2002
}

@Book{RW98,
  Author         = {Rockafellar, R. Tyrrell and Wets, Roger J-B.},
  Title          = {Variational analysis},
  Publisher      = {Springer},
  year           = 1998
}

@Book{Clarke1983,
  Author         = "Clarke, Frank H",
  Title          = "Optimization and Nonsmooth Analysis",
  Publisher      = "John Wiley and Sons",
  Address        = "New York",
  year           = 1983
}

@Book{Rock1997,
  Author         = {Rockafellar, R. Tyrrell},
  Title          = {Convex {A}nalysis},
  Publisher      = {Princeton University Press},
  year           = 1997
}

@Book{Wilf86,
  Author         = "Herbert S. Wilf",
  Title          = "Algorithms and Complexity",
  Publisher      = "Pren{\-}tice-Hall",
  Address        = "Upper Saddle River, NJ 07458, USA",
  isbn           = "0-13-021973-8 (hardcover), 0-13-022054-X (paperback)",
  pages          = "vi + 231",
  url            = "citeseer.ist.psu.edu/article/wilf94algorithms.html",
  year           = 1986
}

@Book{ANSYS2004,
  Title          = {A{NSYS} {V}erification {M}anual},
  Publisher      = {ANSYS},
  year           = 2004
}

@Book{Strang88,
  Author         = {Strang, Gilbert},
  Title          = {Linear algebra and its applications},
  Publisher      = {Brooks Cole},
  abstract       = { With a highly applied and computational focus, this
                   book combines the important underlying theory with
                   examples from electrical engineering, computer science,
                   physics, biology and economics. An expanded list of
                   computer codes in an appendix and more
                   computer-solvable exercises in the text reflect
                   Strang?s interest in computational linear algebra. Many
                   exercises appear in the sections and in the chapter
                   reviews. Exercises are simple but instructive. },
  howpublished   = {Hardcover},
  year           = 1988
}

@Book{Knuth2,
  Author         = {Knuth, Donald E.},
  Title          = {Sztuka {P}rogramowania ({T}he art of computer
                   programming)},
  Publisher      = {Wydawnictwa Naukowo-Techniczne},
  Volume         = {2},
  Address        = {Warszawa},
  year           = 2002
}

@Book{Stronge2000,
  Author         = {Stronge, W. J.},
  Title          = {Impact {M}echanics},
  Publisher      = {Cambridge University Press},
  year           = 2000
}

@Book{Mosley,
  Author         = {Mosley, Bill and Bungey, John and Husly, Ray},
  Title          = {Reinforced {C}oncrete {D}esign},
  Publisher      = {Palgrave {M}acmillan},
  year           = 2012
}

@Book{SEDM,
  Author         = {Draycott, Trevor and Bullman, Peter},
  Title          = {Structural {E}lements {D}esign {M}anual},
  Publisher      = {Butterworth-Heinemann},
  year           = 2009
}

@Book{CEC2,
  Author         = {Narayanan, R S and Goodchild, C H},
  Title          = {Concise {E}urocode 2},
  Publisher      = {The Concrete Centre},
  year           = 2006
}

@Book{McKenzie,
  Author         = {McKenzie, Wililiam M C},
  Title          = {Design of {S}tructural {E}lements (2nd edition)},
  Publisher      = {Palgrave {M}acmillan},
  year           = 2013
}

@Book{Martin,
  Author         = {Martin, L H and Purkiss J A},
  Title          = {Structural {D}esign of {S}teelwork to {EN} 1993 and {EN} 1994},
  Publisher      = {Elsevier/Butterworth-Heinemann},
  year           = 2008
}

repository: parmes/parmes

repo_name: parmes/parmes


text:
SUMMARY = "Heap memory profiler for Linux"
DESCRIPTION = "Heaptrack traces all memory allocations and annotates these \
events with stack traces. Dedicated analysis tools then allow you to interpret \
the heap memory profile to find hotspots to reduce memory, leaks, allocation \
hotspots and temporary allocations"
HOMEPAGE = "https://phabricator.kde.org/source/heaptrack/"
LICENSE = "LGPL-2.1-only"
LIC_FILES_CHKSUM = "file://COPYING;md5=4fbd65380cdd255951079008b364516c"

DEPENDS = "zlib boost libunwind elfutils"

SRC_URI = "git://github.com/KDE/heaptrack.git;protocol=https;branch=master \
           file://0001-libheaptrack-Replace-__pid_t-with-pid_t.patch \
           file://0002-heaptrack_inject-Include-dlfcn.h-for-dlopen-dlclose.patch \
           file://0003-heaptrack_preload-Make-noexcept-attribute-conditiona.patch \
           file://0004-backtrace-Always-include-stdint.h.patch \
           file://0001-track-Check-for-unw_set_caching_policy-before-using.patch \
           "

SRCREV = "bc9e3744bcc47de978673d1e382f4125a1ab5fa8"

S = "${WORKDIR}/git"

inherit cmake

EXTRA_OECMAKE += "-DHEAPTRACK_BUILD_GUI=OFF"

# libunwind is not yet ported to RISCV
COMPATIBLE_HOST:riscv32 = "null"
COMPATIBLE_HOST:riscv64 = "null"

BBCLASSEXTEND = "native nativesdk"

repository: openembedded/meta-openembedded

repo_name: openembedded/meta-openembedded

gha_language: BitBake


text:
@proceedings{ws-2010-cognitive,
    title = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    editor = "Zock, Michael  and
      Rapp, Reinhard",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3400",
}
@inproceedings{hovy-2010-distributional,
    title = "Distributional Semantics and the Lexicon",
    author = "Hovy, Eduard",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3401",
    pages = "1",
}
@inproceedings{das-bandyopadhyay-2010-semanticnet,
    title = "{S}emantic{N}et-Perception of Human Pragmatics",
    author = "Das, Amitava  and
      Bandyopadhyay, Sivaji",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3402",
    pages = "2--11",
}
@inproceedings{lebani-pianta-2010-exploiting,
    title = "Exploiting Lexical Resources for Therapeutic Purposes: the Case of {W}ord{N}et and {ST}a{RS}.sys",
    author = "Lebani, Gianluca E.  and
      Pianta, Emanuele",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3403",
    pages = "12--17",
}
@inproceedings{muramatsu-etal-2010-textual,
    title = "Textual Entailmaint Recognition using Word Overlap, Mutual Information and Subpath Set",
    author = "Muramatsu, Yuki  and
      Uduka, Kunihiro  and
      Yamamoto, Kazuhide",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3404",
    pages = "18--27",
}
@inproceedings{strapparava-ozbal-2010-color,
    title = "The Color of Emotions in Texts",
    author = "Strapparava, Carlo  and
      Ozbal, Gozde",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3405",
    pages = "28--32",
}
@inproceedings{bechet-roche-2010-expand,
    title = "How to Expand Dictionaries by Web-Mining Techniques",
    author = "B{\'e}chet, Nicolas  and
      Roche, Mathieu",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3406",
    pages = "33--37",
}
@inproceedings{curteanu-etal-2010-optimal,
    title = "An Optimal and Portable Parsing Method for {R}omanian, {F}rench, and {G}erman Large Dictionaries",
    author = "Curteanu, Neculai  and
      Moruz, Alex  and
      Trandab{\u{a}}{\c{t}}, Diana",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3407",
    pages = "38--47",
}
@inproceedings{lavagnino-park-2010-conceptual,
    title = "Conceptual Structure of Automatically Extracted Multi-Word Terms from Domain Specific Corpora: a Case Study for {I}talian",
    author = "Lavagnino, Elisa  and
      Park, Jungyeul",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3408",
    pages = "48--55",
}
@inproceedings{gao-2010-computational,
    title = "Computational Lexicography: A Feature-based Approach in Designing an E-dictionary of {C}hinese Classifiers",
    author = "Gao, Helena",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3409",
    pages = "56--65",
}
@inproceedings{markantonatou-etal-2010-search,
    title = "In Search of the {'}Right{'} Word",
    author = "Markantonatou, Stella  and
      Fotopoulou, Aggeliki  and
      Alexopoulou, Maria  and
      Mini, Marianna",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3410",
    pages = "66--74",
}
@inproceedings{zock-etal-2010-lexical,
    title = "Lexical Access, a Search-Problem",
    author = "Zock, Michael  and
      Schwab, Didier  and
      Rakotonanahary, Nirina",
    booktitle = "Proceedings of the 2nd Workshop on Cognitive Aspects of the Lexicon",
    month = aug,
    year = "2010",
    address = "Beijing, China",
    publisher = "Coling 2010 Organizing Committee",
    url = "https://www.aclweb.org/anthology/W10-3411",
    pages = "75--84",
}

repository: emorynlp/nlprankings

repo_name: emorynlp/nlprankings

gha_license_id: NOASSERTION

gha_language: TeX


text:
FILE(REMOVE_RECURSE
  "CMakeFiles/opencv_ts.dir/cxts.obj"
  "CMakeFiles/opencv_ts.dir/cxts_arrtest.obj"
  "CMakeFiles/opencv_ts.dir/cxts_math.obj"
  "CMakeFiles/opencv_ts.dir/precomp.obj"
  "../../bin/libopencv_ts220d.pdb"
  "../../bin/libopencv_ts220d.dll"
  "../../lib/libopencv_ts220d.dll.a"
  "../../bin/libopencv_ts220d.dll.manifest"
)

# Per-language clean rules from dependency scanning.
FOREACH(lang CXX)
  INCLUDE(CMakeFiles/opencv_ts.dir/cmake_clean_${lang}.cmake OPTIONAL)
ENDFOREACH(lang)


text:
@Misc{ddlog,
  title = 	 {Differential {Datalog}},
  howpublished = {\url{https://github.com/ryzhyk/differential-datalog}},
  note = 	 {Retrieved December 2018}}

@Misc{ddlog-manual,
  title = 	 {Differential {Datalog} ({DDLog}) Language Reference},
  author = 	 {Leonid Ryzhyk and Mihai Budiu},
  note = 	 {Retrieved December 2018},
  howpublished = {\url{https://github.com/ryzhyk/differential-datalog/blob/master/doc/language_reference/language_reference.md}}
}

@Misc{ddlog-tutorial,
  title = 	 {A Differential {Datalog} ({DDLog}) Tutorial},
  author = 	 {Leonid Ryzhyk and Mihai Budiu},
  note = 	 {Retrieved December 2018},
  howpublished = {\url{https://github.com/ryzhyk/differential-datalog/blob/master/doc/tutorial/tutorial.md}}
}

@Misc{datalog,
  title = 	 {{Datalog}},
  howpublished = {\url{https://en.wikipedia.org/wiki/Datalog}},
  year = 	 {Retrieved January 2019}}

@Misc{jni,
  author = 	 {Oracle Corp.},
  title = 	 {Java Native Interface},
  howpublished = {\url{https://docs.oracle.com/javase/8/docs/technotes/guides/jni/}},
  year = 	 {Retrieved January 2019}
}

@Misc{differential-dataflow,
  author = 	 {Frank McSherry},
  title = 	 {{Differential Dataflow}},
  howpublished = {\url{https://github.com/TimelyDataflow/differential-dataflow}},
  year = 	 {Retrieved January 2019}}
}

@Misc{kubernetes,
  author = 	 {{Kubernetes}},
  title = 	 {Production-Grade Container Orchestration},
  howpublished = {\url{https://kubernetes.io/}}
}

@Inproceedings{differential-dataflow-paper,
  author =	 {McSherry, Frank and Murray, Derek and Isaacs,
                  Rebecca and Isard, Michael},
  title =	 {{Differential Dataflow}},
  booktitle =	 {Conference on Innovative Data Systems Research (CIDR)},
  year =	 2013,
  month =	 {January}
}

@inproceedings{timely-dataflow,
  author =	 {Murray, Derek G. and McSherry, Frank and Isaacs,
                  Rebecca and Isard, Michael and Barham, Paul and
                  Abadi, Mart\'{\i}n},
  title =	 {{Naiad}: A Timely Dataflow System},
  booktitle =	 {ACM Symposium on Operating Systems Principles (SOSP)},
  year =	 2013,
  address =	 {Farminton, Pennsylvania},
  pages =	 {439--455}
}

@Misc{dd-mdbook,
  author =	 {McSherry, Frank},
  title =	 {{Differential Dataflow} Documentation},
  howpublished = {\url{https://timelydataflow.github.io/differential-dataflow}},
  year =         {Retrieved March 2019}
}

@Misc{dd-reference,
  author =	 {McSherry, Frank},
  title =	 {{Differential Dataflow} {API} reference},
  howpublished = {\url{https://docs.rs/differential-dataflow/0.8.0/differential_dataflow}},
  year =         {Retrieved March 2019}
}

@Misc{ovn,
  author =	 {{OVN}},
  title =	 {{Open Virtual Network} architecture},
  year =         {Retrieved March 2019},
  howpublished = {\url{http://www.openvswitch.org/support/dist-docs/ovn-architecture.7.html}}
}

@inproceedings{scholz-cc16,
  title =	 {On fast large-scale program analysis in {Datalog}},
  author =	 {Scholz, Bernhard and Jordan, Herbert and
                  Suboti{\'c}, Pavle and Westmann, Till},
  booktitle =	 {International Conference on Compiler Construction
                  (CC)},
  pages =	 {196--206},
  year =	 2016,
  organization = {ACM},
  abstract =	 {Designing and crafting a static program analysis is
                  challenging due to the complexity of the task at
                  hand. Among the challenges are modelling the
                  semantics of the input language, finding suitable
                  abstractions for the analysis, and handwriting
                  efficient code for the analysis in a traditional
                  imperative language such as C++. Hence, the
                  development of static program analysis tools is
                  costly in terms of development time and resources
                  for real world languages. To overcome, or at least
                  alleviate the costs of developing a static program
                  analysis, Datalog has been proposed as a domain
                  specific language (DSL). With Datalog, a designer
                  expresses a static program analysis in the form of a
                  logical specification. While a domain specific
                  language approach aids in the ease of development of
                  program analyses, it is commonly accepted that such
                  an approach has worse runtime performance than
                  handcrafted static analysis tools.  In this work, we
                  introduce a new program synthesis methodology for
                  Datalog specifications to produce highly efficient
                  monolithic C++ analyzers. The synthesis technique
                  requires the re-interpretation of the semi-naïve
                  evaluation as a scaffolding for translation using
                  partial evaluation. To achieve high-performance, we
                  employ staged- compilation techniques and specialize
                  the underlying relational data structures for a
                  given Datalog specification. Experimentation on
                  benchmarks for large-scale program analysis
                  validates the superior performance of our approach
                  over available Datalog tools and demonstrates our
                  competitiveness with state-of-the-art handcrafted
                  tools},
  url =		 {http://discovery.ucl.ac.uk/1474713/1/main.pdf}
}

@InProceedings{meijer-dpcool03,
  author =       {Erik Meijer and Wolfram Schulte and Gavin Bierman},
  title =        {Unifying Tables, Objects and Documents},
  booktitle =    {International Workshop on Declarative Programming in
                  the Context of Object-Oriented Languages (DPCOOL)},
  year =         2003,
  address =      {Uppsala, Sweden},
  month =        {August 25},
  url =          {http://research.microsoft.com/users/schulte/Papers/UnifyingTablesObjectsAndDocuments(DPCOOL2003).pdf},
  abstract =     {This paper proposes a number of type system and
                  language extensions to natively support relational
                  and hierarchical data within a statically typed
                  object-oriented setting. In our approach SQL tables
                  and XML documents become first class citizens that
                  benefit from the full range of features available in
                  a modern programming language like C\# or Java. This
                  allows objects, tables and documents to be
                  constructed, loaded, passed, transformed, updated,
                  and queried in a unified and typesafe manner.},
  comments =     {The first proposal for LINQ, at this point called
                  Xen.  The proposal contains: streams, including
                  1-element and maybe zero-element streams, anonymous
                  structs, indexable by labels or position.
                  Stream+structs = tables.  A tuple (struct) can be
                  seen as an stream of union types (called
                  discriminated unions).  Union types are
                  automatically tagged by the system.  The definition
                  allows nested streams, which are flattened.  Some of
                  this support is designed for XML.  XML literals are
                  first-class concepts in the language!  The original
                  syntax was really confusing, LINQ is better.  You
                  could lift methods, predicates, anonymous methods
                  over streams with just a stream.method.}
}

@inproceedings{Meijer-sigmod06,
  author =	 {Meijer, Erik and Beckman, Brian and Bierman, Gavin},
  title =	 {{LINQ}: Reconciling Object, Relations and {XML} in
                  the {.NET} Framework},
  booktitle =	 {International Conference on Management of Data (SIGMOD)},
  year =	 2006,
  location =	 {Chicago, IL, USA},
  pages =	 {706--706},
  url =		 {http://doi.acm.org/10.1145/1142473.1142552},
  abstract =	 {Many software applications today need to handle data
                  from different data models; typically objects from
                  the host programming language along with the
                  relational and XML data models. The ROX impedance
                  mismatch makes programs awkward to write and hard to
                  maintain.The .NET Language-Integrated Query (LINQ)
                  framework, proposed for the next release of the .NET
                  framework, approaches this problem by defining a
                  pattern of general-purpose standard query operators
                  for traversal, filter, and projection. Based on this
                  pattern, any .NET language can define special query
                  comprehension syntax that is subsequently compiled
                  into these standard operators (our code examples are
                  in VB).Besides the general query operators, the LINQ
                  framework also defines two domain specific APIs that
                  work over XML (XLinq) and relational data (DLinq)
                  respectively. The operators over XML use a
                  lightweight and easy to use in-memory XML
                  representation to provide XQuery-style
                  expressiveness in the host programming language. The
                  operators over relational data provide a simple OR
                  mapping by leveraging remotable queries that are
                  executed directly in the back-end relational store.}
}

@inproceedings{Pfaff-nsdi15,
  author =	 {Pfaff, Ben and Pettit, Justin and Koponen, Teemu and
                  Jackson, Ethan J. and Zhou, Andy and Rajahalme,
                  Jarno and Gross, Jesse and Wang, Alex and Stringer,
                  Jonathan and Shelar, Pravin and Amidon, Keith and
                  Casado, Mart\'{\i}n},
  title =	 {The Design and Implementation of {Open vSwitch}},
  booktitle =	 {Networked Systems Design and Implementation
                  (NSDI)},
  year =	 2015,
  location =	 {Oakland, CA},
  pages =	 {117--130},
  numpages =	 14,
  url =		 {http://dl.acm.org/citation.cfm?id=2789770.2789779},
  abstract =	 {We describe the design and implementation of Open
                  vSwitch, a multi-layer, open source virtual switch
                  for all major hypervisor platforms. Open vSwitch was
                  designed de novo for networking in virtual
                  environments, resulting in major design departures
                  from traditional software switching
                  architectures. We detail the advanced flow
                  classification and caching techniques that Open
                  vSwitch uses to optimize its operations and conserve
                  hypervisor resources. We evaluate Open vSwitch
                  performance, drawing from our deployment experiences
                  over the past seven years of using and improving
                  Open vSwitch.}
}

%%%%%%%% Datalog dialects

@inproceedings{Bravenboer-oopsla09,
  author =	 {Bravenboer, Martin and Smaragdakis, Yannis},
  title =	 {Strictly Declarative Specification of Sophisticated
                  Points-to Analyses},
  booktitle =	 {Conference on Object Oriented Programming
                  Systems Languages and Applications (OOPSLA)},
  year =	 2009,
  location =	 {Orlando, Florida, USA},
  pages =	 {243--262},
  numpages =	 20,
  url =		 {http://doi.acm.org/10.1145/1640089.1640108},
  keywords =	 {DOOP, bdds, datalog, declarative, points-to
                  analysis},
  abstract =	 {We present the DOOP framework for points-to
                  analysis of Java programs. DOOP builds on the idea
                  of specifying pointer analysis algorithms
                  declaratively, using Datalog: a logic-based language
                  for defining (recursive) relations. We carry the
                  declarative approach further than past work by
                  describing the full end-to-end analysis in Datalog
                  and optimizing aggressively using a novel technique
                  specifically targeting highly recursive Datalog
                  programs.  \par As a result, DOOP achieves several
                  benefits, including full order-of-magnitude
                  improvements in runtime. We compare DOOP with Lhotak
                  and Hendren's PADDLE, which defines the state of the
                  art for context-sensitive analyses. For the exact
                  same logical points-to definitions (and,
                  consequently, identical precision) DOOP is more than
                  15x faster than PADDLE for a 1-call-site sensitive
                  analysis of the DaCapo benchmarks, with lower but
                  still substantial speedups for other important
                  analyses. Additionally, DOOP scales to very precise
                  analyses that are impossible with PADDLE and Whaley
                  et al.'s bddbddb, directly addressing open problems
                  in past literature. Finally, our implementation is
                  modular and can be easily configured to analyses
                  with a wide range of characteristics, largely due to
                  its declarativeness.  }
}

@inproceedings{Aref-sigmod15,
  author =	 {Aref, Molham and ten Cate, Balder and Green, Todd
                  J. and Kimelfeld, Benny and Olteanu, Dan and
                  Pasalic, Emir and Veldhuizen, Todd L. and Washburn,
                  Geoffrey},
  title =	 {Design and Implementation of the {LogicBlox} System},
  booktitle =	 {International Conf. on Management of
                  Data (SIGMOD)},
  year =	 2015,
  location =	 {Melbourne, Victoria, Australia},
  pages =	 {1371--1382},
  numpages =	 12,
  url =		 {http://doi.acm.org/10.1145/2723372.2742796},
  keywords =	 {datalog, incremental maintenance, leapfrog triejoin,
                  live programming, logicblox, logiql, predictive
                  analytics, transaction repair},
  abstract =	 {The LogicBlox system aims to reduce the complexity
                  of software development for modern applications
                  which enhance and automate decision-making and
                  enable their users to evolve their capabilities via
                  a ``self-service'' model. Our perspective in this
                  area is informed by over twenty years of experience
                  building dozens of mission-critical enterprise
                  applications that are in use by hundreds of large
                  enterprises across industries such as retail,
                  telecommunications, banking, and government. We
                  designed and built LogicBlox to be the system we
                  wished we had when developing those applications.
                  \par In this paper, we discuss the design
                  considerations behind the LogicBlox system and give
                  an overview of its implementation, highlighting
                  innovative aspects. These include: LogiQL, a unified
                  and declarative language based on Datalog; the use
                  of purely functional data structures; novel join
                  processing strategies; advanced incremental
                  maintenance and live programming facilities; a novel
                  concurrency control scheme; and built-in support for
                  prescriptive and predictive analytics.  }
}

@article{Yang-vldb17,
  author =	 {Yang, Mohan and Shkapsky, Alexander and Zaniolo,
                  Carlo},
  title =	 {Scaling Up the Performance of More Powerful {Datalog}
                  Systems on Multicore Machines},
  journal =	 {The VLDB Journal},
  volume =	 26,
  number =	 2,
  month =	 apr,
  year =	 2017,
  issn =	 {1066-8888},
  pages =	 {229--248},
  numpages =	 20,
  url =		 {https://doi.org/10.1007/s00778-016-0448-z},
  keywords =	 {AND/OR tree, Bottom-up evaluation, Datalog,
                  Multicore, Parallel},
  abstract =	 {Extending RDBMS technology to achieve performance
                  and scalability for queries that are much more
                  powerful than those of SQL-2 has been the goal of
                  deductive database research for more than thirty
                  years. The $$\mathcal {D}e\mathcal {A}\mathcal
                  {L}\mathcal {S}$$DeALS system has made major
                  progress toward this goal, by (1) Datalog extensions
                  that support the more powerful recursive queries
                  needed in advanced applications, and (2) superior
                  performance for both traditional recursive queries
                  and those made possible by the new extensions, while
                  (3) delivering competitive performance with
                  commercial RDBMSs on non-recursive queries. In this
                  paper, we focus on the techniques used to support
                  the in-memory evaluation of Datalog programs on
                  multicore machines. In $$\mathcal {D}e\mathcal
                  {A}\mathcal {L}\mathcal {S}$$DeALS, a Datalog
                  program is represented as an AND/OR tree, and
                  multiple copies of the same AND/OR tree are used to
                  access the tables in the database concurrently
                  during the parallel evaluation. We describe
                  compilation techniques that (1) recognize when the
                  given program is lock-free, (2) transform a locking
                  program into a lock-free program, and (3) find an
                  efficient parallel plan that correctly evaluates the
                  program while minimizing the use of locks and other
                  overhead required for parallel evaluation. Extensive
                  experiments demonstrate the effectiveness of the
                  proposed techniques.}
}

@inproceedings{Arntzenius-icfp16,
  author =	 {Arntzenius, Michael and Krishnaswami, Neelakantan
                  R.},
  title =	 {{Datafun}: A Functional Datalog},
  booktitle =	 {Proceedings of the 21st ACM SIGPLAN International
                  Conference on Functional Programming},
  series =	 {ICFP 2016},
  year =	 2016,
  location =	 {Nara, Japan},
  pages =	 {214--227},
  numpages =	 14,
  url =		 {http://doi.acm.org/10.1145/2951913.2951948},
  keywords =	 {Datalog, Prolog, adjoint logic, denotational
                  semantics, domain-specific languages, functional
                  programming, logic programming, operational
                  semantics, type theory},
  abstract =	 {Datalog may be considered either an unusually
                  powerful query language or a carefully limited logic
                  programming language. Datalog is declarative,
                  expressive, and optimizable, and has been applied
                  successfully in a wide variety of problem
                  domains. However, most use-cases require extending
                  Datalog in an application-specific manner. In this
                  paper we define Datafun, an analogue of Datalog
                  supporting higher-order functional programming. The
                  key idea is to track monotonicity with types. }
}

@inproceedings{Gupta-sigmod93,
  author =	 {Gupta, Ashish and Mumick, Inderpal Singh and
                  Subrahmanian, V. S.},
  title =	 {Maintaining Views Incrementally},
  booktitle =	 {International Conf. on Management of
                  Data (SIGMOD)},
  year =	 1993,
  location =	 {Washington, D.C., USA},
  pages =	 {157--166},
  numpages =	 10,
  url =		 {http://doi.acm.org/10.1145/170035.170066},
  comments =	 {We present incremental evaluation algorithms to
                  compute changes to materialized views in relational
                  and deductive database systems, in response to
                  changes (insertions, deletions, and updates) to the
                  relations. The view definitions can be in SQL or
                  Datalog, and may use UNION, negation, aggregation
                  (e.g. SUM, MIN), linear recursion, and general
                  recursion. We first present a counting algorithm
                  that tracks the number of alternative derivations
                  (counts) for each derived tuple in a view. The
                  algorithm works with both set and duplicate
                  semantics. We present the algorithm for nonrecursive
                  views (with negation and aggregation), and show that
                  the count for a tuple can be computed at little or
                  no cost above the cost of deriving the tuple. The
                  algorithm is optimal in that it computes exactly
                  those view tuples that are inserted or deleted. Note
                  that we store only the number of derivations, not
                  the derivations themselves. We then present the
                  Delete and Rederive algorithm, DRed, for incremental
                  maintenance of recursive views (negation and
                  aggregation are permitted). The algorithm works by
                  first deleting a superset of the tuples that need to
                  be deleted, and then rederiving some of them. The
                  algorithm can also be used when the view definition
                  is itself altered.}
}

@article{Bellomarini-vldb18,
  author =	 {Bellomarini, Luigi and Sallinger, Emanuel and
                  Gottlob, Georg},
  title =	 {The {Vadalog} System: {Datalog}-based Reasoning for
                  Knowledge Graphs},
  journal =	 {Proc. VLDB Endow.},
  issue_date =	 {May 2018},
  volume =	 11,
  number =	 9,
  month =	 may,
  year =	 2018,
  pages =	 {975--987},
  url =		 {https://doi.org/10.14778/3213880.3213888},
  abstract =	 {Over the past years, there has been a resurgence of
                  Datalog-based systems in the database community as
                  well as in industry. In this context, it has been
                  recognized that to handle the complex
                  knowledge-based scenarios encountered today, such as
                  reasoning over large knowledge graphs, Datalog has
                  to be extended with features such as existential
                  quantification. Yet, Datalog-based reasoning in the
                  presence of existential quantification is in general
                  undecidable. Many efforts have been made to define
                  decidable fragments. Warded Datalog+/- is a very
                  promising one, as it captures PTIME complexity while
                  allowing ontological reasoning. Yet so far, no
                  implementation of Warded Datalog+/- was
                  available. In this paper we present the Vadalog
                  system, a Datalog-based system for performing
                  complex logic reasoning tasks, such as those
                  required in advanced knowledge graphs. The Vadalog
                  system is Oxford's contribution to the VADA research
                  programme, a joint effort of the universities of
                  Oxford, Manchester and Edinburgh and around 20
                  industrial partners. As the main contribution of
                  this paper, we illustrate the first implementation
                  of Warded Datalog+/-, a high-performance Datalog+/-
                  system utilizing an aggressive termination control
                  strategy. We also provide a comprehensive
                  experimental evaluation.}
}

@incollection{Borraz-Sanchez-dlp18,
  author =	 {Borraz-S\'{a}nchez, Conrado and Klabjan, Diego and
                  Pasalic, Emir and Aref, Molham},
  title =	 {{SolverBlox}: Algebraic Modeling in {Datalog}},
  booktitle =	 {Declarative Logic Programming},
  editor =	 {Kifer, Michael and Liu, Yanhong Annie},
  year =	 2018,
  isbn =	 {978-1-97000-199-0},
  pages =	 {331--354},
  url =		 {https://doi.org/10.1145/3191315.3191322},
  abstract =	 {Datalog is a deductive query language for relational
                  databases. We introduce LogiQL, a language based on
                  Datalog and show how it can be used to specify
                  mixed integer linear optimization models and solve
                  them. Unlike pure algebraic modeling languages,
                  LogiQL allows the user to both specify models, and
                  manipulate and transform the inputs and outputs of
                  the models. This is an advantage over conventional
                  optimization modeling languages that rely on reading
                  data via plug-in tools or importing data from
                  external sources via files. In this chapter, we give
                  a brief overview of LogiQL and describe two mixed
                  integer programming case studies: a
                  production-transportation model and a formulation of
                  the traveling salesman problem.}
}

@inproceedings{Green-pods15,
  author =	 {Green, Todd J.},
  title =	 {{LogiQL}: A Declarative Language for Enterprise
                  Applications},
  booktitle =	 {Symposium on Principles of Database Systems (PODS)},
  year =	 2015,
  location =	 {Melbourne, Victoria, Australia},
  pages =	 {59--64},
  numpages =	 6,
  url =		 {http://doi.acm.org/10.1145/2745754.2745780},
  keywords =	 {datalog, incremental maintenance, leapfrog triejoin,
                  logicblox, logiql, transaction repair},
  abstract =	 {We give an overview of LogiQL, a declarative,
                  Datalog based language for data management and
                  analytics, along with techniques for efficient
                  evaluation of LogiQL programs, emphasizing
                  theoretical foundations when possible. These
                  techniques include: leapfrog triejoin and its
                  associated incremental maintenance algorithm, which
                  we measure against appropriate optimality criteria;
                  purely-functional data structures, which provide
                  elegant versioning and branching capabilities that
                  are indispensable for LogiQL; and transaction
                  repair, a lock-free concurrency control scheme that
                  uses LogiQL, incremental maintenance, and
                  purely-functional data structures as essential
                  ingredients.}
}

@article{Barany-tods17,
  author =	 {B\'{a}r\'{a}ny, Vince and Cate, Balder Ten and
                  Kimelfeld, Benny and Olteanu, Dan and Vagena,
                  Zografoula},
  title =	 {Declarative Probabilistic Programming with Datalog},
  journal =	 {ACM Trans. Database Syst.},
  issue_date =	 {November 2017},
  volume =	 42,
  number =	 4,
  month =	 oct,
  year =	 2017,
  pages =	 {22:1--22:35},
  articleno =	 22,
  numpages =	 35,
  url =		 {http://doi.acm.org/10.1145/3132700},
  keywords =	 {Chase, Datalog, declarative, probabilistic
                  programming, probability measure space},
  abstract =	 { Probabilistic programming languages are used for
                  developing statistical models. They typically
                  consist of two components: a specification of a
                  stochastic process (the prior) and a specification
                  of observations that restrict the probability space
                  to a conditional subspace (the posterior). Use cases
                  of such formalisms include the development of
                  algorithms in machine learning and artificial
                  intelligence.  In this article, we establish a
                  probabilistic-programming extension of Datalog that,
                  on the one hand, allows for defining a rich family
                  of statistical models, and on the other hand retains
                  the fundamental properties of declarativity. Our
                  proposed extension provides mechanisms to include
                  common numerical probability functions; in
                  particular, conclusions of rules may contain values
                  drawn from such functions. The semantics of a
                  program is a probability distribution over the
                  possible outcomes of the input database with respect
                  to the program. Observations are naturally
                  incorporated by means of integrity constraints over
                  the extensional and intensional relations. The
                  resulting semantics is robust under different chases
                  and invariant to rewritings that preserve logical
                  equivalence.}
}

@article{loo-cacm09,
  title =	 {Declarative networking},
  author =	 {Loo, Boon Thau and Condie, Tyson and Garofalakis,
                  Minos and Gay, David E and Hellerstein, Joseph M and
                  Maniatis, Petros and Ramakrishnan, Raghu and Roscoe,
                  Timothy and Stoica, Ion},
  journal =	 {Communications of the ACM},
  volume =	 52,
  number =	 11,
  pages =	 {87--95},
  year =	 2009,
  abstract =	 {Declarative Networking is a programming methodology
                  that enables developers to concisely specify network
                  protocols and services, which are directly compiled
                  to a dataflow framework that executes the
                  specifications. This paper provides an introduction
                  to basic issues in declarative networking, including
                  language design, optimization, and dataflow
                  execution. We present the intuition behind
                  declarative programming of networks, including roots
                  in Datalog, extensions for networked environments,
                  and the semantics of long-running queries over
                  network state. We focus on a sublanguage we call
                  Network Datalog (NDlog), including execution
                  strategies that provide crisp eventual consistency
                  semantics with significant flexibility in
                  execution. We also describe a more general language
                  called Overlog, which makes some compromises between
                  expressive richness and semantic guarantees. We
                  provide an overview of declarative network
                  protocols, with a focus on routing protocols and
                  overlay networks. Finally, we highlight related work
                  in declarative networking, and new declarative
                  approaches to related problems.}
}

@article{Seo-vldb13,
  author =	 {Seo, Jiwon and Park, Jongsoo and Shin, Jaeho and
                  Lam, Monica S.},
  title =	 {Distributed {Socialite}: A {Datalog}-based Language
                  for Large-scale Graph Analysis},
  journal =	 {Proc. VLDB Endow.},
  issue_date =	 {September 2013},
  volume =	 6,
  number =	 14,
  month =	 sep,
  year =	 2013,
  issn =	 {2150-8097},
  pages =	 {1906--1917},
  url =		 {http://dx.doi.org/10.14778/2556549.2556572},
  abstract =	 { Large-scale graph analysis is becoming important
                  with the rise of world-wide social network
                  services. Recently in SociaLite, we proposed
                  extensions to Datalog to efficiently and succinctly
                  implement graph analysis programs on sequential
                  machines. This paper describes novel extensions and
                  optimizations of SociaLite for parallel and
                  distributed executions to support large-scale graph
                  analysis.  With distributed SociaLite, programmers
                  simply annotate how data are to be distributed, then
                  the necessary communication is automatically
                  inferred to generate parallel code for cluster of
                  multi-core machines. It optimizes the evaluation of
                  recursive monotone aggregate functions using a delta
                  stepping technique. In addition, approximate
                  computation is supported in SociaLite, allowing
                  programmers to trade off accuracy for less time and
                  space.  We evaluated SociaLite with six core graph
                  algorithms used in many social network analyses. Our
                  experiment with 64 Amazon EC2 8-core instances shows
                  that SociaLite programs performed within a factor of
                  two with respect to ideal weak scaling. Compared to
                  optimized Giraph, an open-source alternative of
                  Pregel, SociaLite programs are 4 to 12 times faster
                  across benchmark algorithms, and 22 times more
                  succinct on average.  As a declarative query
                  language, SociaLite, with the help of a compiler
                  that generates efficient parallel and approximate
                  code, can be used easily to create many social apps
                  that operate on large-scale distributed graphs.  }
}

@incollection{Maier-book18,
  author =	 {Maier, David and Tekle, K. Tuncay and Kifer, Michael
                  and Warren, David S.},
  title =	 {Datalog: Concepts, History, and Outlook},
  booktitle =	 {Declarative Logic Programming},
  editor =	 {Kifer, Michael and Liu, Yanhong Annie},
  year =	 2018,
  isbn =	 {978-1-97000-199-0},
  numpages =	 98,
  url =		 {https://doi.org/10.1145/3191315.3191317},
  abstract =	 {This chapter is a survey of the history and the
                  main concepts of Datalog. We begin with an
                  introduction to the language and its use for
                  database definition and querying. We then look back
                  at the threads from logic languages, databases,
                  artificial intelligence, and expert systems that led
                  to the emergence of Datalog and reminiscence about
                  the origin of the name. We consider the interaction
                  of recursion with other common data language
                  features, such as negation and aggregation, and look
                  at other extensions, such as constraints, updates,
                  and object-oriented features.We provide an overview
                  of the main approaches to Datalog evaluation and
                  their variants, then recount some early
                  implementations of Datalog and of similar deductive
                  database systems.We speculate on the reasons for the
                  decline in the interest in the language in the 1990s
                  and the causes for its later resurgence in a number
                  of application areas.We conclude with several
                  examples of current systems based on or supporting
                  Datalog and briefly examine the performance of some
                  of them.}
}

%%%% incremental computation

@PhdThesis{acar-05,
  author =	 {Umut Acar},
  title =	 {Self-adjusting computation},
  school =	 {Carnegie Mellon University},
  year =	 2005,
}

@inproceedings{Carlsson-icfp02,
  author =	 {Carlsson, Magnus},
  title =	 {Monads for Incremental Computing},
  booktitle =	 {International Conference on Functional Programming
                  (ICFP '02)},
  year =	 2002,
  location =	 {Pittsburgh, PA, USA},
  pages =	 {26--35},
  url =		 {http://doi.acm.org/10.1145/581478.581482},
  abstract =	 {This paper presents a monadic approach to
                  incremental computation, suitable for purely
                  functional languages such as Haskell. A program that
                  uses incremental computation is able to perform an
                  incremental amount of computation to accommodate for
                  changes in input data. Recently, Acar, Blelloch and
                  Harper presented a small Standard ML library that
                  supports efficient, high-level incremental
                  computations [1]. Here, we present a monadic variant
                  of that library, written in Haskell extended with
                  first-class references. By using monads, not only
                  are we able to provide a purely functional interface
                  to the library, the types also enforce "correct
                  usage" without having to resort to any type-system
                  extension. We also find optimization opportunities
                  based on standard monadic combinators.This is an
                  exercise in putting to work monad transformers with
                  environments, references, and continuations.}
}

@inproceedings{Demetrescu-oopsla11,
  author =	 {Demetrescu, Camil and Finocchi, Irene and Ribichini,
                  Andrea},
  title =	 {Reactive Imperative Programming with Dataflow
                  Constraints},
  booktitle =	 {International Conference on Object Oriented
                  Programming Systems Languages and Applications
                  (OOPSLA '11)},
  year =	 2011,
  location =	 {Portland, Oregon, USA},
  pages =	 {407--426},
  numpages =	 20,
  url =		 {http://doi.acm.org/10.1145/2048066.2048100},
  keywords =	 {constraint solving, data structure repair, dataflow
                  programming, imperative programming, incremental
                  computation, observer design pattern, reactive
                  programming},
  abstract =	 {Dataflow languages provide natural support for
                  specifying constraints between objects in dynamic
                  applications, where programs need to react
                  efficiently to changes of their
                  environment. Researchers have long investigated how
                  to take advantage of dataflow constraints by
                  embedding them into procedural languages. Previous
                  mixed imperative/dataflow systems, however, require
                  syntactic extensions or libraries of ad hoc data
                  types for binding the imperative program to the
                  dataflow solver. In this paper we propose a novel
                  approach that smoothly combines the two paradigms
                  without placing undue burden on the programmer. In
                  our framework, programmers can define ordinary
                  statements of the imperative host language that
                  enforce constraints between objects stored in
                  special memory locations designated as
                  "reactive". Differently from previous approaches,
                  reactive objects can be of any legal type in the
                  host language, including primitive data types,
                  pointers, arrays, and structures. Statements
                  defining constraints are automatically re-executed
                  every time their input memory locations change,
                  letting a program behave like a spreadsheet where
                  the values of some variables depend upon the values
                  of other variables. The constraint solving mechanism
                  is handled transparently by altering the semantics
                  of elementary operations of the host language for
                  reading and modifying objects. We provide a formal
                  semantics and describe a concrete embodiment of our
                  technique into C/C++, showing how to implement it
                  efficiently in conventional platforms using
                  off-the-shelf compilers. We discuss common coding
                  idioms and relevant applications to reactive
                  scenarios, including incremental computation,
                  observer design pattern, and data structure
                  repair. The performance of our implementation is
                  compared to ad hoc problem-specific change
                  propagation algorithms, as well as to
                  language-centric approaches such as self-adjusting
                  computation and subject/observer communication
                  mechanisms, showing that the proposed approach is
                  efficient in practice.}
}

@InProceedings{harkes-ecoop16,
  author =	 {Daco C. Harkes and Danny M. Groenewegen and Eelco
                  Visser},
  title =	 {{IceDust}: Incremental and Eventual Computation of
                  Derived Values in Persistent Object Graphs},
  booktitle =	 {European Conference on Object-Oriented
                  Programming (ECOOP 2016)},
  pages =	 {11:1--11:26},
  series =	 {Leibniz International Proceedings in Informatics
                  (LIPIcs)},
  ISBN =	 {978-3-95977-014-9},
  ISSN =	 {1868-8969},
  year =	 2016,
  volume =	 56,
  editor =	 {Shriram Krishnamurthi and Benjamin S. Lerner},
  publisher =	 {Schloss Dagstuhl--Leibniz-Zentrum fuer Informatik},
  address =	 {Dagstuhl, Germany},
  URL =		 {http://drops.dagstuhl.de/opus/volltexte/2016/6105},
  doi =		 {10.4230/LIPIcs.ECOOP.2016.11},
  annote =	 {Keywords: Incremental Computing, Data Modeling,
                  Domain Specific Language},
  abstract =	 {Derived values are values calculated from base
                  values. They can be expressed in object-oriented
                  languages by means of getters calculating the
                  derived value, and in relational or logic databases
                  by means of (materialized) views. However, switching
                  to a different calculation strategy (for example
                  caching) in object-oriented programming requires
                  invasive code changes, and the databases limit
                  expressiveness by disallowing recursive
                  aggregation. In this paper, we present IceDust, a
                  data modeling language for expressing derived
                  attribute values without committing to a calculation
                  strategy. IceDust provides three strategies for
                  calculating derived values in persistent object
                  graphs: Calculate-on-Read, Calculate-on-Write, and
                  Calculate-Eventually. We have developed a path-based
                  abstract interpretation that provides static
                  dependency analysis to generate code for these
                  strategies. Benchmarks show that different
                  strategies perform better in different scenarios. In
                  addition we have conducted a case study that
                  suggests that derived value calculations of systems
                  used in practice can be expressed in IceDust.}
}

@article{ahmad-vldb12,
  title =	 {{DBtoaster}: Higher-order delta processing for
                  dynamic, frequently fresh views},
  author =	 {Ahmad, Yanif and Kennedy, Oliver and Koch, Christoph
                  and Nikolic, Milos},
  journal =	 {Proceedings of the VLDB Endowment},
  volume =	 5,
  number =	 10,
  pages =	 {968--979},
  year =	 2012,
  publisher =	 {VLDB Endowment},
  abstract =	 {Applications ranging from algorithmic trading to
                  scientific data analysis require realtime analytics
                  based on views over databases receiving thousands of
                  updates each second. Such views have to be kept
                  fresh at millisecond latencies. At the same time,
                  these views have to support classical SQL, rather
                  than window semantics, to enable applications that
                  combine current with aged or historical data.  In
                  this article, we present the DBToaster system, which
                  keeps materialized views of standard SQL queries
                  continu- ously fresh as data changes very
                  rapidly. This is achieved by a combination of
                  aggressive compilation techniques and DBToaster's
                  original recursive finite differencing technique
                  which materializes a query and a set of its
                  higher-order deltas as views. These views support
                  each other's incremental maintenance, leading to a
                  reduced overall view maintenance cost. This article
                  provides a first description of the complete system,
                  and a thorough experimental evaluation of its
                  performance. DBToaster supports tens of thousands of
                  complete view refreshes a second for a wide range of
                  queries.}
}

@inproceedings{Hammer-pldi14,
  author =	 {Hammer, Matthew A. and Phang, Khoo Yit and Hicks,
                  Michael and Foster, Jeffrey S.},
  title =	 {{Adapton}: Composable, Demand-driven Incremental
                  Computation},
  booktitle =	 {SIGPLAN Conference on Programming Language Design
                  and Implementation (PLDI '14)},
  year =	 2014,
  location =	 {Edinburgh, United Kingdom},
  pages =	 {156--166},
  numpages =	 11,
  url =		 {http://doi.acm.org/10.1145/2594291.2594324},
  keywords =	 {call-by-push-value (CBPV), demanded computation
                  graph (DCG) incremental computation, laziness,
                  self-adjusting computation, thunks},
  abstract =	 {Many researchers have proposed programming languages
                  that support incremental computation (IC), which
                  allows programs to be efficiently re-executed after
                  a small change to the input. However, existing
                  implementations of such languages have two important
                  drawbacks. First, recomputation is oblivious to
                  specific demands on the program output; that is, if
                  a program input changes, all dependencies will be
                  recomputed, even if an observer no longer requires
                  certain outputs. Second, programs are made
                  incremental as a unit, with little or no support for
                  reusing results outside of their original context,
                  e.g., when reordered.  \par To address these
                  problems, we present \lambda_{ic}^{cdd}, a core
                  calculus that applies a demand-driven semantics to
                  incremental computation, tracking changes in a
                  hierarchical fashion in a novel demanded computation
                  graph. \lambda_{ic}^{cdd} also formalizes an
                  explicit separation between inner, incremental
                  computations and outer observers. This combination
                  ensures \lambda_{ic}^{cdd} programs only recompute
                  computations as demanded by observers, and allows
                  inner computations to be reused more liberally. We
                  present Adapton, an OCaml library implementing
                  \lambda_{ic}^{cdd}. We evaluated Adapton on a range
                  of benchmarks, and found that it provides reliable
                  speedups, and in many cases dramatically outperforms
                  state-of-the-art IC approaches.}
}

@inproceedings{Szabo-ase016,
  author =	 {Szab\'{o}, Tam\'{a}s and Erdweg, Sebastian and
                  Voelter, Markus},
  title =	 {{IncA}: A {DSL} for the Definition of Incremental
                  Program Analyses},
  booktitle =	 {International Conference on Automated Software
                  Engineering (ASE)},
  year =	 2016,
  location =	 {Singapore, Singapore},
  pages =	 {320--331},
  numpages =	 12,
  url =		 {http://doi.acm.org/10.1145/2970276.2970298},
  keywords =	 {Domain-specific Language, Incremental Computation,
                  Language Workbench, Static Analysis},
  abstract =	 {Program analyses support software developers, for
                  example, through error detection, code-quality
                  assurance, and by enabling compiler optimizations
                  and refactorings. To provide real-time feedback to
                  developers within IDEs, an analysis must run
                  efficiently even if the analyzed code base is large.
                  \par To achieve this goal, we present a
                  domain-specific language called IncA for the
                  definition of efficient incremental program analyses
                  that update their result as the program
                  changes. IncA compiles analyses into graph patterns
                  and relies on existing incremental matching
                  algorithms. To scale IncA analyses to large
                  programs, we describe optimizations that reduce
                  caching and prune change propagation. Using IncA, we
                  have developed incremental control flow and
                  points-to analysis for C, well-formedness checks for
                  DSLs, and 10 FindBugs checks for Java. Our
                  evaluation demonstrates significant speedups for all
                  analyses compared to their non-incremental
                  counterparts.}
}

@inproceedings{zhao-icmd17,
  title =	 {Incremental View Maintenance over Array Data},
  author =	 {Zhao, Weijie and Rusu, Florin and Dong, Bin and Wu,
                  Kesheng and Nugent, Peter},
  booktitle =	 {ACM International Conference on Management of Data
                  (ICMD)},
  pages =	 {139--154},
  year =	 2017,
  organization = {ACM},
  abstract =	 {Science applications are producing an
                  ever-increasing volume of multi-dimensional data
                  that are mainly processed with distributed array
                  databases. These raw arrays are "cooked" into
                  derived data products using complex pipelines that
                  are time-consuming. As a result, derived data
                  products are released infrequently and become stale
                  soon thereafter. In this paper, we introduce
                  materialized array views as a database construct for
                  scientific datap roducts. We model the "cooking"
                  process as incremental view maintenance with batch
                  updates and give a three-stage heuristic that finds
                  effective update plans. Moreover, the heuristic
                  repartitions the array and the view continuously
                  based on a window of past updates as a side-effect
                  of view maintenance without overhead. We design an
                  analytical cost model for integrating materialized
                  array views in queries. A thorough experimental
                  evaluation confirms that the proposed techniques
                  are able to incrementally maintain a real
                  astronomical data product in a production
                  environment.}
}

@inproceedings{IncA,
  author =       {Szab\'{o}, Tam\'{a}s and Bergmann, G\'{a}bor and
                  Erdweg, Sebastian and Voelter, Markus},
  title =        {Incrementalizing Lattice-based Program Analyses in
                  {Datalog}},
  booktitle =    {Object-Oriented Programming, Systems, Languages and Applications (OOPSLA)},
  month =        oct,
  address =      {Boston, MA},
  year =         2018
}

@inproceedings{saha-iclp03,
  title =        {Incremental evaluation of tabled logic programs},
  author =       {Saha, Diptikalyan and Ramakrishnan, C. R.},
  booktitle =    {International Conference on Logic Programming (ICLP)},
  pages =        {392--406},
  year =         2003,
  abstract =     {Tabling has emerged as an important evaluation
                  technique in logic programming. Currently, changes
                  to a program (due to addition/deletion of
                  rules/facts) after query evaluation compromise the
                  completeness and soundness of the answers in the
                  tables. This paper presents incremental algorithms
                  for maintaining the freshness of tables upon
                  addition or deletion of facts. Our algorithms
                  improve on existing materialized view maintenance
                  algorithms and can be easily extended to handle
                  changes to rules as well. We describe an
                  implementation of our algorithms in the XSB tabled
                  logic programming system. Preliminary experimental
                  results indicate that our incremental algorithms are
                  efficient. Our implementation represents a first
                  step towards building a practical system for
                  incremental evaluation of tabled logic programs.}
}

@incollection{dong-dbpl94,
  title =        {First-order incremental evaluation of {Datalog}
                  queries},
  author =       {Dong, Guozhu and Su, Jianwen},
  booktitle =    {Database Programming Languages (DBPL)},
  pages =        {295--308},
  year =         1994,
  address =      {London, UK},
  abstract =     {We consider the problem of repeatedly evaluating the
                  same (computationally expensive) query to a database
                  that is being updated between successive query
                  requests. In this situation, it should be possible
                  to use the difference between successive database
                  states and the answer to the query in one state to
                  reduce the cost of evaluating the query in the next
                  state. We use first-order (i.e., nonrecursive)
                  queries to compute the differences, and call this
                  process first-order incremental query
                  evaluation. \par After formalizing the notion of a
                  first-order incremental query evaluation system
                  (FOIES), we present an earlier result that every
                  regular chain query (which are associated with chain
                  Datalog programs) has a FOIES. We then extend this
                  result to the situations (1) where regular chain
                  queries are augmented with binary conjunctive
                  queries with unions, defining nonrecursive
                  predicates, that have “cartesian-closed increment”
                  (CCI), and (2) where insertions for regular queries
                  are unbounded but “cartesian-closed” sets. The
                  notion of CCI is essential in proving (1). We also
                  studied the decision problem for CCI. It is shown
                  that the CCI property is decidable for binary
                  conjunctive queries with unions but undecidable for
                  recursive queries and for relational calculus
                  queries. We also consider a subclass of FOIES,
                  “space-free” FOIES, which use no additional facts in
                  the incremental evaluation. We show that there are
                  queries which have FOIES but not space-free FOIES
                  and that it is undecidable if a Datalog query has a
                  space-free FOIES. Finally, many questions remain
                  open. For example, does there exist a Datalog query
                  which does not have any FOIES?}
}

@misc{boag-xquery02,
  title =        {{XQuery} 1.0: An {XML} query language},
  author =       {Boag, Scott and Chamberlin, Don and Fern{\'a}ndez,
                  Mary F and Florescu, Daniela and Robie, Jonathan and
                  Sim{\'e}on, J{\'e}r{\^o}me and \c{S}tef\u{a}nescu, Mugur},
  year =         2002,
  howpublished = {\url{http://www.w3.org/TR/xquery}},
  note =         {Retrieved March 2019}
}

@inproceedings{fegaras-sigmod95,
  title =        {Towards an effective calculus for object query
                  languages},
  author =       {Fegaras, Leonidas and Maier, David},
  booktitle =    {ACM SIGMOD Record},
  volume =       24,
  number =       2,
  pages =        {47--58},
  year =         1995,
  organization = {ACM},
  abstract =     {We define a standard of effectiveness for a database
                  calculus relative to a query language. Effectiveness
                  judges suitability to serve as a processing
                  framework for the query language, and comprises
                  aspects of coverage, manipulability and efficient
                  evaluation. We present the monoid calculus, and
                  argue its effectiveness for object-oriented query
                  languages, exemplified by OQL of ODMG-93. The monoid
                  calculus readily captures such features as multiple
                  collection types, aggregations, arbitrary
                  composition of type constructors and nested query
                  expressions. We also show how to extend the monoid
                  calculus to deal with vectors and arrays in more
                  expressive ways than current query languages do, and
                  illustrate how it can handle identity and updates.},
  url =          {https://dl.acm.org/citation.cfm?id=223789}
}

@Article{gupta-deb95,
  author =       {Ashish Gupta and Inderpal Singh Mumick},
  title =        {Maintenance of Materialized Views: Problems,
                  Techniques, and Applications},
  journal =      {IEEE Data Eng. Bull},
  year =         1995,
  volume =       18,
  number =       2,
  pages =        {3--18},
  url =          {\url{http://sites.computer.org/debull/95JUN-CD.pdf}},
  comments =     {A survey}
}

@InProceedings{motik-aaai15,
  author =       {Boris Motik and Yavor Nenov and Robert Piro and Ian
                  Horrocks},
  title =        {Incremental Update of {Datalog} Materialisation: The
                  Backward/Forward Algorithm},
  booktitle =    {AAAI Conference on Artifficial Intelligence (AAAI)},
  year =         2015,
  pages =        {1560--1569},
  month =        {January 25--30},
  address =      {Austin, TX},
  url =          {http://dl.acm.org/citation.cfm?id=2886521.2886537},
  abstract =     {Datalog-based systems often materialise all
                  consequences of a datalog program and the data,
                  allowing users’ queries to be evaluated directly in
                  the materialisation. This process, however, can be
                  computationally intensive, so most systems update
                  the materialisation incrementally when input data
                  changes. We argue that existing solutions, such as
                  the well-known Delete/Rederive (DRed) algorithm, can
                  be inefficient in cases when facts have many
                  alternate derivations. As a possible remedy, we
                  propose a novel Backward/Forward (B/F) algorithm
                  that tries to reduce the amount of work by a
                  combination of backward and forward chaining. In our
                  evaluation, the B/F algorithm was several orders of
                  magnitude more efficient than the DRed algorithm on
                  some inputs, and it was never significantly less
                  efficient.}
}

@InProceedings{liu-icde09,
  author =       {M. Liu and N. E. Taylor and W. Zhou and Z. G. Ives and
                  B. T. Loo},
  title =        {Recursive Computation of Regions and Connectivity in
                  Networks},
  booktitle =    {International Conference on Data Engineering (ICDE)},
  year =         2009,
  pages =        {1108--1119},
  month =        {29 March--2 April},
  address =      {Shanghai, China},
  url =          {https://doi.org/10.1109/ICDE.2009.36},
  abstract =     {In recent years, the data management community has
                  begun to consider situations in which data access is
                  closely tied to network routing and distributed
                  acquisition: examples include, sensor networks that
                  execute queries about reachable nodes or contiguous
                  regions, declarative networks that maintain
                  information about shortest paths and reachable
                  endpoints, and distributed and peer-to-peer stream
                  systems that detect associations (e.g., transitive
                  relationships) among data at the distributed
                  sources. In each case, the fundamental operation is
                  to maintain a view over dynamic network state. This
                  view is typically distributed, recursive, and may
                  contain aggregation, e.g., describing transitive
                  connectivity, shortest paths, least costly paths, or
                  region membership. Surprisingly, solutions to
                  computing such views are often domain-specific,
                  expensive, and incomplete. In this paper, we recast
                  the problem as one of incremental recursive view
                  maintenance in the presence of distributed streams
                  of updates to tuples: new stream data becomes insert
                  operations and tuple expirations become
                  deletions. We develop a set of techniques that
                  maintain compact information about tuple
                  derivability or data provenance. We complement this
                  with techniques to reduce communication: aggregate
                  selections to prune irrelevant aggregation tuples,
                  provenance-aware operators that can determine when
                  tuples are no longer derivable and remove them from
                  their state, and shipping operators that greatly
                  reduce the tuple and provenance information being
                  propagated while still maintaining correct
                  answers. We validate our work in a distributed
                  setting with sensor and network router queries,
                  showing significant gains in communication overhead
                  without sacrificing performance.}
}

repository: vmware/differential-datalog

repo_name: vmware/differential-datalog

gha_language: Java


text:
SRCDATE = "20200319"

require hd-partitions.inc

SRC_URI[sha256sum] = "0a87c7a9708bd801f2cecedb4799f39469dcbd83936dbed3b57dba7883efea0d"

COMPATIBLE_MACHINE = "hd60"

repository: neutrino-hd/meta-hisilicon

repo_name: neutrino-hd/meta-hisilicon

branch_name: refs/heads/dunfell


repository: theshying/element-admin-pro

repo_name: theshying/element-admin-pro

gha_language: Vue


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repository: NoiceDev/Portfolio-Website

repo_name: NoiceDev/Portfolio-Website


text:
@INPROCEEDINGS{oh2012visapp,
	author={Seon Ho Oh and Soon Ki Jung},
	booktitle={Computer Vision Theory and Applications (VISAPP 2012), International Conference on},
	title={A Great Circle Arc Detector in Equirectangular Images},
	year={2012},
	month={Feb.},
	pages={346-351},
	location = {Rome, Italy},
	keywords={Line Segment Detection, Equirectangular Images, Great Circle Arc Detection, Number of False Alarms},
	doi={10.5220/0003856303460351},
}


text:
@inproceedings{shuangyi_yan_data-driven_2018,
 abstract = {5G, IoT and other emerging network applications drive the future optical network to be more flexible and dynamic. Fully awareness of current network status is critical for better network programming in short timescale. In this paper, the centralized network database with network monitoring data and network configuration information enables network analytics application to support the future dynamic and programmable optical network.},
 author = {Shuangyi Yan and Reza Nejabati and Dimitra Simeonidou},
 booktitle = {ONDM 2018},
 date = {2018-05-15},
 eventtitle = {Optical Network Design and Modelling},
 location = {Dublin},
 pages = {234--238},
 title = {Data-Driven Network Analytics and Network Optimisation in SDN-Based Programmable Optical Networks}
}


text:
@inproceedings{rajaei_intensity-only_2016,
 abstract = {In this paper, the problem of compressive imaging is addressed using natural randomization by means of a multiply scattering medium. To utilize the medium in this way, its corresponding transmission matrix must be estimated. For calibration purposes, we use a digital micromirror device (DMD) as a simple, cheap, and high-resolution binary intensity modulator. We propose a phase retrieval algorithm which is well adapted to intensity-only measurements on the camera, and to the input binary intensity patterns, both to estimate the complex transmission matrix as well as image reconstruction. We demonstrate promising experimental results for the proposed double phase retrieval algorithm using the MNIST dataset of handwritten digits as example images.},
 author = {Rajaei, B. and Tramel, E. W. and Gigan, S. and Krzakala, F. and Daudet, L.},
 booktitle = {2016 IEEE International Conference on Acoustics, Speech and Signal Processing (ICASSP)},
 doi = {10.1109/ICASSP.2016.7472439},
 file = {IEEE Xplore Abstract Record:/Users/florentkrzakala/Zotero/storage/E2RD9BLC/7472439.html:text/html;Submitted Version:/Users/florentkrzakala/Zotero/storage/QHPZ7PM9/Rajaei et al. - 2016 - Intensity-only optical compressive imaging using a.pdf:application/pdf},
 keywords = {approximate message passing, Calibration, camera, cameras, Cameras, complex transmission matrix estimation, compressed sensing, digital micromirror device, DMD, double phase retrieval approach, handwritten digits, high-resolution binary intensity modulator, image reconstruction, Image reconstruction, image resolution, image retrieval, input binary intensity patterns, intensity modulation, intensity-only measurements, intensity-only optical compressive imaging, matrix algebra, micromirrors, MNIST dataset, multiply scattering material, natural randomization, optical information processing, optical sensors, Optical sensors, Phase measurement, Scattering},
 month = {March},
 pages = {4054--4058},
 title = {Intensity-only optical compressive imaging using a multiply scattering material and a double phase retrieval approach},
 year = {2016}
}

repository: krzakala/academic-kickstart

repo_name: krzakala/academic-kickstart