<?xml version="1.0" encoding="utf-8"?>
<?xml-stylesheet type="text/xsl" href="style/detail_T.xsl"?>
<bibitem type="J">   <ARLID>0573803</ARLID> <utime>20240402214200.6</utime><mtime>20230724235959.9</mtime>   <SCOPUS>85165544597</SCOPUS> <WOS>001058204600001</WOS>  <DOI>10.1016/j.ijar.2023.108984</DOI>           <title language="eng" primary="1">Computing the decomposable entropy of belief-function graphical models</title>  <specification> <page_count>21 s.</page_count> <media_type>P</media_type> </specification>   <serial><ARLID>cav_un_epca*0256774</ARLID><ISSN>0888-613X</ISSN><title>International Journal of Approximate Reasoning</title><part_num/><part_title/><volume_id>161</volume_id><volume/><publisher><place/><name>Elsevier</name><year/></publisher></serial>    <keyword>Dempster-Shafer theory of belief functions</keyword>   <keyword>Decomposable entropy</keyword>   <keyword>Belief-function directed graphical models</keyword>   <keyword>Belief-function undirected graphical models</keyword>    <author primary="1"> <ARLID>cav_un_auth*0101118</ARLID> <name1>Jiroušek</name1> <name2>Radim</name2> <institution>UTIA-B</institution> <full_dept language="cz">Matematická teorie rozhodování</full_dept> <full_dept language="eng">Department of Decision Making Theory</full_dept> <department language="cz">MTR</department> <department language="eng">MTR</department> <full_dept>Department of Decision Making Theory</full_dept> <fullinstit>Ústav teorie informace a automatizace AV ČR, v. v. i.</fullinstit> </author> <author primary="0"> <ARLID>cav_un_auth*0216188</ARLID> <name1>Kratochvíl</name1> <name2>Václav</name2> <institution>UTIA-B</institution> <full_dept language="cz">Matematická teorie rozhodování</full_dept> <full_dept>Department of Decision Making Theory</full_dept> <department language="cz">MTR</department> <department>MTR</department> <full_dept>Department of Decision Making Theory</full_dept> <country>CZ</country> <fullinstit>Ústav teorie informace a automatizace AV ČR, v. v. i.</fullinstit> </author> <author primary="0"> <ARLID>cav_un_auth*0275452</ARLID> <name1>Shenoy</name1> <name2>P. P.</name2> <country>US</country> </author>   <source> <url>http://library.utia.cas.cz/separaty/2023/MTR/jirousek-0573803.pdf</url> </source> <source> <url>https://www.sciencedirect.com/science/article/pii/S0888613X23001159?via%3Dihub</url>  </source>        <cas_special> <project> <project_id>GA21-07494S</project_id> <agency>GA ČR</agency> <country>CZ</country> <ARLID>cav_un_auth*0430801</ARLID> </project>  <abstract language="eng" primary="1">In 2018, Jiroušek and Shenoy proposed a definition of entropy for Dempster-Shafer (D-S) belief functions called decomposable entropy (d-entropy). This paper provides an algorithm for computing the d-entropy of directed graphical D-S belief function models. We illustrate the algorithm using Almond's Captain's Problem example. For belief function undirected graphical models, assuming that the set of belief functions in the model is non-informative, the belief functions are distinct. We illustrate this using Haenni-Lehmann's Communication Network problem. As the joint belief function for this model is quasi-consonant, it follows from a property of d-entropy that the d-entropy of this model is zero, and no algorithm is required. For a class of undirected graphical models, we provide an algorithm for computing the d-entropy of such models. Finally, the d-entropy coincides with Shannon's entropy for the probability mass function of a single random variable and for a large multi-dimensional probability distribution expressed as a directed acyclic graph model called a Bayesian network. We illustrate this using Lauritzen-Spiegelhalter's Chest Clinic example represented as a belief-function directed graphical model.</abstract>    <action target="WRD"> <ARLID>cav_un_auth*0452419</ARLID> <name>The 12th Workshop on Uncertainty Processing</name> <dates>20220601</dates> <unknown tag="mrcbC20-s">20220604</unknown> <place>Kutná Hora</place> <country>CZ</country>  </action>  <result_subspec>WOS</result_subspec> <RIV>BA</RIV> <FORD0>10000</FORD0> <FORD1>10100</FORD1> <FORD2>10102</FORD2>    <reportyear>2024</reportyear>      <num_of_auth>3</num_of_auth>  <inst_support> RVO:67985556 </inst_support>  <permalink>https://hdl.handle.net/11104/0344420</permalink>   <confidential>S</confidential>  <article_num> 108984 </article_num> <unknown tag="mrcbC86"> Article Computer Science Artificial Intelligence </unknown> <unknown tag="mrcbC91"> A </unknown>         <unknown tag="mrcbT16-e">COMPUTERSCIENCE.ARTIFICIALINTELLIGENCE</unknown> <unknown tag="mrcbT16-f">3.2</unknown> <unknown tag="mrcbT16-g">0.7</unknown> <unknown tag="mrcbT16-h">6.3</unknown> <unknown tag="mrcbT16-i">0.00458</unknown> <unknown tag="mrcbT16-j">0.75</unknown> <unknown tag="mrcbT16-k">5066</unknown> <unknown tag="mrcbT16-q">116</unknown> <unknown tag="mrcbT16-s">0.877</unknown> <unknown tag="mrcbT16-y">47.31</unknown> <unknown tag="mrcbT16-x">3.74</unknown> <unknown tag="mrcbT16-3">1655</unknown> <unknown tag="mrcbT16-4">Q1</unknown> <unknown tag="mrcbT16-5">2.600</unknown> <unknown tag="mrcbT16-6">155</unknown> <unknown tag="mrcbT16-7">Q2</unknown> <unknown tag="mrcbT16-C">57.6</unknown> <unknown tag="mrcbT16-D">Q3</unknown> <unknown tag="mrcbT16-E">Q2</unknown> <unknown tag="mrcbT16-M">1.02</unknown> <unknown tag="mrcbT16-N">Q2</unknown> <unknown tag="mrcbT16-P">57.6</unknown> <arlyear>2023</arlyear>       <unknown tag="mrcbU14"> 85165544597 SCOPUS </unknown> <unknown tag="mrcbU24"> PUBMED </unknown> <unknown tag="mrcbU34"> 001058204600001 WOS </unknown> <unknown tag="mrcbU63"> cav_un_epca*0256774 International Journal of Approximate Reasoning 161 1 2023 0888-613X 1873-4731 Elsevier </unknown> </cas_special> </bibitem>