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Identification number:

DOI: 10.1016/j.irbm.2014.09.002

Official URL:

http://dx.doi.org/10.1016/j.irbm.2014.09.002

This is an author-deposited version published in:

http://oatao.univ-toulouse.fr/

Eprints ID: 13952

To cite this version:

Doumbouya, Mamadou Bilo and Kamsu-Foguem, Bernard and Kenfack,

Hugues and Foguem,

Clovis

A framework for decision making on teleexpertise

with traceability of the reasoning

.

(2015) IRBM - Innovation and Research in

BioMedical engineering, vol. 36 (n° 1). pp.40-51. ISSN 1959-0318

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pen

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rchive

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oulouse

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A

framework

for

decision

making

on

teleexpertise

with

traceability

of the reasoning

M.B. Doumbouya

a,b

,

B. Kamsu-Foguem

b,∗

,

H. Kenfack

a

,

C. Foguem

c aUniversityofToulouse,FacultyofLaw,2rueduDoyenGabrielMarty,31042ToulouseCedex9,France

bLaboratoryofProductionEngineering(LGP),EA1905,ENIT-INPTUniversityofToulouse,47Avenued’Azereix,BP1629,65016,TarbesCedex,France cCentreforFoodandTasteSciences(CSGA),UMR6265CNRS,UMR1324INRA,UniversityofBourgogne,9EBoulevardJeanned’Arc,21000Dijon,France

Abstract

Thispaperprovidesamethodologicalframeworkfordecisionmakingprocesstoensureitstraceabilitygenerallyinthecontextoftelemedicine andparticularlyintheactofteleexpertise.Thisactpermitstomedicalprofessionalsand/orhealthprofessionalstocollaborateinordertotake suitabledecisionsforapatientdiagnosisortreatment.Themainproblemdealingwithteleexpertiseisthefollowing:Howtoensurethetraceability ofthedecisionsmakingprocess?Thisproblemissolvedinthispaperthroughaconceptualisationofarigorousframeworkcouplingsemantic modellingandexplicitreasoningwhichpermitstofullysupporttheanalysisandrationalefordecisionsmade.Thelogicalsemanticunderlying thisframeworkistheargumentativelogictoprovideadequatemanagementofinformationwithtraceabilityofthereasoningincludingoptions andconstraints.Thusourproposalwillpermittoformallyensurethetraceabilityofreasoningintelemedicineandparticularlyinteleexpertisein ordertofavourthequalityoftelemedicine’sprocedurechecking.Thistraceabilityistoguaranteeequitableaccesstothebenefitsofthecollective knowledgeandexperienceandtoprovideremotecollaborativepracticeswithasufficientsafetymargintoguardagainstthelegalrequirements. Anillustrativecasestudyisprovidedbythemodellingofadecisionmakingprocessappliedtoteleexpertiseforchronicdiseasessuchasdiabetes mellitustype 2.

1. Introduction

Telemedicineisakindofremotemedicalpractice,inwhich thereisthe possibilityof makingmultipleactorsworking to-gether and allowing their collaborations in the diagnosis or treatmentofadisease,bythemeansoftelecommunicationand informationtechnologies.Thetelemedicineinvolveseither pa-tientwithoneorseveralhealthprofessionals(HP)andamong themamedicalprofessional,oracollaborationbetweenagroup ofhealthprofessionals(HP)andamongthematleastone med-icalprofessional(MP).Telemedicinepermitsto[1]:

* Correspondingauthor.

E-mailaddresses:[email protected](M.B. Doumbouya),

[email protected](B. Kamsu-Foguem).

• establishadiagnosis,

• provideforariskypatientamedicalmonitoringinthe con-textofpreventionoratherapeuticmonitoring,

• requireexpertadvice,

• prepareatherapeuticdecision,

• prescribeproducts,prescribeorperformactsorservices,

• monitorapatient.

Thispractice isveryusefulinseveraldomainsof application wheremedicalexpertisesareneeded,forexample:

Ruralarea[2],wherethereisdifficultyinhealthcarefor remote rural areasbecause theyare unableto attract, af-fordorretainspecialityproviders.Sotelemedicinecanhelp solving theseissuesby allowing access tospecialists re-gardlessoflocation.

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Corrections[3],inthisareatelemedicineallowsprison fa-cilitiestodeliverhighmedicalqualitywithoutthecostand dangers ofinmatetransportationandtheneedforclinical specialisttoenterthefacility.

Therearealsomanyfieldsoftelemedicineapplicationsuchas schools,mobilehealth,disasterrelief,industrialhealth,. . .

Thepracticeof telemedicine isdividedintothesefiveacts listedbelow[1]:

1. teleconsultation:adoctorgivesaremoteconsultationtoa patient,thelattercanbeassistedbyahealthprofessional. The patientand/or thehealthprofessional gives informa-tion for their side, the remote doctor then performs the diagnosis.

2. teleexpertise:adoctorseeks remotelytheopinionof one ormoreofhiscolleaguesonthebasisofthediagnosticand therapeutic needs tofoster concretediscussionsaimed at solvingthemedicalproblemsrelatedtoapatient’scare. 3. telemonitoring:adoctormonitorsandinterpretsremotely

apatient’smedicalparameters.Therecordingandthedata transmissioncanbeautomatedorperformedbythepatient himselforbyahealthcareprofessional.

4. teleassistance:adoctorattendsremotelyotherhealth pro-fessionalperformingamedicalact.

5. medical regulation: this is specific to the French tele-medicinespecificationwheredoctorsofcentre15establish byphonefirstdiagnosistodetermineandtriggerthebest answersuitabletothenatureofthecall.

Inthispaperweareinterestedintheteleexpertiseactwhich isusedbyhealthcareprovidertomakeandtakedecisions con-cerningapatient’streatment.Becauseimportantdecisionsare madeinthisact,thentheresponsibilityofeachparticipantis en-gaged.Currently,duetothelackofinteroperabilityofHospital InformationSystem(HIS)orabsenceofcomputerisedpatient recordsinfacilities,thetraceabilityofdecisionsand informa-tion that are used for decisions is ensured by atelemedicine informationsystem.Withinthistelemedicineinformation sys-tem,it issomeformstobecompleted thatcanbe specificto certainspecialities. Thecontentisstructuredaccordingtothe processinthemedicalprocedure. Thishelpsassistingthe ap-plicantinmakingitsrequestforanopiniontotheexpert,andto facilitatetheprocessingoftheapplicationbytheexpert.Some formscan sometimesperform by calculations for knowledge discoveryin databases. Unfortunately,some healthproviders notalwaystakethetimetocompletetheseforms.Butwhatever the means of communicationused, the most important point isthe traceability of decisions. Thisisour problem,in other words,howtoensurethetraceabilityofthedecisionstakenby healthproviders?

To achieve this goal, we propose in this paper two main contributions.First,thepaperpresentsthearchitecturethatwe proposetoshowtheinteractionbetweenparticipantsandsome ontological concepts.This architectureincludesan important componentcalledargumentativelogic.Thiscomponentisused inourarchitecturetoensurethetraceabilityofthedecisionsin

teleexpertisetofavourthecheckingofthetelemedicine’s pro-ceduresquality.Second,thepaperwillfocusonthecomponent wherewedetailedbyausecaseitspurpose.

Thisintegratedapproachincludesasemanticformalisation ofcollaborativeinformationmodelsthatassistsmedicalactors atalllevelstoshareknowledgeandintegrateethicalneedsin their telemedicine services: thisshowsthe novelty and origi-nalityofourworki.e.integratingsemanticmodellingandlaws conceptsforaidingindecisionmaking.

2. Objective

Themainpurposeofthispaperistoproposea methodolog-icalframework coupling semantic modelling and argumenta-tion for aiding medical professionalintheir decision making process.Infact, theproposedframeworkwill permitto med-icalprofessionals tomanage medical informationconcerning their patients.Sobyourproposal wewant togive innovative solutions in the practice of telemedicine which will lead to increasetelemedicineprograms’effectiveness.Infactour pro-posalcombines conceptualgraphsandDung’s argumentation system (argumentative logic).With thisapproach, we aim to propose arigorousmodellingframeworksinceitincludes ar-gumentativereasoningwhichhaveamathematicalfoundation andconceptualgraphsbasedonontologicalmechanisms.This argumentativelogicwillpermittoensurereasoningtraceability inastructuredmannerwhiletheontologicalmodels (concep-tualgraphs)willpermitreasoningvisualisation(bytheuseof CoGuisoftware)andseemoreensuringsemantic interoperabil-ity.Bymakingthistooleasytousewecanencouragemedical professionalstochange their habitsbyusing thesenew tech-nologiesinthepracticeofmedicalacts.Weaimalsotoprovide atoolwhichwillpermitastrongcommunicationamong medi-calprofessionalsandinthesameoccasiontoshareknowledge and experiences. For example, when a medical professional cannottake decisionsinfront of specificdiagnosis, byusing thesystemhecanmakesomequeriesinordertoknowifthere hasbeen asimilarcaseinthe past.Ifyes,thenhe canknow whatdecisionshavebeentakenforthisdiagnosis,ifno,hecan thencontactothermedicalprofessionalswhoarespecialisedin aparticulardomainandhaveathoroughunderstandingto re-motelyshareexperienced knowledge during the teleexpertise activity.

3. Stateoftheart

Inthissection,westartwithastateofthearttoshowwhat hasbeenalreadydonefortheargumentationandthetraceability ofthedecisionsintheliterature.

3.1. Relatedwork

Inourteammanyworksdealingwithconceptualgraphsfor visualknowledgerepresentationhavebeenachieved.However, the global researchapproaches are not the sameand each is useful for different purposes. The work of Potes Ruiz et al.

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[4]proposesamethodologicalframeworkforexperience feed-backprocessesandintheirapproachtheycombineconceptual graphswithassociationrulesmining.Themainobjectiveisto analyse the knowledge extracted from industrial information systems in order toimprove the management of the mainte-nanceactivity.Thisapproachisquitesimilartoourssince,the proposedframework permits tomanage andgenerate knowl-edgefrom informationbasedonpastexperiences,inorderto make suitable decisionsinaparticular context.However,the workofPotesRuizetal.[4]didnotintendtoaddressgeneral aspects of the qualityof collaborative decision making.The work of Kamsu-Foguemetal.[5]proposes amethodological frameworkforaformalverificationapproachofmedical proto-colsandintheirapproachtheycombineconceptualgraphswith computationaltreelogic.Theaimistoformalisemedical pro-tocoldefiningtemporalreasoningpathsforthemonitoringand preventionof specificdiseases(e.g.nosocomialinfections).It doesnotcoveraspectsrelatedtotheremotecollaboration,but wesharethegoalofdevelopingthemeanstofacilitatethe un-derstanding of reasoning steps.In thoseterms, our approach combines conceptualgraphs withargumentativereasoning in themedicalcollaborationsetting.Sothismustmakeitpossible clearlyandnoticeablytoidentifytheargumentationsdrawnup orreceivedbythecollaborativemedicalteam.Theexchangeof expertiseunderthisnewframeworkwillthereforehelpto sus-taintraceablereasoninginstrumentsandimproveworkquality inthecollaborativesituations,suchas intheteleexpertise be-tweenmedicalprofessionalslocatedatremotesites.

Someworks havebeen donebythe authorsof [6] tohelp healthcareproviderstotakedecisionforapatient’streatment. In theirworktheypresented atool calledVirtual Staff which permitsto havecooperative diagnosis inordertomake deci-sions.TheVirtualStaff permitsdecisionstraceabilityby keep-ing trackof thehistoryof their characteristicelements based onpatientslifeline[6].ThisVirtualStaff isbasedonaSOAP (Subjective, Objective, Assessment, Plan)model [6,7]which permits to the doctors to structure their reasoning and also on a QOC(Question–Options–Criteria) model [6,8]for sup-porttodecision-making.Globallyintheirapproachtheyhave adatabasecalledNautilusDB, fromthisbasistheybuild on-tologiesthataretransformedintoRDF1format.Thentheyuse asearch enginecalledCORESE [9] tonavigate into this on-tology. CORESE interface allowsphysicians to visualise the ontologyandvalidateitbyerrorsdetectionandalsobythe cor-rectionsuggestion.CORESEalsoprovidesanenvironmentfor responsestoqueriesontheontology.Eveniftheirproposal of-fers argumentation ondecisionsandtraceability, butit is too heavytobuildinthewaythattherearedifferentformsofgraphs namelySOAP,QOCusingtheontologygeneratedfroma medi-caldatabase.Thecommonpointswithourproposalisthattheir architectureiscomposedbyontologies,conceptualgraphs han-dledby CORESE andawillingness toexplain the reasoning inanargumentativemanner.UnfortunatelywithCORESEonly conceptualgraphsmodellingfactsarevisualisedandthereisno

1 ResourceDescriptionFramework.

waytovisualisethereasoningprocess.Inourapproachwe pro-poseawaytovisualisethereasoningbytheuseofCOGUI[10] softwareincludingpurposestoeditconstraints,ruleswhichaid inreasoning.Weproposetousetheargumentativelogicto rein-forcetheirformalsemanticsonexplicitelementsfor decision-making, whilst investigating real impact of possible options. Finally inourproposition weintroduce alegalpointof view inthe defined ontologieswhichwill allow toidentify the re-sponsibilityofeachparticipantintheactofteleexpertise.

K.-L. Skillenetal.proposedin[11]anapproachbasedon semantic technologiesfor usermodellingandpersonalisation techniques. Their proposal is adapted for pervasive environ-mentinwhichtheycreateontologicalusermodelsand devel-opedasemanticrule-basedmechanismforthepersonalisation ofcontext-awareservice.TheserulesarecreatedwithSWRL2in

Protégé[12].Thisapproachissomewhatsimilartooursinthe sensethattheyusesemanticmodellingandreasoningoptions. ButtocreatetherulestheyneedadditionalplugininProtégé, thismeansthattheyneedmorethanonelanguage(SWRLfor the rules and OWL3 for the ontological models) whereas in CoGui the rules creator are natively included, thus onlyone languagetohandlebothrulesandontologicalmodels.Astheir approachisbasedonHelp-On-Demandservices,itcanbeused fordecisionaidinginthetelemedicineservices.

3.2. Telemedicineoverview

Telemedicine is the fact to use information systems and telecommunicationin ordertodelivermedical careremotely. Nowadayswiththerisingofnewtechnologies,telemedicineis becomingarealcentreofinterestwithregardtotheresearch do-main.Assaidintheintroduction,telemedicineisbuiltaround fivemainacts.Inthesefiveacts,fourofthemaremore impor-tantnamely:teleconsultation,teleexpertise,telemonitoringand teleassistance.ThesefouractsareillustratedinFig. 1below.

Animportantworkhasbeendonebytheauthorsof[13]in whichtheygiveasystematicreviewofreviewsoftelemedicine. Intheirwork,theyshowthattelemedicinehaspositiveeffects. Andthesepositiveeffectsconcerntherapeuticeffect,health ser-vice improvement, and the use of technical services such as ICTs4[13].Wetalkaboutonlythehealthandthetechnical out-comes.

Eveniftheeffectivenessoftelemedicineisdemonstratedit seems that it still limited and inconsistent in many domains [13].Forexampleintherapeuticactions,thetelemonitoringfor heartfailurehasitslimitsintermsofimprovingeffectiveness andinfluencinghealings[13,14].Theelementsdescribingthat evidenceonthelimitsandtheinconsistencies oftelemedicine concern decision support tools, chronic diseases, computer-based cognitive behavioural therapyand so on. Forthe tele-expertisepointofviewmanyeffortsarecurrentlybeingmade concerningtoolsusedinitspractice.

2 SemanticWebRuleLanguage. 3 WebOntologyLanguage.

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Fig. 1. Main acts of telemedicine.

4. Materialsandmethods

In this section we show the different steps followed to achieveourgoal, namelythe proposedcommunication archi-tecture and the explanation of the abstract argument-based framework for decision making called argumentative logic. We introduce this abstract framework in our work because, it will permit us to achieve our goal, namely: ensuring for-mallythetraceabilityofthereasoningforcheckingthequality oftelemedicine’s procedures.Inadditionbytheuseof Cogui software,the reasoning could bevisualised easilywhichis a value-addedcontrarytothepreviousworks.

4.1. Proposedarchitecture

E. Nagebaet al. [15] proposeda methodology for know-ledge-based framework construction inpervasive computing. Thismethodologycontainsaknowledgemeta-model descrip-tionandformalisationthatcanbeinstantiatedindifferent sce-narios and contextual situations. The described knowledge-baseddesignmethodologyprovidesaframeworkfor problem solvinganddecisionmakinginagivendomain.Inparticularthe authorsshowedatechnicalandempiricalresultintelemedicine domainfor the purpose of organisational assessment and de-velopment.Butintheirworktheydonotshowthattheir pro-posal guarantees the traceability of decisions. Thus the pro-posedworkinthispaper willpermittoovercome thisfailure andtovisualiseeasilythereasoning.Weaddinourarchitecture

an additional component called argumentative logicin order toguaranteethetraceabilityofdecisionsforensuringformally the decisionprocesstraceability infavouringthe checkingof telemedicine’sproceduresquality.

Inthisarchitectureweproposeamethodologicalframework coupling:

• semanticmodelling

• explicitreasoning

• ontology(includingmedicalandlegalconcepts)modelled byconceptualgraphs.

The proposed architecture is depicted in Fig. 2 below. It representsourproposed architectureinwhichthecomponent developingandimplementingargumentativelogicisakindof middleware between the GUI and the knowledge base. This componentisbuiltfromthedefinitionandpropertiesrelatedto Dung’sargumentationsystem(Section4.2.2).Itretrievesdata fromtheknowledgebaseaccordingthemedicalprofessionals’ queriesandcomputesacceptedorrejectedadvicesintheactof teleexpertise.Theargumentativelogiccomponentlikewise al-lowsthegenerationofaframeworkforsharingofexperiences, analysesandproposalsbetweenremotemedicalprofessionals.

Our architecture iscomposed of eleven maincomponents listedbelow:

GUI: auser friendly interface whichpermitsthe user to accessthesystemfunctionalities.

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Fig. 2. System architecture.

Thirdservices:itincludesseveralservicessuchas hospi-tals, clinic,medicalcentre,PMR5hostwherepatientdata arestoredandorganisationsuchassocialsecurity.

Queryengine:itisalreadyincludedinCoGuisoftware.It permitstoqueryandgetresponsefromtheknowledgebase foraidingmedicalexpertsinthedecisiontaking.

Profilemanager:ithandlesuserprofile.Itpermitsto in-formthetaskmanagerwhichuserisconnectedinorderto loadinformationconcerningthisuser.

Rulemanager:itiscontactedbythetaskmanagertoapply rulesonaspecificquery.

Argumentative logic: itis thecomponent whichensures the traceability of the decisions in a structured manner. And as previouslysaid,it retrievesdatafrom the knowl-edgebaseaccordingthemedicalprofessionals’queriesand computesacceptedorrejectedadvicesintheactof teleex-pertise.Thiscomponentwillbedetailedmorepreciselyin thenextsection.

Ontological models: the ontological models are used in eHealth to make medical decision support systems [15]. Ontologies are instruments used in the knowledge engi-neeringcommunityforconceptsandinterrelations specifi-cation[16,17].Ontologiesarealsousedforcontext mod-elling, management in pervasive environment and they permit tosolve semanticinteroperability[18,19]. Ontolo-giesarestillanemergingresearchanddevelopmentareafor telemedicinetasksupport[20].Inourarchitecture, ontolog-icalmodels are definedby diagnosis,management, laws, diseases,etc.Thediseasesontologywasconstructedby in-formationcollected inICD6-10[21].The authorsof [22]

5 PersonalMedicalRecord.

6 InternationalClassificationofDiseases.

designedanontologyincorporatingcorelegalconceptsthat weintegratedintoourarchitecture.

Knowledgemetamodel:itisasetofgenericand domain-independentontologicalmodelsandtheassociationswhich connectthesemodels[15].In ourarchitecturethe knowl-edge meta-model includes Task, Objects, Actors, Re-sources.

Inferenceengine:itpermitstoperformrule-based reason-ing.TheinferenceengineisincludednativelyinCoGui.

Rulesandconstraints:itisakindofdatabasewherethe rulesandconstraintsaredefined.In CoGuithisisdefined byRules,NegativeconstraintsandPositiveconstraints.

Taskmanager:allthetasksviatheGUIaredonebythe task manager. Indeed it permits to access the query en-gineinordertoqueryandgetresponsefromtheknowledge base.Andalsowhenqueryingtheknowledgebase,thetask managercancontact therule managerfor applying some rulesandthespecifiedrequest.Itcanconnecttothe Inter-netviawebservicesoversecureHTTPS7connectionstoget patientmedicalrecordandsomeadditionalinformationif needed.ThereturnformatofthewebservicesisinXML8 [23]forensuringthesyntacticalinteroperability.

4.2. Abstractargument-basedframeworkfordecisionmaking: Argumentativelogic

The argumentative logic as said previously is a rigorous frameworkwhichpermitsdecisionsjustificationwith traceabil-ityofreasoningincludingoptionsandconstraints.

7 HyperTextTransferProtocolSecure. 8 ExtensibleMarkupLanguage.

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4.2.1. Differenttypesofarguments

AccordingtoAmgoudandPrade[24],therearetwotypesof arguments,namely:

epistemic arguments:based on believes andthemselves groundedonlyonbelieves.

practical arguments:based onoptionsandare madeby bothbelievesandpreferencesorgoals.

Generallywecanhavethesetwotypesofargumentsandit is thecontextthatwilldeterminewhichonetoimplement.

4.2.2. Acceptabilitysemantics

Aboveall,wedefinewhatisadecisionframework(system) [25]alsocalledargumentation-basedframeworkAF[24]. Definition 1. An (argumentation-based) decision framework AFisacouple(A,D)where:

• Aisasetofarguments,

• Disasetofactions,supposedtobemutuallyexclusive,

action:A→Disafunctionreturningtheactionsupported byanargument.

Definition 2. From an argumentation-based decision frame-work (A,D), an equivalentargumentation framework AF =

(A,Def)isbuiltwhere:

• Aisthesamesetofarguments,

Def⊆A×Aisadefeatrelationsuchthat(α,β)∈Def if

action(α)6=action(β).

Definition3. LetAF=(A,Def)beanargumentation frame-work,andletB⊆A

• Bisconflict-freeiftherearenoα,β∈Bsuchthat(α,β)∈ Def.

• B defendsanargumentαiff∀β∈A,if(β,α)∈Def,then

∃γ ∈Bsuchthat(γ ,β)∈Def.

Definition4(Acceptabilitysemantics).LetAF=(D,A,Def)

beadecisionsystem,andBbeaconflict-freesetofarguments.

• BisadmissibleextensioniffitdefendsanyelementinB.

• B isapreferredextensioniffBisamaximal(w.r.t.set⊆) admissibleset.

• B isastableextension iffitis apreferredextension that defeatsanyargumentinA\B.

Bytheseacceptabilitysemanticstheauthorsof[24]identify severalarguments’statuswhicharedepictedbelow:

Definition 5 (Argument status). Let AF=(D,A,Def) be a decisionsystem,andε1,. . . ,εxitsextensionsunderagiven

se-mantics.Leta∈A.

• aisskepticallyacceptediffa∈εi,∀εi withi=1,. . . ,x.

• aiscredulouslyacceptediff∃εi suchthata∈εi.

• aisrejectediff∄εi suchthata∈εi.

Theconsequencewhichfollowsimmediatelyfromtheabove definitionisasfollows:

Property1.Let AF=(D,A,Def)bea decisionsystem,and

ε1,. . . ,εxitsextensionsunderagivensemantics.Leta∈A.

• aisskepticallyacceptediffa∈Txi=1εi

• aisrejectediffa /∈Sxi=1εi

Thecomponentoftheproposedarchitecturecalled argumen-tativelogicisbuiltfromthesedefinitionsandproperty.Inthis componentthedefinitionsandpropertiesaretransformedinto algorithms.Sowhenmedicalprofessionalsentersomequeries, theyare relayedtotheargumentativelogicwhichextracts the answersfromtheknowledge basetoshowtheaccepted argu-mentsinaspecificactofteleexpertisebasedontheunderlying algorithms.Byapplyingtheestablisheddefinitionswebuild al-gorithmsforextractingconflict-freesets,admissibleextensions andpreferredextensionsandwiththepropertieswebuildan al-gorithmforknowingtheacceptedandtherejectedargumentsin thedecisionmakingprocess.Thesealgorithmsarepartofthe argumentativelogiccomponent.

5. Analysisofresultswithcasestudyfindings

Inthissectionwewillshowanapplicabilityofthe argumen-tativelogicthankstoacasestudyinthecontextofteleexpertise.

5.1. Casestudy

Application case.The attendingphysician (orfamily doctor) ofMrsC.,a80yearsoldfemalewitha10yearshistoryofhigh bloodpressure,requestedamedicalopinionofthegeriatrician becausehispatientpresentedasub-acuteconfusionsymptoms. Physicalexaminationwasnormalapartofblurredand/or dimin-ishedvision’scomplaints.Thegeriatriciandisclosedachronic hyperglycemia[fastingbloodglucosevalueat20mmol/Land hemoglobinA1c(glycosylatedhemoglobin)higherthan14%] yielding diagnostic of unrecognizeddiabetesmellitus type2. Laboratoryanalysisdisplayedarenalimpairment(clearanceof creatinineat24ml/min/1.73 m2)withproteinuria(2 g/24 H). Firstly by the provided system the geriatrician makes some queries to knowif there has been asimilar casein the past. If yes,he could then havethe answerson how to treatsuch patient;ifno,heusesthe samesystem toaskforexpertiseto the Internist(forthe renalcomplicationof diabetesmellitus), the Ophthalmologist (for the ocular complication of diabetes mellitus) and the Diabetologist (for the management of hy-perglycemia). Theexperts’ advicesare collectedas shownin Table 1(Stakeholders’ argumentation).From the elementsof thistablethereisbuiltthegraph ofattacksaccordingthe op-tionparameterinthetable(theargumentswiththesameoption donot attackeach other).On thisgraphof attackstherewill

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Table 1

Stakeholdersargumentation.

Stakeholders Reasons Options Concerns Goals

1 Internist Hedoesnotwanttomakeinvasive

in-vestigation, he prefers medication ap-proaches in this context with less of sideeffectsandthepreventionoffurther micro-vascular (eye and kidney) and macro-vascular complications of Dia-betesMellitus

ցProc Ensuringagoodqualityof lifeforthiselderlypatient

Riskreductionsuchassideeffectsand preventionoffurthermicro-vascularand macro-vascularcomplicationsrelatedto theDiabetesMellitus

2 Ophthalmologist Hewantstoperforminvasive investiga-tionsontheeyetoappreciatetheextent ofretinalveinthrombosisandthe im-portanceoftheassociatedoedema.He advocatesthenanintra-ocularinjection ofananti-oedematoustreatment

րProc Ensuringagoodqualityof lifeforthiselderlypatient

Appreciationoftheextentofretinalvein thrombosis, theimportance of associ-atedoedemaandcuring patientvisual disorders

3 Geriatrician Hewouldadminister treatment to the

patienttopreventcognitiveimpairment suchasAlzheimerdiseasecommonin theelderly

րProc Ensuringagoodqualityof lifeforthiselderlypatient

Preventionofconditionswhichleadto cognitiveimpairment

4 Diabetologist Hewouldprescribeas soonas

possi-bletreatmentstothepatientinorderto preventhislossofsight,knowinghe al-readyhasvisualdisordersandtype2 di-abeteswhichcanleadtotheblindness ofthepatient.

րProc Ensuringagoodqualityof lifeforthiselderlypatient

Avoidingpatient’slossofsight

beappliedtheargumentativelogictocomputetheacceptedand rejected arguments.Finally theGeriatrician compares the ac-ceptedargumentsandthenbysomeparameterstakesthefinal decisionsandthesedecisionswill bestoredfor future exper-tise.

The sequence and collaboration diagrams (Figs. 3 and 4) illustrate ourcasestudy. Thesediagramsare basedonUML9

[26].

Inthesequencediagramabovethe“Experts”representsthe groupcomposedoftheOphthalmologist,Diabetologistand In-ternistwhom arecontacted forexpertise. Inthe followingwe describesomemethodstofostermoreunderstanding:

AskForExpertise: inthismethodthe geriatricianprovides allinformationconcerningthepatient(withhisconsentof course),andtheneededremoteexperts.Bythesame occa-sionhesendstotheserverhisadvicesifonlyhecantakea decisionaccordinghisskillsandhisexperiences.

ProcessExpertiseRequest:whentheserverreceivesthe ex-pertiserequestitcomputesittoknowtheavailable physi-ciansandthentransmitsbythemethod TransmitInforma-tion(whichisakindofmulticast)themthemedical infor-mationconcerningthepatientiftheyaccepttoparticipate inthisactofteleexpertise[27].

GiveAdvices:theremote physiciansgivetheiradvices ac-cordingtotheparametersdescribedinTable 1.Thismethod shouldincludesomeparameterstoknowwhichphysician’s answerhasbeenreceived.

9 UnifiedModellingLanguage.

BuildAttackGraphsAndExecuteArgumentativeLogic: this methodcreatesthe graphofattacksonwhichwill be ap-pliedtheargumentativelogictoidentifytheargumentsthat shouldbeacceptedornot.

Fig. 4 representsthe collaborationdiagramthat shows the interactionbetweenthedifferententitiesof ourproposal. Un-like tothepreviousdiagram,itshowsexplicitlythe messages exchangedbetweenthedifferententities.Whenthegeriatrician asksforfindingsimilarcases,oneoftheseresponsescanbe re-turned:

• Similarcasesfounded,thentheserverreturnthedifferent procedurestofollowinordertoefficientlytreatthepatient;

• Similarcasesnotfounded,andthentheserverinformsthe geriatricianthatthereisnosuchsimilarcase.

As said previouslyinthe sequence diagram’s comments, the messagegiveAdvices() shouldhave somefunctional parame-tersinordertodistinguishthephysician fromwhom advices havebeenreceivedbytheserver.

In thefollowing, weshow thedifferentstepstofollowfor thedecisionmakingprocess.Webelievethatthereasoning el-ementssetoutinthiscasestudyishelpfulforthepurposesof illustratingtheessential dimensionsofthesuggesteddecision makingprocessonteleexpertisewithtraceabilityofthe reason-ing.Wealsosubscribetotheviewthatthedescribedelements areonlytheverynoticeablepartsofthatproposedframework, whereasothersareunderdevelopmentandnotyetconsolidated. Inotherwordswewilllinkthedifferentcomponentsandalso includeconceptualgraphsinthedesigntoeasilypermitthe vi-sualisationofthereasoning.

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Fig. 3. Sequence diagram.

5.1.1. Positioningofthestakeholders

Internistisamedicalprofessionaldealingwithadult dis-eases.Heisapolyvalentcaregiver,particularlyskilledin the multi-system disease processes. He would not make invasive investigations or treatments yet because the re-sultsof invasivetechniquesproposedare diverse(benefit, risk,patientsatisfaction,etc.)Inthisparticularcase,heis againstinvasiveinvestigationsortreatmentsyetinthis el-derlywomantakingintoaccounttheageofthepatientand the risk-to-benefitratio ofinvasive actsinthiscontexthe wouldnotmakeinvasiveinvestigations.Heprefers medica-tionapproachesinthiscontextwithlessofsideeffectsand theprevention offurthermicro-vascular(eyeandkidney) andmacro-vascularcomplicationsofDiabetesMellitus.

Ophthalmologist is a medical professional for eye dis-eases. Hewantstoperform invasiveinvestigationsonthe eyetoappreciatetheextentofretinalveinthrombosisand the importance of the associated oedema. He advocates

thenanintra-ocularinjectionofananti-oedematous treat-ment.

Geriatricianis amedical professional for the elder per-son.Hewouldadministertreatmenttothepatienttoprevent cognitiveimpairmentsuchasAlzheimerdiseasecommon intheelderly.

Diabetologist is a medical professional for diabetes. He would prescribeassoonas possibletreatmentstothe pa-tientinordertopreventhis loss ofsight,knowing he al-ready hasvisualdisordersandtype2 diabeteswhichcan leadtotheblindnessofthepatient.

5.1.2. Modellinginformationavailableinstructured arguments

Themedicalprofessionalhasthechoicebetweenminimising andmaximisingdiagnosticprocedures[28]:

Proceduresminimisation(ցProc):itlimitsthecare’s in-vasiveness, risks such as selection of resistant bacteria,

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Fig. 4. Collaboration diagram.

Fig. 5. Node representation.

nosocomialinfections,adversedrugreactions,thevagaries ofinterventions,. . .andtheircosts;butdiagnosticand ther-apeuticdelaysareobserved;whichcanleadtosevere ethi-calandmedico-legalconsequences.

Proceduresmaximisation(րProc):it permitstoreduce theriskof missingdiagnosticortherapeuticopportunities (e.g. emerging medical problem such as bacterial infec-tionwithpossiblelonger-termeffects).Howeverindividual andcollectiverisksincreasesignificantlyduetohuman er-rorsandmedicaldevicesafety.Thusmedicaldecisionsare takenbythecomparisonofthethreatsofahealthstatusto itsrelatedstrengths.

These two diagnostics procedures represent the options (ac-tions)ofourdecisionsystemthatwillpermittodeterminethe argumentswhicharefor oragainstanoption.Table 1gathers thedifferentarguments(Reason)whichwillpromoteagoaland supportaction(Option).

5.1.3. Graphofattacks

TheGraphofattacksconsistsofasetofnodeswithoriented linksbetweenthem.Anode isrepresentbythecouple Argu-ment,Option,thisisdepictedinFig. 5.

AccordingtoTable 1,thedifferentargumentssupportbythe stakeholdersare:

• α=He doesnotwanttomakeinvasive investigation,he prefersmedicationapproachesinthiscontextwithlessof side effects and the prevention of further micro-vascular (eyeandkidney)andmacro-vascularcomplicationsof Di-abetesMellitus,

• β=Hewantstoperforminvasiveinvestigationsontheeye toappreciatetheextentofretinalveinthrombosisandthe importanceoftheassociatedoedema.Headvocatesthenan intra-ocularinjectionofananti-oedematoustreatment,

• γ =Hewouldadministertreatmenttothepatienttoprevent cognitiveimpairmentsuchas Alzheimerdiseasecommon intheelderly,

• δ =Hewouldprescribeassoonaspossibletreatmentsto thepatientinordertopreventhislossofsight,knowinghe alreadyhasvisualdisordersandtype2diabeteswhichcan leadtotheblindnessofthepatient.

Sincethegraphsofattacks[25]aremadefromargumentswith thesameconcern,soweassumeherethatallstakeholdershave thesameconcernasfollows:Ensuringagoodqualityoflifefor thiselderly patient.Moreargumentswiththesameoptiondo notattackeachother[25].Thusthegraphofattacksobtainedis depictedinFig. 6.

Thegraphofattacksachievedabovewillpermitstoidentify thedifferentpossibleextensions(representingtheacceptability semantics) onwhichwe willbased fordecision making. Ac-cordingtotheargumentsthedifferentsetswecanhaveare:

• {∅}

• {α},{β},{γ},{δ}

• {α,β},{α,γ},{α,δ},{β,γ},{β,δ},{γ ,δ} • {α,β,γ},{α,β,δ},{α,γ ,δ},{β,γ ,δ} • {α,β,γ ,δ}

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Fig. 6. Graph of attacks.

Decisionmakingprocess

Thedifferentextensionsbelowaredeterminedaccordingthe definitionsabove.

Determinationofconflict-freesets:theconflict-freesets are:{∅},{α},{β},{γ},{δ},{β,γ},{β,δ},{γ ,δ},{β,γ ,δ}.

Determinationof admissible extensions: theadmissible extensionsidentifiedare: ε1= {∅},ε2= {α},ε3= {β,γ},

ε4= {β,δ},ε5= {γ ,δ},ε6= {β,γ ,δ}.

Determinationofpreferredextensions:accordingtothe definitionabovethepreferredextensionsthatwecanhave areε2= {α}andε6= {β,γ ,δ}.

SoaccordingtoDefinition5,alltheargumentsarecredulously acceptedinthiscasestudy.Andthentheyareallreturnedtothe requestingphysicianforthefinaldecision,i.e.makingachoice of“maximisingorminimisingtheprocedure”.

Inthiscasethefinaldecisionisto“maximisetheprocedure” becausethepatientisanelderlyandapriorityisgiventothe adviceprovidedbythegeriatrician whichisconducivetothe “maximisationoftheprocedure”.

6. Discussion

Generallyinthecaseoftelemedicine,patientswithdiabetes aresupportedwithtelemonitoringwhichwill ensurepatient’s daily stabilisation. However, in the case of chronic diseases such as diabetesthe telemonitoring mustbe accompaniedby teleexpertise[3] because diabetescanhaveseveraleffects on otherorgans,hencethenecessityof multidisciplinaryteamto providebettertreatmenttothepatient.

Forcultural and financial reasons somepeople are suspi-ciousof newmedical technologies. That is whythe point of viewof the patient’s familyhas consolidatedthe decision of theinternistinmakingnon-invasiveactions.However,he con-sideredfundamentaltoimplementactions(qualityoflife,

tele-dialysis, telemonitoring) for the management of this chronic disease.

Giventhat the argumentativelogicensuresthetraceability ofreasoning:thistraceabilitywillsupportthedecision-making process and its understanding for favouring the checking of telemedicine’sproceduresquality.Thusincaseofjudicial pro-ceedingstheresponsibilitiesofeachofthestakeholderswillbe identified.

The solicitationof ArtificialIntelligencetechniques to de-liverasupportfordecisionmakersattheoperational,tacticalor strategiclevelshaslikewisebeenestablishedinsome compara-bleresearchworks.Fromthat point,theprovisionofdecision supporttools isvery significant for problemsolving incrisis management efforts (e.g.environmental, financial and health crisis).Inparticular,thePANDORAsystem[29]isanadvanced learning environment that can focus more on the adaptable training services tailoredto the respectiveexperiences of the strategic decision makers.On the onehand, the strong point of the PANDORAgeneralarchitectureisthe integrationof a Timeline Reasoning Environment (Behaviour Planner, Crisis Planner,andScenarioExecutor)withanEmotionSynthesizer tosupportpersonalisation.On theotherhand,the strengthof ourproposal is toimprove collaborationbetween health pro-fessionals for the implementation of teleexpertise processes, whetherinprivateclinicsor inpublichospitals (e.g. collabo-rativeactivitiesforthemanagementofcriticalsituations).The principles upon which the telemedicine is founded, by pro-moting conditions of informationdistributionandknowledge sharing,engageincontinuouslearningandexperiential devel-opmentwithapracticalemphasisongeneratingalearning or-ganisation.

For the security andthe data privacy point of view since we arehandlingmedicaldatawhichareverysensitive, hence these constraints should be taken into consideration for the telemedicineacts.Inthisframework,themanipulationofdata andpreparationof dataneedsaninformedconsentprocessof theconcernedpatient,sothathecouldknowhowandwhathis personaldataisusedfor.Giventhatweusesecuredwebservices basedonHttpsprotocoltoretrieveremotemedicalinformation, thedatasecurity isthusguaranteedonourside.From the re-motesites, the datamustbe encrypted:thiswillthen depend onwhatsecurityprotocoltheremotesiteuses.Itisrightthatin EuropethereisnosuchsystemlikeHIPAA10whichguarantees dataprivacyandsecurity[30,31],butsomeeffortsarecurrently beingmadefortheintroductioninFranceofthePersonal Med-icalRecordcalledinFrenchDMP[32].Thesetwoconceptions havesomesimilarpointssuchasauthenticationbeforeaccess, patient’smedicaldataprotection,secureelectronictransferof medicaldata.

7. Conclusion

In this paper we proposed a methodological framework adapted to the telemedicine concept, particularly for the act

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ofteleexpertiseinvolvingcollaborationbetweenseveralhealth professionalsandormedical professionalsfordecisions mak-ing.The designed architectureincludes animportant compo-nent called argumentative logic whichpermits to ensure the traceabilityofthedecisionsmakingprocess.Theargumentative logic has been illustrated by a use casein which many par-ticipants(internist,opthalmologist,geriatrician,diabetologist) collaboratetotaketherightdecisionstotreatthepatientwith diabetesandvisualdisorders.Inthiscasestudytheconclusion isthattheargumentssupportedbyopthalmologist,geriatrician and diabetologist (the latterssustain the Procedure maximi-sation) are accepted while the argument of the internist (for Procedureminimisation)isrejected.Thisshowsthatthe

treat-mentsthatwillbe administertothe patienthavetomaximise theprocedure.

The argumentativelogic guaranteesthe traceability of the decisionsinceitshowsthatdifferentstepswhichleadtothe de-cisionsmakingandatlastshowswhichdecisionscanbetaken. Sothat,byensuringthistraceability,itwillpermittofavourthe checkingoftelemedicine’sproceduresquality,alsobytheuse ofCoguisoftwarethereasoningcouldbeeasilyvisualised.In thisperspective,thetraceabilityconsiderationsareofrelevance forlegalproceduretoidentifyandassessthespecific responsi-bilityofeachstakeholders[33–42].

Infurtherwork,we willimplementourproposed architec-ture inordertoverifyit feasibility.Thisimplementationwill consisttoinstantiatetheproposedargumentationsystemin con-ceptualgraphswhichpermittorepresentrulesandconstraints. Theinterestofintroducingsuchformalismisdual:(i)thesame waythatitcanhandletheabstractionofthesystemby redefin-ingthe logicalframeworkofacceptability, (ii)it mayalso be anappropriatemodel torepresentthe internalstructure of ar-gumentsandgenerateconventionalinteractionspreviously in-troduced(graphof attacks).Finally,animportantprerequisite togeneratethemaximumadvantagefromourframeworkisthe developmentofanaccuratesoftwaretotheproposed architec-ture.

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[40]Kamsu-Foguem B,Tchuenté-Foguem G,Allart L,Zennir Y,Vilhelm C, Mehdaoui H,etal.User-centeredvisualanalysisusingahybridreasoning hybridreasoningarchitectureforintensivecareunits.DecisSupportSyst 2012;54(1):496–509.

[41] Kamsu-Foguem B,Foguem C.Telemedicineandmobilehealthwith in-tegrativemedicineindevelopingcountries.HealthPolicyTechnol2014.

http://dx.doi.org/10.1016/j.hlpt.2014.08.008.

[42] Kamsu-Foguem B,Tchuenté-Foguem G,Foguem C.Conceptualgraph operationsforformalvisualreasoninginthemedicaldomain.IRBM2014.

http://dx.doi.org/10.1016/j.irbm.2014.04.001.

MamadouBiloDOUMBOUYA:HeisaPhDstudentatthe Uni-versityofToulouseandheisaffiliatedtotwounitsofresearchnamely theInstituteofPrivateLawofandtheProductionEngineering Lab-oratory (LGP) of National Engineering School of Tarbes (ENIT). Hereceived his Research Master Degreefrom the University Paul SabatierofToulouseandtheNationalSchoolofelectrical engineer-ing,electronics,computerscience,hydraulicsandtelecommunication ofToulouse(ENSEEIHT)in2011.Hisresearchactivitiesdealwith Telemedicinegenerallyandteleexpertiseparticularly.Hisworkis fo-cusedinArtificialintelligence,semanticmodellingforimprovingthe collaborationbetweenremotemedicalprofessionalswhiletakingin considerationtheethicside.

BernardKAMSUFOGUEM:HehasaPhDin Computer Sci-enceandEngineeringfromtheUniversityofMontpellier2in2004. Hegot the “accreditation to supervise research”, abbreviated HDR fromUniversityofToulousein 2013.Hehasobtainedthestatusof VisitingProfessoratinternationaluniversities:UnitedKingdom(e.g. OxfordBrookesUniversity,Oxford),Finland(e.g.AaltoUniversity, HelsinkiUniversityofTechnology,VTTTechnicalResearchCentre ofTampere,UniversityofOulu,ÅboakademiofTurkuUniversity). His current interests are in Knowledge Discovery and Data Min-ing,KnowledgeRepresentation,FormalVisualReasoning,

Ontology-basedSemanticAnalysis,KnowledgeExploitationforremote Collab-oration,DecisionSupportSystemsandIntelligentSystems. Applica-tiondomainsincludeindustrialContinuousImprovement processes, Telemedicine servicesand HealthInformation Systems.Heisa re-viewerforalargenumberofinternationalscientificjournalssuchas Computers in Biologyand Medicine, KnowledgeManagement Re-search&Practice,InteractingwithComputers,Sensors,Engineering ApplicationsofArtificialIntelligenceandKnowledge-BasedSystems. Heisamemberofthethematicgroup:e-HealthofInterOP-VLab (In-ternationalVirtualLaboratoryforEnterpriseInteroperability).

HuguesKENFACK:HeistheDeanofthefacultyLawandvice president foracademic affairsatToulouse’s University.He hasthe statusofVisitingProfessoratAmericanuniversities:SaintLouis Uni-versitySchoolofLaw–USA(2009,2011,2013,2014)andSanDiego UniversitySchoolof Law–USA(2013).ProfessorofLawin Uni-versityofToulousesince2004(PhDinLaw,UniversityofToulouse I (1996)),heis particularlyexpertin LawofObligationsand Con-tracts, BusinessLegalInstruments,PaymentandCreditInstruments and International Law(Trade, Financial, Distribution, Commercial, BankruptcyandForeignInvestment).Hehadotheradministrative po-sitionsatnationaluniversities:memberofthespecialist’scommissions attheUniversityofPoitiers,NantesandLaMartinique.Heismember ofjurypanel(BarExaminationandAdmissionofnotaries).Hehas ed-itorialcharges:editorial-in-ChiefoftheTransportationLawChronicle andCo-EditorinChiefoftheCommercialLeaseChronicle.

ClovisFOGUEM:HeisanInternalMedicineandGeriatric medi-caldoctorandhasundertakenaPhDon‘OlfactionandElderly:study oftheolfactory(CNI)andtrigeminal(CNV)sensitivitiesinteractions inageriatricpopulation;constantsandpathologicalspecificities’.He isalsoparticularlyinterestedinneurodegenerativediseases(as Parkin-sondiseaseorLewy Bodydementia),elderly epilepsyandwhether pathogenicinflammatoryorautoimmuneresponsescancontributeto thesedisordersintheelderly.Moreoverheisalsointerestedin medi-calknowledgerepresentationandmedicalclinicdesignguidelines.For hisworkon‘OlfactionandElderly’, DrC.Foguemwaslaureateof HealthResearchAwardforemerginghealthresearchersfromthe cor-poratefoundation‘GroupePasteurMutualité’in2011.Heisgrounded inmedicalresearchapplicationsofInformationandCommunications Technology.FormerFaculty ofMedicine’sClinicalInstructor,heis nowHospitalPractitionerinFrance.Heispeer-reviewerofmany sci-entistjournalsamongwhich:ClinicalInterventionsinAging; Degen-erativeNeurologicalandNeuromuscularDisease;International Med-icalCaseReportsJournal;NeuroscienceandNeuroeconomics; Clin-icalMedicineInsights;JournalofthePancreas;International Schol-arsJournals(ISJ); CancerTherapy; Indian JournalofCritical Care Medicineand,AfricanJournalofEnvironmental Scienceand Tech-nology.

Figure

Fig. 1. Main acts of telemedicine.
Fig. 2. System architecture.
Fig. 3. Sequence diagram.
Fig. 4. Collaboration diagram.
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References

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