Examples with Parameters org.geotoolkit.sml.xml.v100.Parameters used on opensource projects

Example 1 with Parameters

use of org.geotoolkit.sml.xml.v100.Parameters in project geotoolkit by Geomatys.

the class SmlXMLBindingTest method ComponentUnmarshallMarshalingTest.

/**
 * Test simple Record Marshalling.
 *
 * @throws java.lang.Exception
 */
@Test
public void ComponentUnmarshallMarshalingTest() throws Exception {
    Unmarshaller unmarshaller = SensorMLMarshallerPool.getInstance().acquireUnmarshaller();
    InputStream is = SmlXMLBindingTest.class.getResourceAsStream("/org/geotoolkit/sml/component.xml");
    Object unmarshalled = unmarshaller.unmarshal(is);
    if (unmarshalled instanceof JAXBElement) {
        unmarshalled = ((JAXBElement) unmarshalled).getValue();
    }
    assertTrue(unmarshalled instanceof SensorML);
    SensorML result = (SensorML) unmarshalled;
    Member member = new Member();
    member.setRole("urn:x-ogx:def:sensor:OGC:detector");
    ComponentType component = new ComponentType();
    List<JAXBElement<String>> kw = new ArrayList<JAXBElement<String>>();
    kw.add(sml100Factory.createKeywordsKeywordListKeyword("piezometer"));
    kw.add(sml100Factory.createKeywordsKeywordListKeyword("geosciences"));
    kw.add(sml100Factory.createKeywordsKeywordListKeyword("point d'eau"));
    Keywords keywords = new Keywords(new KeywordList(URI.create("urn:x-brgm:def:gcmd:keywords"), kw));
    component.setKeywords(keywords);
    Classifier cl1 = new Classifier("intendedApplication", new Term("eaux souterraines", URI.create("urn:x-ogc:def:classifier:OGC:application")));
    CodeSpacePropertyType cs = new CodeSpacePropertyType("urn:x-brgm:def:GeoPoint:bss");
    Classifier cl2 = new Classifier("sensorType", new Term(cs, "Profondeur", URI.create("urn:sensor:classifier:sensorType")));
    List<Classifier> cls = new ArrayList<Classifier>();
    cls.add(cl1);
    cls.add(cl2);
    ClassifierList claList = new ClassifierList(null, cls);
    Classification classification = new Classification(claList);
    component.setClassification(classification);
    List<Identifier> identifiers = new ArrayList<Identifier>();
    cs = new CodeSpacePropertyType("urn:x-brgm:def:sensorSystem:hydras");
    Identifier id1 = new Identifier("supervisorCode", new Term(cs, "00ARGLELES_2000", URI.create("urn:x-ogc:def:identifier:OGC:modelNumber")));
    Identifier id2 = new Identifier("longName", new Term("Madofil II", URI.create("urn:x-ogc:def:identifier:OGC:longname")));
    identifiers.add(id1);
    identifiers.add(id2);
    IdentifierList identifierList = new IdentifierList(null, identifiers);
    Identification identification = new Identification(identifierList);
    component.setIdentification(identification);
    TimePeriodType period = new TimePeriodType(new TimePositionType("2004-06-01"));
    ValidTime vTime = new ValidTime(period);
    component.setValidTime(vTime);
    Capabilities capabilities = new Capabilities();
    TimeRange timeRange = new TimeRange(Arrays.asList("1987-04-23", "now"));
    DataComponentPropertyType field = new DataComponentPropertyType("periodOfData", "urn:x-brgm:def:property:periodOfData", timeRange);
    DataRecordType record = new DataRecordType("urn:x-brgm:def:property:periodOfData", Arrays.asList(field));
    JAXBElement<? extends AbstractDataRecordType> jbRecord = swe100Factory.createDataRecord(record);
    capabilities.setAbstractDataRecord(jbRecord);
    component.setCapabilities(capabilities);
    Contact contact = new Contact("urn:x-ogc:def:role:manufacturer", new ResponsibleParty("IRIS"));
    component.setContact(contact);
    Position position = new Position("conductivitePosition", "piezometer#piezoPosition");
    component.setPosition(position);
    IoComponentPropertyType io = new IoComponentPropertyType("level", new ObservableProperty("urn:x-ogc:def:phenomenon:OGC:level"));
    InputList inputList = new InputList(Arrays.asList(io));
    Inputs inputs = new Inputs(inputList);
    component.setInputs(inputs);
    IoComponentPropertyType io2 = new IoComponentPropertyType("depth", new ObservableProperty("urn:x-ogc:def:phenomenon:OGC:depth"));
    OutputList outputList = new OutputList(Arrays.asList(io2));
    Outputs outputs = new Outputs(outputList);
    component.setOutputs(outputs);
    List<DataComponentPropertyType> params = new ArrayList<DataComponentPropertyType>();
    UomPropertyType uom = new UomPropertyType(null, "urn:ogc:unit:minuts");
    QuantityType quantity1 = new QuantityType("urn:x-ogc:def:property:frequency", uom, 60.0);
    DataComponentPropertyType p1 = new DataComponentPropertyType("frequency", "urn:x-ogc:def:property:frequency", quantity1);
    params.add(p1);
    UomPropertyType uom2 = new UomPropertyType("m", null);
    QuantityType quantity2 = new QuantityType("urn:x-ogc:def:property:precision", uom2, 0.05);
    DataComponentPropertyType p2 = new DataComponentPropertyType("precision", "urn:x-ogc:def:property:precision", quantity2);
    params.add(p2);
    QuantityRange quantityRange = new QuantityRange(uom2, Arrays.asList(0.0, 10.0));
    DataComponentPropertyType p3 = new DataComponentPropertyType("validity", "urn:x-ogc:def:property:validity", quantityRange);
    params.add(p3);
    ParameterList paramList = new ParameterList(params);
    Parameters parameters = new Parameters(paramList);
    component.setParameters(parameters);
    component.setPosition(new Position("conductivitePosition", "piezometer#piezoPosition"));
    component.setName(new DefaultIdentifier("Capteur Profondeur de ARGELES"));
    member.setProcess(sml100Factory.createComponent(component));
    SensorML expectedResult = new SensorML("1.0", Arrays.asList(member));
    assertEquals(result.getMember().size(), 1);
    assertTrue(result.getMember().get(0).getProcess() != null);
    assertTrue(result.getMember().get(0).getProcess().getValue() instanceof ComponentType);
    ComponentType resultProcess = (ComponentType) result.getMember().get(0).getProcess().getValue();
    assertEquals(resultProcess.getCapabilities(), component.getCapabilities());
    assertTrue(resultProcess.getContact().size() == 1);
    assertEquals(resultProcess.getContact().get(0).getContactList(), component.getContact().get(0).getContactList());
    assertEquals(resultProcess.getContact().get(0).getResponsibleParty().getContactInfo(), component.getContact().get(0).getResponsibleParty().getContactInfo());
    assertEquals(resultProcess.getContact().get(0).getResponsibleParty().getOrganizationName(), component.getContact().get(0).getResponsibleParty().getOrganizationName());
    assertEquals(resultProcess.getContact().get(0).getResponsibleParty(), component.getContact().get(0).getResponsibleParty());
    assertEquals(resultProcess.getContact().get(0), component.getContact().get(0));
    assertEquals(resultProcess.getContact(), component.getContact());
    assertTrue(resultProcess.getClassification().size() == 1);
    assertTrue(resultProcess.getClassification().get(0).getClassifierList().getClassifier().size() == 2);
    assertEquals(resultProcess.getClassification().get(0).getClassifierList().getClassifier().get(0).getTerm(), component.getClassification().get(0).getClassifierList().getClassifier().get(0).getTerm());
    assertEquals(resultProcess.getClassification().get(0).getClassifierList().getClassifier().get(0), component.getClassification().get(0).getClassifierList().getClassifier().get(0));
    assertEquals(resultProcess.getClassification().get(0).getClassifierList().getClassifier(), component.getClassification().get(0).getClassifierList().getClassifier());
    assertEquals(resultProcess.getClassification().get(0).getClassifierList(), component.getClassification().get(0).getClassifierList());
    assertEquals(resultProcess.getClassification().get(0), component.getClassification().get(0));
    assertEquals(resultProcess.getClassification(), component.getClassification());
    assertEquals(resultProcess.getIdentification(), component.getIdentification());
    assertEquals(resultProcess.getValidTime(), component.getValidTime());
    assertEquals(resultProcess.getParameters(), component.getParameters());
    assertEquals(resultProcess.getInputs().getInputList().getInput(), component.getInputs().getInputList().getInput());
    assertEquals(resultProcess.getInputs().getInputList(), component.getInputs().getInputList());
    assertEquals(resultProcess.getInputs(), component.getInputs());
    assertEquals(resultProcess.getOutputs(), component.getOutputs());
    assertEquals(resultProcess.getSMLLocation(), component.getSMLLocation());
    assertEquals(resultProcess.getPosition(), component.getPosition());
    assertEquals(resultProcess.getSpatialReferenceFrame(), component.getSpatialReferenceFrame());
    assertEquals(resultProcess.getDocumentation(), component.getDocumentation());
    assertEquals(resultProcess.getCharacteristics(), component.getCharacteristics());
    assertEquals(resultProcess.getKeywords(), component.getKeywords());
    assertEquals(resultProcess.getParameters(), component.getParameters());
    assertEquals(resultProcess.getName(), component.getName());
    assertEquals(resultProcess, component);
    assertEquals(expectedResult.getMember().get(0), result.getMember().get(0));
    assertEquals(expectedResult.getMember(), result.getMember());
    assertEquals(expectedResult, result);
    SensorMLMarshallerPool.getInstance().recycle(unmarshaller);
}

Example 2 with Parameters

use of org.geotoolkit.sml.xml.v100.Parameters in project gravitee-access-management by gravitee-io.

the class UMATokenGranter method executePolicies.

/**
 * The resource owner works with the authorization server to configure policy conditions (authorization grant rules), which the authorization server executes in the process of issuing access tokens.
 * The authorization process makes use of claims gathered from the requesting party and client in order to satisfy all operative operative policy conditions.
 * @param oAuth2Request OAuth 2.0 Token Request
 * @param client client
 * @param endUser requesting party
 * @return
 */
private Single<OAuth2Request> executePolicies(OAuth2Request oAuth2Request, Client client, User endUser) {
    List<PermissionRequest> permissionRequests = oAuth2Request.getPermissions();
    if (permissionRequests == null || permissionRequests.isEmpty()) {
        return Single.just(oAuth2Request);
    }
    List<String> resourceIds = permissionRequests.stream().map(PermissionRequest::getResourceId).collect(Collectors.toList());
    // find access policies for the given resources
    return resourceService.findAccessPoliciesByResources(resourceIds).map(accessPolicy -> {
        Rule rule = new DefaultRule(accessPolicy);
        Optional<PermissionRequest> permission = permissionRequests.stream().filter(permissionRequest -> permissionRequest.getResourceId().equals(accessPolicy.getResource())).findFirst();
        if (permission.isPresent()) {
            ((DefaultRule) rule).setMetadata(Collections.singletonMap("permissionRequest", permission.get()));
        }
        return rule;
    }).toList().flatMap(rules -> {
        // no policy registered, continue
        if (rules.isEmpty()) {
            return Single.just(oAuth2Request);
        }
        // prepare the execution context
        ExecutionContext simpleExecutionContext = new SimpleExecutionContext(oAuth2Request, oAuth2Request.getHttpResponse());
        ExecutionContext executionContext = executionContextFactory.create(simpleExecutionContext);
        executionContext.setAttribute("client", new ClientProperties(client));
        if (endUser != null) {
            executionContext.setAttribute("user", new UserProperties(endUser));
        }
        // execute the policies
        return rulesEngine.fire(rules, executionContext).toSingleDefault(oAuth2Request).onErrorResumeNext(ex -> Single.error(new InvalidGrantException("Policy conditions are not met for actual request parameters")));
    });
}

Example 3 with Parameters

use of org.geotoolkit.sml.xml.v100.Parameters in project gravitee-access-management by gravitee-io.

the class AuthorizationCodeTokenGranter method parseRequest.

@Override
protected Single<TokenRequest> parseRequest(TokenRequest tokenRequest, Client client) {
    MultiValueMap<String, String> parameters = tokenRequest.parameters();
    String code = parameters.getFirst(Parameters.CODE);
    if (code == null || code.isEmpty()) {
        return Single.error(new InvalidRequestException("Missing parameter: code"));
    }
    return super.parseRequest(tokenRequest, client).flatMap(tokenRequest1 -> authorizationCodeService.remove(code, client).flatMap(authorizationCode -> authenticationFlowContextService.removeContext(authorizationCode.getTransactionId(), authorizationCode.getContextVersion()).onErrorResumeNext(error -> (exitOnError) ? Maybe.error(error) : Maybe.just(new AuthenticationFlowContext())).map(ctx -> {
        checkRedirectUris(tokenRequest1, authorizationCode);
        checkPKCE(tokenRequest1, authorizationCode);
        // set resource owner
        tokenRequest1.setSubject(authorizationCode.getSubject());
        // set original scopes
        tokenRequest1.setScopes(authorizationCode.getScopes());
        // set authorization code initial request parameters (step1 of authorization code flow)
        if (authorizationCode.getRequestParameters() != null) {
            authorizationCode.getRequestParameters().forEach((key, value) -> tokenRequest1.parameters().putIfAbsent(key, value));
        }
        // set decoded authorization code to the current request
        Map<String, Object> decodedAuthorizationCode = new HashMap<>();
        decodedAuthorizationCode.put("code", authorizationCode.getCode());
        decodedAuthorizationCode.put("transactionId", authorizationCode.getTransactionId());
        tokenRequest1.setAuthorizationCode(decodedAuthorizationCode);
        // store only the AuthenticationFlowContext.data attributes in order to simplify EL templating
        // and provide an up to date set of data if the enrichAuthFlow Policy ius used multiple time in a step
        // {#context.attributes['authFlow']['entry']}
        tokenRequest1.getContext().put(ConstantKeys.AUTH_FLOW_CONTEXT_ATTRIBUTES_KEY, ctx.getData());
        return tokenRequest1;
    })).toSingle());
}

Example 4 with Parameters

use of org.geotoolkit.sml.xml.v100.Parameters in project gravitee-access-management by gravitee-io.

the class AuthorizationRequestFailureHandler method processOAuth2Exception.

private void processOAuth2Exception(AuthorizationRequest authorizationRequest, OAuth2Exception oAuth2Exception, Client client, String defaultErrorURL, RoutingContext context, Handler<AsyncResult<String>> handler) {
    final String clientId = authorizationRequest.getClientId();
    // no client available or missing redirect_uri, go to default error page
    if (clientId == null || client == null || authorizationRequest.getRedirectUri() == null) {
        authorizationRequest.setRedirectUri(defaultErrorURL);
    }
    // user set a wrong redirect_uri, go to default error page
    if (oAuth2Exception instanceof RedirectMismatchException) {
        authorizationRequest.setRedirectUri(defaultErrorURL);
    }
    // check if the redirect_uri request parameter is allowed
    if (client != null && client.getRedirectUris() != null && authorizationRequest.getRedirectUri() != null && !client.getRedirectUris().contains(authorizationRequest.getRedirectUri())) {
        authorizationRequest.setRedirectUri(defaultErrorURL);
    }
    // return to the default error page to avoid redirect using wrong response mode
    if (oAuth2Exception instanceof InvalidRequestObjectException && context.get(ConstantKeys.REQUEST_OBJECT_KEY) == null) {
        authorizationRequest.setRedirectUri(defaultErrorURL);
    }
    // Process error response
    try {
        // Response Mode is not supplied by the client, process the response as usual
        if (client == null || authorizationRequest.getResponseMode() == null || !authorizationRequest.getResponseMode().endsWith("jwt")) {
            // redirect user
            handler.handle(Future.succeededFuture(buildRedirectUri(oAuth2Exception.getOAuth2ErrorCode(), oAuth2Exception.getMessage(), authorizationRequest, context)));
            return;
        }
        // Otherwise the JWT contains the error response parameters
        JWTOAuth2Exception jwtException = new JWTOAuth2Exception(oAuth2Exception, authorizationRequest.getState());
        jwtException.setIss(openIDDiscoveryService.getIssuer(authorizationRequest.getOrigin()));
        jwtException.setAud(client.getClientId());
        // There is nothing about expiration. We admit to use the one settled for authorization code validity
        jwtException.setExp(Instant.now().plusSeconds(this.codeValidityInSec).getEpochSecond());
        // Sign if needed, else return unsigned JWT
        jwtService.encodeAuthorization(jwtException.build(), client).flatMap(authorization -> jweService.encryptAuthorization(authorization, client)).subscribe(jwt -> handler.handle(Future.succeededFuture(jwtException.buildRedirectUri(authorizationRequest.getRedirectUri(), authorizationRequest.getResponseType(), authorizationRequest.getResponseMode(), jwt))), ex -> handler.handle(Future.failedFuture(ex)));
    } catch (Exception e) {
        handler.handle(Future.failedFuture(e));
    }
}

Example 5 with Parameters

use of org.geotoolkit.sml.xml.v100.Parameters in project geotoolkit by Geomatys.

the class SmlXMLFactory method convertTo101.

public static org.geotoolkit.sml.xml.v101.SensorML convertTo101(final org.geotoolkit.sml.xml.v100.SensorML sensor) {
    List<org.geotoolkit.sml.xml.v101.SensorML.Member> newMembers = new ArrayList<org.geotoolkit.sml.xml.v101.SensorML.Member>();
    for (Member oldMember : sensor.getMember()) {
        final org.geotoolkit.sml.xml.v101.AbstractProcessType newProcess;
        if (oldMember.getRealProcess() instanceof System) {
            newProcess = new org.geotoolkit.sml.xml.v101.SystemType();
        } else if (oldMember.getRealProcess() instanceof Component) {
            newProcess = new org.geotoolkit.sml.xml.v101.ComponentType();
        } else if (oldMember.getRealProcess() instanceof AbstractDataSource) {
            newProcess = new org.geotoolkit.sml.xml.v101.DataSourceType();
        } else if (oldMember.getRealProcess() instanceof AbstractProcessModel) {
            newProcess = new org.geotoolkit.sml.xml.v101.ProcessModelType();
        } else if (oldMember.getRealProcess() instanceof ComponentArray) {
            newProcess = new org.geotoolkit.sml.xml.v101.ComponentArrayType();
        } else {
            throw new IllegalArgumentException("Other sensor type than system, component, processModel, processChain, componentArray or datasource are not yet convertible");
        }
        AbstractProcessType oldProcess = (AbstractProcessType) oldMember.getRealProcess();
        // id
        newProcess.setId(oldProcess.getId());
        // name
        newProcess.setName(oldProcess.getName());
        // srsName
        newProcess.setSrsName(oldProcess.getSrsName());
        // description
        newProcess.setDescription(oldProcess.getDescription());
        // boundedBy
        newProcess.setBoundedBy(oldProcess.getBoundedBy());
        // capabilities
        List<org.geotoolkit.sml.xml.v101.Capabilities> newCapabilities = new ArrayList<org.geotoolkit.sml.xml.v101.Capabilities>();
        for (Capabilities oldCapa : oldProcess.getCapabilities()) {
            newCapabilities.add(new org.geotoolkit.sml.xml.v101.Capabilities(oldCapa));
        }
        newProcess.setCapabilities(newCapabilities);
        // characteristics
        List<org.geotoolkit.sml.xml.v101.Characteristics> newCharacteristics = new ArrayList<org.geotoolkit.sml.xml.v101.Characteristics>();
        for (Characteristics oldChar : oldProcess.getCharacteristics()) {
            newCharacteristics.add(new org.geotoolkit.sml.xml.v101.Characteristics(oldChar));
        }
        newProcess.setCharacteristics(newCharacteristics);
        // Classification
        List<org.geotoolkit.sml.xml.v101.Classification> newClassification = new ArrayList<org.geotoolkit.sml.xml.v101.Classification>();
        for (Classification oldClass : oldProcess.getClassification()) {
            newClassification.add(new org.geotoolkit.sml.xml.v101.Classification(oldClass));
        }
        newProcess.setClassification(newClassification);
        // Contact
        List<org.geotoolkit.sml.xml.v101.Contact> newContact = new ArrayList<org.geotoolkit.sml.xml.v101.Contact>();
        for (Contact oldContact : oldProcess.getContact()) {
            newContact.add(new org.geotoolkit.sml.xml.v101.Contact(oldContact));
        }
        newProcess.setContact(newContact);
        // Contact
        List<org.geotoolkit.sml.xml.v101.Documentation> newDocumentation = new ArrayList<org.geotoolkit.sml.xml.v101.Documentation>();
        for (Documentation oldDoc : oldProcess.getDocumentation()) {
            newDocumentation.add(new org.geotoolkit.sml.xml.v101.Documentation(oldDoc));
        }
        newProcess.setDocumentation(newDocumentation);
        // History
        List<org.geotoolkit.sml.xml.v101.History> newHistory = new ArrayList<org.geotoolkit.sml.xml.v101.History>();
        for (History oldhist : oldProcess.getHistory()) {
            newHistory.add(new org.geotoolkit.sml.xml.v101.History(oldhist));
        }
        newProcess.setHistory(newHistory);
        // Identification
        List<org.geotoolkit.sml.xml.v101.Identification> newIdentification = new ArrayList<org.geotoolkit.sml.xml.v101.Identification>();
        for (Identification oldIdent : oldProcess.getIdentification()) {
            newIdentification.add(new org.geotoolkit.sml.xml.v101.Identification(oldIdent));
        }
        newProcess.setIdentification(newIdentification);
        // keywords
        List<org.geotoolkit.sml.xml.v101.Keywords> newKeywords = new ArrayList<org.geotoolkit.sml.xml.v101.Keywords>();
        for (Keywords oldKeyw : oldProcess.getKeywords()) {
            newKeywords.add(new org.geotoolkit.sml.xml.v101.Keywords(oldKeyw));
        }
        newProcess.setKeywords(newKeywords);
        // legal constraint
        List<org.geotoolkit.sml.xml.v101.LegalConstraint> newLegalConstraints = new ArrayList<org.geotoolkit.sml.xml.v101.LegalConstraint>();
        for (LegalConstraint oldcons : oldProcess.getLegalConstraint()) {
            newLegalConstraints.add(new org.geotoolkit.sml.xml.v101.LegalConstraint(oldcons));
        }
        newProcess.setLegalConstraint(newLegalConstraints);
        // security constraint
        if (oldProcess.getSecurityConstraint() != null) {
            newProcess.setSecurityConstraint(new org.geotoolkit.sml.xml.v101.SecurityConstraint(oldProcess.getSecurityConstraint()));
        }
        // validTime
        if (oldProcess.getValidTime() != null) {
            newProcess.setValidTime(oldProcess.getValidTime());
        }
        if (oldProcess instanceof AbstractComponent) {
            AbstractComponent newAbsComponent = (AbstractComponent) newProcess;
            AbstractComponent oldAbsComponent = (AbstractComponent) oldProcess;
            // Inputs
            if (oldAbsComponent.getInputs() != null) {
                newAbsComponent.setInputs(oldAbsComponent.getInputs());
            }
            // outputs
            if (oldAbsComponent.getOutputs() != null) {
                newAbsComponent.setOutputs(oldAbsComponent.getOutputs());
            }
            // parameters
            if (oldAbsComponent.getParameters() != null) {
                newAbsComponent.setParameters(oldAbsComponent.getParameters());
            }
        }
        if (oldProcess instanceof AbstractDerivableComponent) {
            org.geotoolkit.sml.xml.v101.AbstractDerivableComponentType newDerComponent = (org.geotoolkit.sml.xml.v101.AbstractDerivableComponentType) newProcess;
            AbstractDerivableComponent oldDerComponent = (AbstractDerivableComponent) oldProcess;
            // Position
            if (oldDerComponent.getPosition() != null) {
                newDerComponent.setPosition(oldDerComponent.getPosition());
            }
            if (oldDerComponent.getSMLLocation() != null) {
                newDerComponent.setSMLLocation(oldDerComponent.getSMLLocation());
            }
            if (oldDerComponent.getInterfaces() != null) {
                newDerComponent.setInterfaces(new org.geotoolkit.sml.xml.v101.Interfaces(oldDerComponent.getInterfaces()));
            }
            if (oldDerComponent.getSpatialReferenceFrame() != null) {
                newDerComponent.setSpatialReferenceFrame(new org.geotoolkit.sml.xml.v101.SpatialReferenceFrame(oldDerComponent.getSpatialReferenceFrame()));
            }
            if (oldDerComponent.getTemporalReferenceFrame() != null) {
                newDerComponent.setTemporalReferenceFrame(new org.geotoolkit.sml.xml.v101.TemporalReferenceFrame(oldDerComponent.getTemporalReferenceFrame()));
            }
            if (oldDerComponent.getTimePosition() != null) {
                newDerComponent.setTimePosition(new org.geotoolkit.sml.xml.v101.TimePosition(oldDerComponent.getTimePosition()));
            }
        }
        if (oldProcess instanceof AbstractPureProcess) {
            org.geotoolkit.sml.xml.v101.AbstractPureProcessType newAbsPuProc = (org.geotoolkit.sml.xml.v101.AbstractPureProcessType) newProcess;
            AbstractPureProcess oldAbsPuProc = (AbstractPureProcess) oldProcess;
            // Inputs
            if (oldAbsPuProc.getInputs() != null) {
                newAbsPuProc.setInputs(new org.geotoolkit.sml.xml.v101.Inputs(oldAbsPuProc.getInputs()));
            }
            // outputs
            if (oldAbsPuProc.getOutputs() != null) {
                newAbsPuProc.setOutputs(new org.geotoolkit.sml.xml.v101.Outputs(oldAbsPuProc.getOutputs()));
            }
            // parameters
            if (oldAbsPuProc.getParameters() != null) {
                newAbsPuProc.setParameters(new org.geotoolkit.sml.xml.v101.Parameters(oldAbsPuProc.getParameters()));
            }
        }
        if (oldMember.getRealProcess() instanceof System) {
            SystemType oldSystem = (SystemType) oldMember.getRealProcess();
            org.geotoolkit.sml.xml.v101.SystemType newSystem = (org.geotoolkit.sml.xml.v101.SystemType) newProcess;
            // components
            if (oldSystem.getComponents() != null) {
                newSystem.setComponents(new org.geotoolkit.sml.xml.v101.Components(oldSystem.getComponents()));
            }
            // positions
            if (oldSystem.getPositions() != null) {
                newSystem.setPositions(new org.geotoolkit.sml.xml.v101.Positions(oldSystem.getPositions()));
            }
            // connections
            if (oldSystem.getConnections() != null) {
                newSystem.setConnections(new org.geotoolkit.sml.xml.v101.Connections(oldSystem.getConnections()));
            }
        } else if (oldMember.getRealProcess() instanceof Component) {
            ComponentType oldComponent = (ComponentType) oldMember.getRealProcess();
            org.geotoolkit.sml.xml.v101.ComponentType newCompo = (org.geotoolkit.sml.xml.v101.ComponentType) newProcess;
            // method
            if (oldComponent.getMethod() != null) {
                newCompo.setMethod(new org.geotoolkit.sml.xml.v101.MethodPropertyType(oldComponent.getMethod()));
            }
        } else if (oldMember.getRealProcess() instanceof AbstractDataSource) {
            DataSourceType oldDataSource = (DataSourceType) oldMember.getRealProcess();
            org.geotoolkit.sml.xml.v101.DataSourceType newDataSource = (org.geotoolkit.sml.xml.v101.DataSourceType) newProcess;
            if (oldDataSource.getDataDefinition() != null) {
                newDataSource.setDataDefinition(new org.geotoolkit.sml.xml.v101.DataDefinition(oldDataSource.getDataDefinition()));
            }
            if (oldDataSource.getValues() != null) {
                newDataSource.setValues(new org.geotoolkit.sml.xml.v101.Values(oldDataSource.getValues()));
            }
            if (oldDataSource.getObservationReference() != null) {
                newDataSource.setObservationReference(new org.geotoolkit.sml.xml.v101.ObservationReference(oldDataSource.getObservationReference()));
            }
        } else if (oldMember.getRealProcess() instanceof AbstractProcessModel) {
            ProcessModelType oldProcessModel = (ProcessModelType) oldMember.getRealProcess();
            org.geotoolkit.sml.xml.v101.ProcessModelType newProcessModel = (org.geotoolkit.sml.xml.v101.ProcessModelType) newProcess;
            if (oldProcessModel.getMethod() != null) {
                newProcessModel.setMethod(new org.geotoolkit.sml.xml.v101.MethodPropertyType(oldProcessModel.getMethod()));
            }
        } else if (oldMember.getRealProcess() instanceof AbstractProcessChain) {
            ProcessChainType oldProcessChain = (ProcessChainType) oldMember.getRealProcess();
            org.geotoolkit.sml.xml.v101.ProcessChainType newProcessChain = (org.geotoolkit.sml.xml.v101.ProcessChainType) newProcess;
            // components
            if (oldProcessChain.getComponents() != null) {
                newProcessChain.setComponents(new org.geotoolkit.sml.xml.v101.Components(oldProcessChain.getComponents()));
            }
            // connections
            if (oldProcessChain.getConnections() != null) {
                newProcessChain.setConnections(new org.geotoolkit.sml.xml.v101.Connections(oldProcessChain.getConnections()));
            }
        } else if (oldMember.getRealProcess() instanceof ComponentArray) {
        // nothing to do
        } else {
            throw new IllegalArgumentException("Other sensor type than system ,component, processModel, processChain, componentArray or datasource are not yet convertible");
        }
        newMembers.add(new org.geotoolkit.sml.xml.v101.SensorML.Member(newProcess));
    }
    org.geotoolkit.sml.xml.v101.SensorML result = new org.geotoolkit.sml.xml.v101.SensorML("1.0.1", newMembers);
    return result;
}