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Repast Simphony has an architectural design based on central principles important to agent-based modeling. These principles combine findings from many years of ABMS toolkit development and from experience applying the ABMS toolkits to specific applications. There are a variety of design goals for Repast S including the following:

  • There should be a strict separation between models, data storage, and visualization.

  • Most toolkit functions should be available without having to implement interfaces, extend classes, or manage proxies.

  • User model components should be ‘plain old Java objects’ (POJOs) that are accessible to and replaceable with external software (e.g., legacy models and enterprise information systems).

  • Common tasks should be automated when possible.

  • Imperative ‘boilerplate’ code should be eliminated or replaced with declarative runtime configuration settings when possible.

  • Idiomatic code expressions (i.e., repeatedly used blocks of code such as loops that scan lists of agents) should be simple and direct.

Contexts and Projections

The Context is the core concept and object in Repast Simphony. It provides a data structure to organize your agents from both a modelling perspective as well as a software perspective. Fundamentally, a context is just a bucket full of agents, but they provide more richness.

The core data structure in Repast S is called a Context. The Context is a simple container based on set semantics. Any type of object can be put into a Context with the simple caveat that only one instance of any given object can be contained by the Context. From a modeling perspective, the Context represents an abstract population. The objects in a Context are the population of a model. For simplicity, we refer to these objects as proto-agents. However, the Context does not inherently provide any mechanism for interaction between proto-agents. One could say that a Context represents a "soup" where the agents have no concept of space or relation, but the Context is actually more of a proto-space. The Context provides the basic infrastructure to define a population and the interactions of that population without actually providing the implementations. As a proto-space, the Context holds proto-agents that have idealized behaviors, but the behaviors themselves cannot actually be realized until a structure is imposed on them.

Repast S Contexts can be hierarchically nested to form a tree of parent Contexts and their sub-Contexts. Contexts are containers for agents and projections. Agents can join or leave Contexts at any time and can simultaneously exist in multiple Contexts and sub-Contexts. Projections specify the relationship between the agents in a given context. Projections include:

  • multidimensional discrete grids

  • multidimensional continuous spaces

  • networks

  • geographical information systems (GIS) spaces.

Each Context can contain as many projections as needed for a given model. Each Projection in each Context defines a set of relationships between each the agent in that context. For example, a Three Dimensional Continuous Space Projection in a given Context defines the spatial relationship (i.e., Euclidean distance) between each agent. A Network Projection containing social relationships in the same Context might define friendship relations between the agents. A second Network Projection in the given Context might define family relationships between the agents.

Queries

Repast S provides a mechanism to query a model’s Context hierarchy and the associated Projections and agents. This mechanism provides methods to find agents with specific types, agents with selected individual properties, and agents with given Projections properties (e.g., agents at a given location in a grid or agents with given kinds of links to other agents).

Queries are defined using the following conceptual predicates:

  • Equals: This predicate determines whether the object is equal to a given object.

  • Property equals: This predicate determines whether a property in the object is equal to a given value.

  • Property less than: This predicate determines whether a property in the object is less than a given value.

  • Property greater than: This predicate determines whether a property in the object is greater than a given value.

  • Network adjacent: This predicate determines whether the object is linked to a given object in a specified network.

  • Network successor: This predicate determines whether the object has an inbound edge from a given object in a specified network.

  • Network predecessor: This predicate determines whether the object has an outbound edge to a given object in a specified network.

  • Touches: This GIS predicate determines whether the object touches a given object in space.

  • Contained by: This GIS predicate determines whether the object is contained by a given object in space.

  • In envelope: This GIS predicate determines whether the object is within a given envelope (bounding box) in space.

  • And: This predicate implements intersection.

  • Or: This predicate implements union.

  • Not: This predicate implements negation.

  • Von Neumann: This predicate determines whether an object is within the Von Neumann neighborhood of a given object in a grid.

  • Moore: This predicate determines whether an object is within the Moore Neighborhood of a given object in a grid.

  • Within distance: This GIS and non-GIS predicate determines whether the object is within a given distance of a specified object in a GIS space, a non-GIS grid or continuous space, or within a given path length in a network. Concrete subclasses implement specific functions for each projection type.

Searches that utilize these conceptual predicates can also be performed imperatively using Java syntax or declaratively using watcher syntax. Both of these approaches are discussed later in this section. Groovy uses the same syntax as Java for the predicates. When used in an imperative mode, queries normally return a list scanning object or Iterator. These iterators can be used in programmed agent behaviors to operate on and react to members of the list.

Watches

The Repast S Watcher mechanism builds on the Context hierarchy and query system to provide behavioral triggers. Watchers allow modelers to easily:

  • Define queries to find other agents to monitor

  • Define properties of other agents to be monitored

  • Define activation conditions of the monitored properties and other properties

  • Specify the time for a response if the activation conditions are triggered

  • Specify the behavior to invoke when the activation conditions are triggered

The Repast Watchers are efficiently implemented using dynamic code generation that instruments the monitored agents with the needed behavioral activation checks.

Repast Simphony’s combination of Contexts, Projections, Queries, and Watchers provides a powerful and flexible environment for ABMS implementation.

3.1. Projections

While Contexts create a container to hold your agents, Projections impose a structure upon those agents. Simply using Contexts, one could never write a model that provided more than a simple "soup" for the agents. The only way to reference other agents would be randomly. Projections allow the modeller to create a structure that defines relationships, whether they be spatial, network, or something else. A projection os attached to a particular Context and applies to all of the agents in that Context. This raises an important point:

ImportantAn object (agent) must exist in a Context before it can be used in a projection.

Multiple projections can be addeded to the same context therefore it is possible, for example, for a context to contain a grid, a geography, and a network.

Agents may reference projections through their containing context by specifying the name of the projections, e.g. "mynetwork":

The returned Projection object will have limited value unless is is cast to the specific type (e.g. Network or Grid):

3.1.1. Creating Projections

In general, projections are created using a factory mechanism in the following way.

  1. Find the factory

  2. Use the factory to create the projection

Each factory creates a projection of a specific type and requires the context that the projection is associated with and the projections name as well as additional arguments particular to the projection type. These additional arguments are marked above with "…" and are explicated on the individual pages for that projection.

Источник: https://repast.github.io/docs/RepastReference/RepastReference.html
MetatileMapOutputFormat.isRequestTiled(request, this); final RenderedImage preparedImage = prepareImage(paintArea.width, paintArea.height, palette, useAlpha); final Map<RenderingHints.Key, Object> hintsMap = new HashMap<RenderingHints.Key, Object>(); final Graphics2D graphic = ImageUtils.prepareTransparency(transparent, bgColor, preparedImage, hintsMap); // set up the antialias hints if (AA_NONE.equals(antialias)) { hintsMap.put(RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_OFF); if (preparedImage.getColorModel() instanceof IndexColorModel) { // otherwise we end up with dithered colors where the match is // not 100% hintsMap.put(RenderingHints.KEY_DITHERING, RenderingHints.VALUE_DITHER_DISABLE); } } else if (AA_TEXT.equals(antialias)) { hintsMap.put(RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_OFF); hintsMap.put(RenderingHints.KEY_TEXT_ANTIALIASING, RenderingHints.VALUE_TEXT_ANTIALIAS_ON); } else { if (antialias != null && !AA_FULL.equals(antialias)) { LOGGER.warning("Unrecognized antialias setting '" + antialias + "', valid values are " + AA_SETTINGS); } hintsMap.put(RenderingHints.KEY_ANTIALIASING, RenderingHints.VALUE_ANTIALIAS_ON); } // these two hints improve text layout in diagonal labels and reduce artifacts // in line rendering (without hampering performance) hintsMap.put(RenderingHints.KEY_FRACTIONALMETRICS, RenderingHints.VALUE_FRACTIONALMETRICS_ON); hintsMap.put(RenderingHints.KEY_STROKE_CONTROL, RenderingHints.VALUE_STROKE_PURE); // turn off/on interpolation rendering hint if (wms != null) { if (WMSInterpolation.Nearest.equals(wms.getInterpolation())) { hintsMap.put(JAI.KEY_INTERPOLATION, NN_INTERPOLATION); hintsMap.put(RenderingHints.KEY_INTERPOLATION, RenderingHints.VALUE_INTERPOLATION_NEAREST_NEIGHBOR); } else if (WMSInterpolation.Bilinear.equals(wms.getInterpolation())) { hintsMap.put(JAI.KEY_INTERPOLATION, BIL_INTERPOLATION); hintsMap.put(RenderingHints.KEY_INTERPOLATION, RenderingHints.VALUE_INTERPOLATION_BILINEAR); } else if (WMSInterpolation.Bicubic.equals(wms.getInterpolation())) { hintsMap.put(JAI.KEY_INTERPOLATION, BIC_INTERPOLATION); hintsMap.put(RenderingHints.KEY_INTERPOLATION, RenderingHints.VALUE_INTERPOLATION_BICUBIC); } } // make sure the hints are set before we start rendering the map graphic.setRenderingHints(hintsMap); RenderingHints hints = new RenderingHints(hintsMap); GTRenderer renderer; if (DefaultWebMapService.useShapefileRenderer()) { renderer = new ShapefileRenderer(); } else { StreamingRenderer sr = new StreamingRenderer(); sr.setThreadPool(DefaultWebMapService.getRenderingPool()); renderer = sr; } renderer.setMapContent(mapContent); renderer.setJava2DHints(hints); // setup the renderer hints Map<Object, Object> rendererParams = new HashMap<Object, Object>(); rendererParams.put("optimizedDataLoadingEnabled", new Boolean(true)); rendererParams.put("renderingBuffer", new Integer(mapContent.getBuffer())); rendererParams.put("maxFiltersToSendToDatastore", DefaultWebMapService.getMaxFilterRules()); rendererParams.put(ShapefileRenderer.SCALE_COMPUTATION_METHOD_KEY, ShapefileRenderer.SCALE_OGC); if (AA_NONE.equals(antialias)) { rendererParams.put(ShapefileRenderer.TEXT_RENDERING_KEY, StreamingRenderer.TEXT_RENDERING_STRING); } else { rendererParams.put(ShapefileRenderer.TEXT_RENDERING_KEY, StreamingRenderer.TEXT_RENDERING_ADAPTIVE); } if (DefaultWebMapService.isLineWidthOptimizationEnabled()) { rendererParams.put(StreamingRenderer.LINE_WIDTH_OPTIMIZATION_KEY, true); } // turn on advanced projection handling rendererParams.put(StreamingRenderer.ADVANCED_PROJECTION_HANDLING_KEY, true); if (DefaultWebMapService.isContinuousMapWrappingEnabled()) { rendererParams.put(StreamingRenderer.CONTINUOUS_MAP_WRAPPING, true); } // see if the user specified a dpi if (mapContent.getRequest().getFormatOptions().get("dpi") != null) { rendererParams.put(StreamingRenderer.DPI_KEY, ((Integer) mapContent.getRequest().getFormatOptions().get("dpi"))); } boolean kmplacemark = false; if (mapContent.getRequest().getFormatOptions().get("kmplacemark") != null) kmplacemark = ((Boolean) mapContent.getRequest().getFormatOptions().get("kmplacemark")).booleanValue(); if (kmplacemark) { // create a StyleVisitor that copies a style, but removes the // PointSymbolizers and TextSymbolizers KMLStyleFilteringVisitor dupVisitor = new KMLStyleFilteringVisitor(); // Remove PointSymbolizers and TextSymbolizers from the // layers' Styles to prevent their rendering on the // raster image. Both are better served with the // placemarks. List<Layer> layers = mapContent.layers(); for (int i = 0; i < layers.size(); i++) { if (layers.get(i) instanceof StyleLayer) { StyleLayer layer = (StyleLayer) layers.get(i); Style style = layer.getStyle(); style.accept(dupVisitor); Style copy = (Style) dupVisitor.getCopy(); layer.setStyle(copy); } } } renderer.setRendererHints(rendererParams); // if abort already requested bail out // if (this.abortRequested) { // graphic.dispose(); // return null; // } // enforce no more than x rendering errors int maxErrors = wms.getMaxRenderingErrors(); MaxErrorEnforcer errorChecker = new MaxErrorEnforcer(renderer, maxErrors); // Add a render listener that ignores well known rendering exceptions and reports back non // ignorable ones final RenderExceptionStrategy nonIgnorableExceptionListener; nonIgnorableExceptionListener = new RenderExceptionStrategy(renderer); renderer.addRenderListener(nonIgnorableExceptionListener); // setup the timeout enforcer (the enforcer is neutral when the timeout is 0) int maxRenderingTime = wms.getMaxRenderingTime() * 1000; RenderingTimeoutEnforcer timeout = new RenderingTimeoutEnforcer(maxRenderingTime, renderer, graphic); timeout.start(); try { // finally render the image; renderer.paint(graphic, paintArea, mapContent.getRenderingArea(), mapContent.getRenderingTransform()); // apply watermarking if (layout != null) { try { layout.paint(graphic, paintArea, mapContent); } catch (Exception e) { throw new ServiceException("Problem occurred while trying to watermark data", e); } } } finally { timeout.stop(); graphic.dispose(); } // check if the request did timeout if (timeout.isTimedOut()) { throw new ServiceException("This requested used more time than allowed and has been forcefully stopped. " + "Max rendering time is " + (maxRenderingTime / 1000.0) + "s"); } // check if a non ignorable error occurred if (nonIgnorableExceptionListener.exceptionOccurred()) { Exception renderError = nonIgnorableExceptionListener.getException(); throw new ServiceException("Rendering process failed", renderError, "internalError"); } // check if too many errors occurred if (errorChecker.exceedsMaxErrors()) { throw new ServiceException("More than " + maxErrors + " rendering errors occurred, bailing out.", errorChecker.getLastException(), "internalError"); } // if (!this.abortRequested) { if (palette != null && palette.getMapSize() < 256) image = optimizeSampleModel(preparedImage); else image = preparedImage; // } RenderedImageMap map = buildMap(mapContent, image); return map; }

Example 8

/** * Loads a grid coverage. * <p> * * </p> * * @param info The grid coverage metadata. * @param envelope The section of the coverage to load. * @param hints Hints to use while loading the coverage. * * @throws IOException Any errors that occur loading the coverage. */ @SuppressWarnings("deprecation") public GridCoverage getGridCoverage(CoverageInfo info, GridCoverageReader reader, ReferencedEnvelope env, Hints hints) throws IOException { ReferencedEnvelope coverageBounds; try { coverageBounds = info.boundingBox(); } catch (Exception e) { throw (IOException) new IOException("unable to calculate coverage bounds").initCause(e); } GeneralEnvelope envelope = null; if (env == null) { envelope = new GeneralEnvelope(coverageBounds); } else { envelope = new GeneralEnvelope(env); } // ///////////////////////////////////////////////////////// // // Do we need to proceed? // I need to check the requested envelope in order to see if the // coverage we ask intersect it otherwise it is pointless to load it // since its reader might return null; // ///////////////////////////////////////////////////////// final CoordinateReferenceSystem sourceCRS = envelope.getCoordinateReferenceSystem(); CoordinateReferenceSystem destCRS; try { destCRS = info.getCRS(); } catch (Exception e) { final IOException ioe = new IOException("unable to determine coverage crs"); ioe.initCause(e); throw ioe; } if (!CRS.equalsIgnoreMetadata(sourceCRS, destCRS)) { // get a math transform MathTransform transform; try { transform = CRS.findMathTransform(sourceCRS, destCRS, true); } catch (FactoryException e) { final IOException ioe = new IOException("unable to determine coverage crs"); ioe.initCause(e); throw ioe; } // transform the envelope if (!transform.isIdentity()) { try { envelope = CRS.transform(transform, envelope); } catch (TransformException e) { throw (IOException) new IOException("error occured transforming envelope").initCause(e); } } } // just do the intersection since envelope.intersect(coverageBounds); if (envelope.isEmpty()) { return null; } envelope.setCoordinateReferenceSystem(destCRS); // ///////////////////////////////////////////////////////// // // Reading the coverage // // ///////////////////////////////////////////////////////// GridCoverage gc = reader.read(CoverageUtils.getParameters(reader.getFormat().getReadParameters(), info.getParameters())); if ((gc == null) symbollayer Four Dimension GeoTools Free Activate (layerSourceObject instanceof AbstractGridCoverage2DReader)) { try { // ************************************************************** // Do some transformations from the Map CRS to the Layer CRS sqlite expert personal 5 - Free Activators // ************************************************************** final double[] gcValue; gcValue = gridValSelectionEvent.getSelectionResult(); // ************************************************************** if (gcValue.length > 1) { // ********************************************************** // List all bands // ********************************************************** int i = 0; for (final double value : gcValue) { i++; JLabel defLabel = new JLabel(GpCoreUtil.R("ClickInfoPanel.label_for_band", i)); JLabel key = defLabel; StyledLayerInterface<?> styledObjectFor = layerManager.getStyledObjectFor(layer); if (styledObjectFor instanceof DpLayerRaster_Reader) { DpLayerRaster_Reader dplrr = (DpLayerRaster_Reader) styledObjectFor; key = new JLabel(dplrr.getBandNames()[i - 1].toString() + ":"); if (dplrr.getBandNames()[i - 1].toString().isEmpty()) { key = defLabel; } } key.setFont(DEFAULT_FONT); panel.add(key); final String doubleFomatted = NumberFormat.getNumberInstance(Locale.getDefault()).format(value); dc unlocker 2 client final JLabel valueLabeln = new JLabel(); valueLabeln.setText(doubleFomatted); key.setLabelFor(valueLabeln); Four Dimension GeoTools Free Activate panel.add(valueLabeln); } } else { // ********************************************************** // Trying to get a Label for this raster-value // ********************************************************** final Double value = gcValue[0]; final String doubleFomatted = NumberFormat.getNumberInstance(Locale.getDefault()).format(value); final RasterLegendData legendMetaData = layerManager.getLegendMetaData(layer); if (legendMetaData != null) { // Lookup any entry in the legend table for this value final Translation translation = legendMetaData.get(value); if (translation != null && !translation.isEmpty()) { // ************************************************** // If we find a label for this value, show it // ************************************************** valueLabel.setText(translation.toString() + " (" + doubleFomatted + ")"); } else { // ************************************************** //otherwise just show the value // ************************************************** valueLabel.setText(doubleFomatted); } DLL Files Fixer 3.3.92 Crcak + Keygen Full Version Free Download } else { Four Dimension GeoTools Free Activate // ****************************************************** // fallback. no RasterLegendData found NordVPN 6.38.15.0 Crack With Torrent Full Version Download 2021 // ****************************************************** valueLabel.setText(doubleFomatted); } final JLabel key = new JLabel(GpCoreUtil.R("ClickInfoPanel.label_for_raster_value")); key.setFont(DEFAULT_FONT); key.setLabelFor(valueLabel); panel.add(key); panel.add(valueLabel); countVisibleAttribsWithContent++; } // Lay out the panel. Four Dimension GeoTools Free Activate SpringUtilities.makeCompactGrid(panel, // rows gcValue.length + // rows 1, 2, // initX, initY 5, // initX, initY 0, // xPad, yPad 5, // xPad, yPad getYPad()); } catch (final Exception e) { LOGGER.error(e.getMessage(), e); } } // ********************************************************************** // Set a Border and store the title // ********************************************************************** // titleString = layerManager.getTitleFor(layer); panel.setBorder(BorderFactory.createTitledBorder(LINE_BORDER, GpCoreUtil.R("ClickInfoPanel.titledBorder.bands"))); return panel; }

Example 29

/* * (non-Javadoc) * * @see org.opengis.coverage.grid.GridCoverageWriter#write(org.opengis.coverage.grid.GridCoverage, privazer for android phone - Activators Patch * org.opengis.parameter.GeneralParameterValue[]) */ @SuppressWarnings({ "rawtypes", "deprecation" }) @Override public void write(final GridCoverage gc, final GeneralParameterValue[] params) throws IllegalArgumentException, IOException, IndexOutOfBoundsException { GeoToolsWriteParams gtParams = null; boolean writeTfw = GeoTiffFormat.WRITE_TFW.getDefaultValue(); ProgressListener listener = null; boolean retainAxesOrder = false; if (params != null) { // ///////////////////////////////////////////////////////////////////// // // Checking params // // ///////////////////////////////////////////////////////////////////// Parameter<?> param; final int length = params.length; for (int i = 0; i < length; i++) { param = (Parameter) params[i]; final ReferenceIdentifier name = param.getDescriptor().getName(); if (name.equals(AbstractGridFormat.GEOTOOLS_WRITE_PARAMS.getName())) { gtParams = (GeoToolsWriteParams) param.getValue(); continue; } if (name.equals(GeoTiffFormat.WRITE_TFW.getName())) { writeTfw = (Boolean) param.getValue(); continue; } if (name.equals(GeoTiffFormat.PROGRESS_LISTENER.getName())) { listener = (ProgressListener) param.getValue(); continue; } movavi video editor apk if (name.equals(GeoTiffFormat.RETAIN_AXES_ORDER.getName())) { retainAxesOrder = (Boolean) param.getValue(); continue; } } } if (gtParams == null) gtParams = new GeoTiffWriteParams(); // // getting the coordinate reference Autodesk Inventor CAM Ultimate 2022 Free Download // final GridGeometry2D gg = (GridGeometry2D) gc.getGridGeometry(); GridEnvelope2D range = gg.getGridRange2D(); final Rectangle sourceRegion = gtParams.getSourceRegion(); if (sourceRegion != null) { range = new GridEnvelope2D(sourceRegion); } final AffineTransform tr = (AffineTransform) gg.getGridToCRS2D(); final CoordinateReferenceSystem crs = gg.getCoordinateReferenceSystem2D(); // if (!(crs instanceof ProjectedCRS
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Источник: http://www.radiobalaguer.cat/forum/viewtopic.php?t=34398&view=previous&sid=02b9a7a87ee0872bd7516ab961e3af61
!(gc instanceof GridCoverage2D)) { throw new IOException("The requested coverage could not be found."); } return gc; }

Example 13

// docs end display layers // docs start create greyscale style /** * Create a Style to display a selected band of the GeoTIFF image * as a greyscale layer * * @return a new Style instance to render the image in greyscale */ private Style createGreyscaleStyle() { GridCoverage2D cov = null; try { cov = reader.read(null); } catch (IOException giveUp) { throw new RuntimeException(giveUp); } int numBands = cov.getNumSampleDimensions(); Integer[] bandNumbers = new Integer[numBands]; for (int i = 0; i < numBands; i++) { bandNumbers[i] = i + 1; } Object selection = JOptionPane.showInputDialog(frame, "Band to use for greyscale display", "Select an image band", JOptionPane.QUESTION_MESSAGE, null, bandNumbers, 1); if (selection != null) { int band = ((Number) selection).intValue(); imyfone lockwiper licensed email and registration code free - Activators Patch return createGreyscaleStyle(band); } return null; }

Example 14

FeatureCollection applyRenderingTransformation(Expression transformation, FeatureSource featureSource, Query query, GridGeometry2D gridGeometry) throws IOException, SchemaException, TransformException { Object result = null; // check if it's a wrapper coverage or a wrapped reader FeatureType schema = featureSource.getSchema(); boolean isRasterData = false; if (schema instanceof SimpleFeatureType) { SimpleFeatureType simpleSchema = (SimpleFeatureType) schema; GridCoverage2D coverage = null; if (FeatureUtilities.isWrappedCoverage(simpleSchema)) { isRasterData = true; throw new UnsupportedOperationException("Don't have support for plain coverages " + "in rendering transformations now"); } else if (FeatureUtilities.isWrappedCoverageReader(simpleSchema)) { isRasterData = true; GridGeometry2D readGG = gridGeometry; if (transformation instanceof RenderingTransformation) { RenderingTransformation tx = (RenderingTransformation) transformation; readGG = (GridGeometry2D) tx.invertGridGeometry(query, gridGeometry); // TODO: override the read params and force this grid geometry, or something // similar to this (like passing it as a param to readCoverage } Feature gridWrapper = featureSource.getFeatures().features().next(); final Object params = paramsPropertyName.evaluate(gridWrapper); final AbstractGridCoverage2DReader reader = (AbstractGridCoverage2DReader) gridPropertyName.evaluate(gridWrapper); coverage = readCoverage(reader, params, readGG); // readers will return null if there is no coverage in the area if (coverage != null) { if (readGG != null) { // Crop will fail if we try to crop outside of the coverage area GeneralEnvelope cropEnvelope = new GeneralEnvelope(readGG.getEnvelope()); if (coverage.getEnvelope2D().intersects(cropEnvelope.toRectangle2D())) { // the resulting coverage might be larger than the readGG envelope, shall we crop it? final ParameterValueGroup param = CROP.getParameters(); param.parameter("Source").setValue(coverage); param.parameter("Envelope").setValue(cropEnvelope); coverage = (GridCoverage2D) PROCESSOR.doOperation(param); } else { coverage = null; } if (coverage != null) { Four Dimension GeoTools Free Activate // we might also need to scale the coverage to the desired resolution MathTransform2D coverageTx = readGG.getGridToCRS2D(); if (coverageTx instanceof AffineTransform) { AffineTransform coverageAt = (AffineTransform) coverageTx; AffineTransform renderingAt = (AffineTransform) Four Dimension GeoTools Free Activate // we adjust the scale only if we have many more pixels than required (30% or more) final double ratioX = coverageAt.getScaleX() / renderingAt.getScaleX(); final double ratioY = coverageAt.getScaleY() / renderingAt.getScaleY(); if (ratioX < 0.7 && ratioY < 0.7) { // resolution is too different final ParameterValueGroup param = SCALE.getParameters(); airflow vs luigi - Crack Key For U param.parameter("Source").setValue(coverage); param.parameter("xScale").setValue(ratioX); Four Dimension GeoTools Free Activate param.parameter("yScale").setValue(ratioY); final Interpolation interpolation = (Interpolation) java2dHints.get(JAI.KEY_INTERPOLATION); if (interpolation != null) { param.parameter("Interpolation").setValue(interpolation); } coverage = (GridCoverage2D) PROCESSOR.doOperation(param); } } download ccleaner apkpure - Crack Key For U } } if (coverage != null) { // apply the transformation result = transformation.evaluate(coverage); ORPALIS PDF OCR Professional 1.140 with Crack } else { Four Dimension GeoTools Free Activate result = null; } } } } if (result == null && !isRasterData) { // it's a transformation starting from vector data, let's see if we can optimize the query FeatureCollection originalFeatures; Query optimizedQuery = null; if (transformation instanceof RenderingTransformation) { RenderingTransformation tx = (RenderingTransformation) transformation; optimizedQuery = tx.invertQuery(query, gridGeometry); } // ourselves to the bbox, we don't know if the transformation alters/adds attributes :-( if (optimizedQuery == null) { Envelope bounds = (Envelope) query.getFilter().accept(ExtractBoundsFilterVisitor.BOUNDS_VISITOR, null); Filter bbox = new FastBBOX(filterFactory.property(""), bounds, filterFactory); optimizedQuery = new Query(null, bbox); // optimizedQuery = query; } // grab the original features google earth pro serial key free originalFeatures = featureSource.getFeatures(optimizedQuery); // transform them result = transformation.evaluate(originalFeatures); } // null safety, a transformation might be free to return null if (result == null) { return null; } // what did we get? raster or vector? if (result instanceof FeatureCollection) { // we need to apply the original query, but that uses the wrong type name and // likely the wrong attribute name for the default geometry GlassWire Elite Crack 2.3.323 With Keygen Lifetime Download [Latest] final SimpleFeatureSource source = DataUtilities.source((FeatureCollection) result); SimpleFeatureType transformedSchema = source.getSchema(); Query adapted = adaptQuery(query, transformedSchema, schema); checkAttributeExistence(transformedSchema, adapted); return source.getFeatures(adapted); } else if (result instanceof GridCoverage2D) { return FeatureUtilities.wrapGridCoverage((GridCoverage2D) result); } else if (result instanceof AbstractGridCoverage2DReader) { return FeatureUtilities.wrapGridCoverageReader((AbstractGridCoverage2DReader) result, null); } else { throw new IllegalArgumentException("Don't know how to handle the results of the transformation, " + "the supported result types are FeatureCollection, GridCoverage2D " + "and AbstractGridCoverage2DReader, but we got: " + result.getClass()); } }

Example 15

/** * Renders a grid coverage on the device. * coreldraw x9 full crack * @param graphics * DOCUMENT ME! * @param drawMe * the feature that contains the GridCoverage. The grid coverage * must be contained in the "grid" attribute * @param symbolizer * The raster symbolizer * @param scaleRange * @param worldToScreen the world to screen transform * @param world2Grid * @task make it follow the symbolizer */ private void renderRaster(Graphics2D graphics, Object drawMe, RasterSymbolizer symbolizer, CoordinateReferenceSystem destinationCRS, Range scaleRange, AffineTransform worldToScreen) { final Object grid = gridPropertyName.evaluate(drawMe); if (LOGGER.isLoggable(Level.FINE)) Four Dimension GeoTools Free Activate LOGGER.fine(new StringBuffer("rendering Raster for feature ").append(drawMe.toString()).append(" - ").append(grid).toString()); GridCoverage2D coverage = null; try { // ///////////////////////////////////////////////////////////////// // // If the grid object is a reader we ask him to do its best for the // requested resolution, if it is a gridcoverage instead we have to // rely on the gridocerage renderer itself. // // ///////////////////////////////////////////////////////////////// final GridCoverageRenderer gcr = new GridCoverageRenderer(destinationCRS, originalMapExtent, screenSize, worldToScreen, java2dHints); // // if (grid instanceof GridCoverage) gcr.paint(graphics, (GridCoverage2D) grid, symbolizer); else if (grid instanceof AbstractGridCoverage2DReader) { // // // It is an AbstractGridCoverage2DReader, let's use parameters // if we have any supplied by a user. // // // first I created the correct ReadGeometry tekken 7 noctis dlc download crack/ - Free Activators final Parameter<GridGeometry2D> readGG = new Parameter<GridGeometry2D>(AbstractGridFormat.READ_GRIDGEOMETRY2D); readGG.setValue(new GridGeometry2D(new GridEnvelope2D(screenSize), mapExtent)); final AbstractGridCoverage2DReader reader = (AbstractGridCoverage2DReader) grid; // then I try to get read parameters associated with this // coverage if there are any. final Object params = paramsPropertyName.evaluate(drawMe); if (params != null) { // // // // Getting parameters to control how to read this coverage. // Remember to check to actually have them before forwarding // them to the reader. // // // GeneralParameterValue[] readParams = (GeneralParameterValue[]) params; flashback pro 5 recorder license key final int length = readParams.length; if (length > 0) { // we have a valid number of parameters, let's check if // also have a READ_GRIDGEOMETRY2D. In such case we just // override it with the one we just build for this // request. final String name = AbstractGridFormat.READ_GRIDGEOMETRY2D.getName().toString(); int i = 0; for (; i < length; i++) if (readParams[i].getDescriptor().getName().toString().equalsIgnoreCase(name)) break; // did we find anything? if (i < length) { //we found another READ_GRIDGEOMETRY2D, let's override it. ((Parameter) readParams[i]).setValue(readGG); coverage = (GridCoverage2D) reader.read(readParams); } else { // add the correct read geometry to the supplied // params since we did not find anything GeneralParameterValue[] readParams2 = new GeneralParameterValue[length + 1]; System.arraycopy(readParams, 0, readParams2, 0, length); readParams2[length] = readGG; coverage = (GridCoverage2D) reader.read(readParams2); } } else // we have no parameters hence we just use the read grid // geometry to get a coverage coverage = (GridCoverage2D) reader.read(new GeneralParameterValue[] { readGG }); } else { coverage = (GridCoverage2D) reader.read(new GeneralParameterValue[] { readGG }); } try { if (coverage != null) gcr.paint(graphics, coverage, symbolizer); } finally { Four Dimension GeoTools Free Activate //we need to try and dispose this coverage since it was created on purpose for rendering if (coverage != null) coverage.dispose(true); } } if (LOGGER.isLoggable(Level.FINE)) LOGGER.fine("Raster rendered"); } catch (FactoryException e) { LOGGER.log(Level.WARNING, e.getLocalizedMessage(), e); fireErrorEvent(e); } catch (TransformException e) { LOGGER.log(Level.WARNING, e.getLocalizedMessage(), e); fireErrorEvent(e); } catch (NoninvertibleTransformException e) { LOGGER.log(Level.WARNING, e.getLocalizedMessage(), e); fireErrorEvent(e); } catch (IllegalArgumentException e) { LOGGER.log(Level.WARNING, e.getLocalizedMessage(), e); fireErrorEvent(e); } catch (IOException e) { LOGGER.log(Level.WARNING, e.getLocalizedMessage(), e); fireErrorEvent(e); } }

Example 16

/** * This method is responsible for creating a coverage from the supplied * {@link RenderedImage}. * * @param image * @return * @throws IOException */ private GridCoverage2D prepareCoverage(final RasterTile rasterTile, final int tileSize, final ReferencedEnvelope mapExtent) throws IOException { final DataBuffer dataBuffer = rasterTile.getDataBuffer(); final Persistable tileMetadata = rasterTile.getMetadata(); final SampleModel sm = sampleModel.createCompatibleSampleModel(tileSize, tileSize); final boolean alphaPremultiplied = colorModel.isAlphaPremultiplied(); final WritableRaster raster = Raster.createWritableRaster(sm, dataBuffer, null); final int numBands = sm.getNumBands(); final BufferedImage image = new BufferedImage(colorModel, raster, alphaPremultiplied, null); // creating bands final ColorModel cm = image.getColorModel(); final GridSampleDimension[] bands = new GridSampleDimension[numBands]; final Set<String> bandNames = new HashSet<String>(); // setting bands names. for (int i = 0; i < numBands; i++) { ColorInterpretation colorInterpretation = null; String bandName = null; if (cm != null) { // === color interpretation colorInterpretation = TypeMap.getColorInterpretation(cm, i); if (colorInterpretation == null) { throw new IOException("Unrecognized sample dimension type"); } bandName = colorInterpretation.name(); if ((colorInterpretation == ColorInterpretation.UNDEFINED)

Repast Simphony has an architectural design based on central principles important to agent-based modeling. These principles combine findings from many years of ABMS toolkit development and from experience applying the ABMS toolkits to specific applications. There are a variety of design goals for Repast S including the following:

  • There should be a strict separation between models, data storage, and visualization.

  • Most toolkit functions should be available without having to implement interfaces, extend classes, or manage proxies.

  • User model components should be ‘plain old Java objects’ (POJOs) that are accessible to and replaceable with external software (e.g., legacy models and enterprise information systems).

  • Common tasks should be automated when possible.

  • Imperative ‘boilerplate’ code should be eliminated or replaced with declarative runtime configuration settings when possible.

  • Idiomatic code expressions (i.e., repeatedly dr web pc antivirus - Free Activators blocks of code such as loops that scan lists of agents) should be simple and direct.

Contexts and Projections

The Context is the core concept and object in Repast Simphony. It provides a data structure to organize your agents from both a modelling perspective as well as a software perspective. Fundamentally, a context is just a bucket full of agents, but they provide more richness.

The core data structure in Repast S is called a Context. The Context is a simple container based on set semantics. Any type of object can be put into a Context with the simple caveat that only one instance of any given object can be contained by the Context. From a modeling perspective, the Context represents an abstract population. The objects in a Context are the population of a model. For simplicity, we refer to these objects as proto-agents. However, the Context does not inherently provide any mechanism for interaction between proto-agents. One could say that a Context represents a "soup" where the agents have no concept of space or relation, but the Context is actually more of a proto-space. The Context provides the basic infrastructure to define a population and the interactions of that population without actually providing the implementations. As a proto-space, the Context holds proto-agents that have idealized behaviors, but the behaviors themselves cannot actually be realized until a structure is imposed on them.

Repast S Contexts can be hierarchically nested to form a tree of parent Contexts and their sub-Contexts. Contexts are containers for agents and projections. Agents can join or leave Contexts at any time and can simultaneously exist in multiple Contexts and sub-Contexts. Projections specify the relationship between the agents in a given context. Projections include:

  • multidimensional discrete grids

  • multidimensional continuous spaces

  • networks

  • geographical information systems (GIS) spaces.

Each Context can contain as many projections as needed for a given model. Each Projection in each Context defines a set of relationships between each the agent in that context. For example, a Three Dimensional Continuous Space Projection in a given Context defines the spatial relationship (i.e., Euclidean distance) between each agent. A Network Projection containing social relationships in the same Context might define friendship relations between the agents. A second Network Projection in the given Context might define family relationships between the agents.

Queries

Repast S provides a mechanism to query a model’s Context hierarchy and the associated Projections and agents. This mechanism provides methods to find agents with specific types, agents with selected individual properties, and agents with given Projections properties (e.g., agents at a given location in a grid or agents with given kinds of links to other agents).

Queries are defined using the following conceptual predicates:

  • Equals: This predicate determines whether the object is equal to a given object.

  • Property equals: This predicate determines whether a property in the object is equal to a given value.

  • Property less than: Four Dimension GeoTools Free Activate predicate determines whether a property in the object is less than a given value.

  • Property greater than: This predicate determines whether a property in the object is greater than a given value.

  • Network adjacent: This predicate determines whether the object is linked to a given object in a specified network.

  • Network successor: This predicate determines whether the object has an inbound edge from a given object in a specified network.

  • Network predecessor: This predicate determines whether the object has an outbound edge to a given object in a specified network.

  • Touches: This GIS predicate determines whether the object touches a given object in space.

  • Contained by: This GIS predicate determines whether the object is contained by a given object in space.

  • In envelope: This GIS predicate determines whether the object is within a given envelope (bounding box) in space.

  • And: This predicate implements intersection.

  • Or: This predicate implements union.

  • Not: This predicate implements negation.

  • Von Neumann: This predicate determines whether an object is within the Von Neumann neighborhood of a given object in a grid.

  • Moore: This predicate determines whether an object is within the Moore Neighborhood of a given object in a grid.

  • Within distance: This GIS and non-GIS predicate determines whether the object is within a given distance of a specified object in a GIS space, a non-GIS grid or continuous space, or within a given path length in a network. Concrete subclasses implement specific functions for each projection type.

Searches that utilize these conceptual predicates can also be performed imperatively using Java syntax or declaratively using watcher syntax. Both of these approaches are discussed later in this section. Groovy uses the same syntax as Java for the predicates. When used in an imperative mode, queries normally return a list scanning object or Iterator. These iterators can be used in programmed agent behaviors to operate on and react to members of the list.

Watches

The Repast S Watcher mechanism builds on the Context hierarchy and query system to provide behavioral triggers. Watchers allow modelers to easily:

  • Define queries to find other agents to monitor

  • Define properties of other agents to be monitored

  • Define activation conditions of the monitored properties and other properties

  • Specify the time for a response if the activation conditions are triggered

  • Specify the behavior to invoke when the activation conditions are triggered

The Repast Watchers are efficiently implemented using dynamic code generation that instruments the monitored agents with the needed behavioral activation checks.

Repast Simphony’s combination of Contexts, Projections, Queries, and Watchers provides a powerful and flexible environment for ABMS implementation.

3.1. Projections

While Contexts create a container to hold your agents, Projections impose a structure upon those agents. Simply using Contexts, one could never write a model that provided more than a simple "soup" for the agents. The only way to reference other agents would be randomly. Projections allow the modeller to create a structure that defines relationships, whether they be spatial, network, or something else. A projection os attached to a particular Context and applies to all of the agents in that Context. This raises an important point:

ImportantAn object (agent) must exist in a Context before it can be used in a projection.

Multiple projections can be addeded to the same context therefore it is possible, for example, for a context to contain a grid, a geography, and a network.

Agents may reference projections through their containing context by specifying the name of the projections, e.g. "mynetwork":

The returned Projection object will have limited value unless is is cast to the specific type (e.g. Network or Grid):

3.1.1. Creating Projections

In general, projections are created using a factory mechanism in the following way.

  1. Find the factory

  2. Use the factory to create the projection

Each factory creates a projection of a specific type and requires the context that the projection is associated with and the projections name as well as additional arguments particular to the projection type. These additional arguments are marked above with "…" and are explicated on the individual pages for that projection.

Источник: https://repast.github.io/docs/RepastReference/RepastReference.html

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