Examples with Roof org.concord.energy3d.model.Roof used on opensource projects

Example 11 with Roof

use of org.concord.energy3d.model.Roof in project energy3d by concord-consortium.

the class SceneManager method move.

public void move(final Vector3 v) {
    if (SceneManager.getInstance().getSolarHeatMap()) {
        EnergyPanel.getInstance().updateRadiationHeatMap();
    }
    final MovePartCommand c = new MovePartCommand(selectedPart, v);
    if (selectedPart == null) {
        for (final HousePart p : Scene.getInstance().getParts()) {
            if (p instanceof Foundation) {
                ((Foundation) p).move(v, p.getGridSize());
            }
        }
        Scene.getInstance().redrawAll();
    } else if (selectedPart instanceof Foundation) {
        final Foundation f = (Foundation) selectedPart;
        if (f.isGroupMaster()) {
            final List<Foundation> g = Scene.getInstance().getFoundationGroup(f);
            for (final Foundation x : g) {
                x.move(v, selectedPart.getGridSize());
            }
        } else {
            f.move(v, selectedPart.getGridSize());
        }
    } else if (selectedPart instanceof FoundationPolygon) {
        ((Foundation) selectedPart.getContainer()).moveAllWithinPolygon(v);
    } else if (selectedPart instanceof Roof) {
        if (viewMode == ViewMode.TOP_VIEW) {
            final Foundation f = selectedPart.getTopContainer();
            if (f.isGroupMaster()) {
                final List<Foundation> g = Scene.getInstance().getFoundationGroup(f);
                for (final Foundation x : g) {
                    x.move(v, selectedPart.getGridSize());
                }
            } else {
                f.move(v, selectedPart.getGridSize());
            }
        }
    } else if (selectedPart instanceof Window) {
        final Window w = (Window) selectedPart;
        w.move(v);
        w.draw();
    } else if (selectedPart instanceof SolarCollector) {
        final SolarCollector sc = (SolarCollector) selectedPart;
        sc.move(v, selectedPart.getGridSize());
        selectedPart.draw();
    } else if (selectedPart instanceof Tree) {
        final Tree t = (Tree) selectedPart;
        t.move(v, selectedPart.getGridSize());
        t.draw();
    } else if (selectedPart instanceof Human) {
        final Human h = (Human) selectedPart;
        h.move(v, selectedPart.getGridSize());
        h.draw();
    }
    undoManager.addEdit(c);
    SceneManager.getInstance().refresh();
    Scene.getInstance().setEdited(true);
}

Example 12 with Roof

use of org.concord.energy3d.model.Roof in project energy3d by concord-consortium.

the class DataViewer method viewRawData.

static void viewRawData(final java.awt.Window parent, final Graph graph, final boolean selectAll) {
    String[] header = null;
    if (graph instanceof BuildingEnergyDailyGraph) {
        header = new String[] { "Hour", "Windows", "Solar Panels", "Heater", "AC", "Net" };
    } else if (graph instanceof BuildingEnergyAnnualGraph) {
        header = new String[] { "Month", "Windows", "Solar Panels", "Heater", "AC", "Net" };
    } else if (graph instanceof PartEnergyDailyGraph) {
        final HousePart selectedPart = SceneManager.getInstance().getSelectedPart();
        if (selectAll || selectedPart instanceof SolarPanel || selectedPart instanceof Rack || selectedPart instanceof Mirror || selectedPart instanceof Foundation) {
            header = new String[] { "Hour", "Solar" };
        } else if (selectedPart instanceof Wall || selectedPart instanceof Roof || selectedPart instanceof Door) {
            header = new String[] { "Hour", "Heat Gain" };
        } else if (selectedPart instanceof Window) {
            header = new String[] { "Hour", "Solar", "Heat Gain" };
        }
        if (graph.instrumentType == Graph.SENSOR) {
            final List<HousePart> parts = Scene.getInstance().getParts();
            final List<String> sensorList = new ArrayList<String>();
            for (final HousePart p : parts) {
                if (p instanceof Sensor) {
                    final Sensor sensor = (Sensor) p;
                    sensorList.add("Light: #" + sensor.getId());
                    sensorList.add("Heat Flux: #" + sensor.getId());
                }
            }
            if (!sensorList.isEmpty()) {
                header = new String[1 + sensorList.size()];
                header[0] = "Hour";
                for (int i = 1; i < header.length; i++) {
                    header[i] = sensorList.get(i - 1);
                }
            }
        }
    } else if (graph instanceof PartEnergyAnnualGraph) {
        final HousePart selectedPart = SceneManager.getInstance().getSelectedPart();
        if (selectAll || selectedPart instanceof SolarPanel || selectedPart instanceof Rack || selectedPart instanceof Mirror || selectedPart instanceof Foundation) {
            header = new String[] { "Month", "Solar" };
        } else if (selectedPart instanceof Wall || selectedPart instanceof Roof || selectedPart instanceof Door) {
            header = new String[] { "Month", "Heat Gain" };
        } else if (selectedPart instanceof Window) {
            header = new String[] { "Month", "Solar", "Heat Gain" };
        }
        if (graph.instrumentType == Graph.SENSOR) {
            final List<HousePart> parts = Scene.getInstance().getParts();
            final List<String> sensorList = new ArrayList<String>();
            for (final HousePart p : parts) {
                if (p instanceof Sensor) {
                    final Sensor sensor = (Sensor) p;
                    sensorList.add("Light: #" + sensor.getId());
                    sensorList.add("Heat Flux: #" + sensor.getId());
                }
            }
            if (!sensorList.isEmpty()) {
                header = new String[1 + sensorList.size()];
                header[0] = "Month";
                for (int i = 1; i < header.length; i++) {
                    header[i] = sensorList.get(i - 1);
                }
            }
        }
    } else if (graph instanceof BuildingEnergyAngularGraph) {
        header = new String[] { "Degree", "Windows", "Solar Panels", "Heater", "AC", "Net" };
    } else if (graph instanceof PartEnergyAngularGraph) {
        final HousePart selectedPart = SceneManager.getInstance().getSelectedPart();
        if (selectedPart instanceof SolarPanel || selectedPart instanceof Rack || selectedPart instanceof Mirror || selectedPart instanceof Foundation) {
            header = new String[] { "Degree", "Solar" };
        } else if (selectedPart instanceof Wall || selectedPart instanceof Roof || selectedPart instanceof Door) {
            header = new String[] { "Degree", "Heat Gain" };
        } else if (selectedPart instanceof Window) {
            header = new String[] { "Degree", "Solar", "Heat Gain" };
        }
    }
    if (header == null) {
        JOptionPane.showMessageDialog(MainFrame.getInstance(), "Problem in finding data.", "Error", JOptionPane.ERROR_MESSAGE);
        return;
    }
    final int m = header.length;
    final int n = graph.getLength();
    final Object[][] column = new Object[n][m + 1];
    for (int i = 0; i < n; i++) {
        column[i][0] = header[0].equals("Hour") ? i : (i + 1);
    }
    for (int j = 1; j < m; j++) {
        final List<Double> list = graph.getData(header[j]);
        for (int i = 0; i < n; i++) {
            column[i][j] = list.get(i);
        }
    }
    showDataWindow("Data", column, header, parent);
}

Example 13 with Roof

use of org.concord.energy3d.model.Roof in project energy3d by concord-consortium.

the class EnergyAngularAnalysis method updateGraph.

@Override
public void updateGraph() {
    final HousePart selectedPart = SceneManager.getInstance().getSelectedPart();
    if (selectedPart instanceof Foundation) {
        if (graph instanceof BuildingEnergyAngularGraph) {
            final Foundation selectedBuilding = (Foundation) selectedPart;
            final double window = selectedBuilding.getPassiveSolarToday();
            final double solarPanel = selectedBuilding.getPhotovoltaicToday();
            final double heater = selectedBuilding.getHeatingToday();
            final double ac = selectedBuilding.getCoolingToday();
            final double net = selectedBuilding.getTotalEnergyToday();
            graph.addData("Windows", window);
            graph.addData("Solar Panels", solarPanel);
            graph.addData("Heater", heater);
            graph.addData("AC", ac);
            graph.addData("Net", net);
        } else {
            graph.addData("Solar", selectedPart.getSolarPotentialToday());
        }
    } else if (selectedPart instanceof Window) {
        final Window window = (Window) selectedPart;
        final double solar = selectedPart.getSolarPotentialToday() * window.getSolarHeatGainCoefficient();
        graph.addData("Solar", solar);
        final double[] loss = selectedPart.getHeatLoss();
        double sum = 0;
        for (final double x : loss) {
            sum += x;
        }
        graph.addData("Heat Gain", -sum);
    } else if (selectedPart instanceof Wall || selectedPart instanceof Roof || selectedPart instanceof Door) {
        final double[] loss = selectedPart.getHeatLoss();
        double sum = 0;
        for (final double x : loss) {
            sum += x;
        }
        graph.addData("Heat Gain", -sum);
    } else if (selectedPart instanceof SolarPanel) {
        graph.addData("Solar", ((SolarPanel) selectedPart).getYieldToday());
    } else if (selectedPart instanceof Rack) {
        graph.addData("Solar", ((Rack) selectedPart).getYieldToday());
    }
    graph.repaint();
}

Example 14 with Roof

use of org.concord.energy3d.model.Roof in project energy3d by concord-consortium.

the class GroupAnnualAnalysis method updateGraph.

@Override
public void updateGraph() {
    for (final HousePart p : selectedParts) {
        final String customText = p.getLabelCustomText();
        if (p instanceof Window) {
            final Window window = (Window) p;
            final double solar = p.getSolarPotentialToday() * window.getSolarHeatGainCoefficient();
            graph.addData("Solar " + p.getId(), solar);
            final double[] loss = p.getHeatLoss();
            double sum = 0;
            for (final double x : loss) {
                sum += x;
            }
            graph.addData("Heat Gain " + p.getId(), -sum);
        } else if (p instanceof Wall || p instanceof Roof) {
            final double[] loss = p.getHeatLoss();
            double sum = 0;
            for (final double x : loss) {
                sum += x;
            }
            graph.addData("Heat Gain " + p.getId(), -sum);
        } else if (p instanceof SolarPanel) {
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, ((SolarPanel) p).getYieldToday());
            } else {
                graph.addData("Solar " + p.getId(), ((SolarPanel) p).getYieldToday());
            }
        } else if (p instanceof Rack) {
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, ((Rack) p).getYieldToday());
            } else {
                graph.addData("Solar " + p.getId(), ((Rack) p).getYieldToday());
            }
        } else if (p instanceof Mirror) {
            final Mirror mirror = (Mirror) p;
            final double solar = mirror.getSolarPotentialToday() * mirror.getSystemEfficiency();
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, solar);
            } else {
                graph.addData("Solar " + p.getId(), solar);
            }
        } else if (p instanceof ParabolicTrough) {
            final ParabolicTrough trough = (ParabolicTrough) p;
            final double solar = trough.getSolarPotentialToday() * trough.getSystemEfficiency();
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, solar);
            } else {
                graph.addData("Solar " + p.getId(), solar);
            }
        } else if (p instanceof ParabolicDish) {
            final ParabolicDish dish = (ParabolicDish) p;
            final double solar = dish.getSolarPotentialToday() * dish.getSystemEfficiency();
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, solar);
            } else {
                graph.addData("Solar " + p.getId(), solar);
            }
        } else if (p instanceof FresnelReflector) {
            final FresnelReflector reflector = (FresnelReflector) p;
            final double solar = reflector.getSolarPotentialToday() * reflector.getSystemEfficiency();
            if (customText != null) {
                graph.addData("Solar " + p.getId() + graph.getDataNameDelimiter() + customText, solar);
            } else {
                graph.addData("Solar " + p.getId(), solar);
            }
        } else if (p instanceof Foundation) {
            final boolean mean = group.getType().endsWith("(Mean)");
            final Foundation foundation = (Foundation) p;
            switch(foundation.getProjectType()) {
                case Foundation.TYPE_PV_PROJECT:
                    double pv = foundation.getPhotovoltaicToday();
                    if (mean) {
                        pv /= foundation.getNumberOfSolarPanels();
                        if (customText != null) {
                            graph.addData("PV " + p.getId() + graph.getDataNameDelimiter() + customText + " mean", pv);
                        } else {
                            graph.addData("PV " + p.getId() + " mean", pv);
                        }
                    } else {
                        if (customText != null) {
                            graph.addData("PV " + p.getId() + graph.getDataNameDelimiter() + customText, pv);
                        } else {
                            graph.addData("PV " + p.getId(), pv);
                        }
                    }
                    break;
                case Foundation.TYPE_CSP_PROJECT:
                    double csp = foundation.getCspToday();
                    if (mean) {
                        csp /= foundation.countParts(new Class[] { Mirror.class, ParabolicTrough.class, ParabolicDish.class });
                        if (customText != null) {
                            graph.addData("CSP " + p.getId() + graph.getDataNameDelimiter() + customText + " mean", csp);
                        } else {
                            graph.addData("CSP " + p.getId() + " mean", csp);
                        }
                    } else {
                        if (customText != null) {
                            graph.addData("CSP " + p.getId() + graph.getDataNameDelimiter() + customText, csp);
                        } else {
                            graph.addData("CSP " + p.getId(), csp);
                        }
                    }
                    break;
                case Foundation.TYPE_BUILDING:
                    final double totalEnergy = foundation.getTotalEnergyToday();
                    graph.addData("Building " + p.getId(), totalEnergy);
                    break;
            }
        }
    }
    graph.repaint();
}

Example 15 with Roof

use of org.concord.energy3d.model.Roof in project energy3d by concord-consortium.

the class BuildingCost method getPartCost.

/* The material and installation costs are partly based on http://www.homewyse.com, but should be considered as largely fictitious. */
public static double getPartCost(final HousePart part) {
    // The baseline cost for a wall is set to be $300/m^2, close to homewyse's estimates of masonry walls, interior framing, etc.
    if (part instanceof Wall) {
        final double uFactor = ((Wall) part).getUValue();
        final double unitPrice = 300.0 + 8.0 / uFactor;
        return part.getArea() * unitPrice;
    }
    // A storm window of about 1 m^2 costs about $500. A double-pane window of about 1 m^2 costs about $700.
    if (part instanceof Window) {
        final double uFactor = ((Window) part).getUValue();
        final double unitPrice = 500.0 + 800.0 / uFactor;
        return part.getArea() * unitPrice;
    }
    // The baseline (that is, the structure without insulation) cost for a roof is set to be $100/m^2.
    if (part instanceof Roof) {
        final double uFactor = ((Roof) part).getUValue();
        final double unitPrice = 100.0 + 10.0 / uFactor;
        return part.getArea() * unitPrice;
    }
    // The foundation cost is set to be $200/m^2.
    if (part instanceof Foundation) {
        final Foundation foundation = (Foundation) part;
        final Building b = new Building(foundation);
        if (b.isWallComplete()) {
            b.calculate();
            final double uFactor = foundation.getUValue();
            final double unitPrice = 300.0 + 8.0 / uFactor;
            return b.getArea() * unitPrice;
        }
        // the building is incomplete yet, so we can assume the floor insulation isn't there yet
        return -1;
    }
    if (part instanceof Floor) {
        final double area = part.getArea();
        if (area > 0) {
            return part.getArea() * 100.0;
        }
        return -1;
    }
    // According to http://www.homewyse.com/costs/cost_of_exterior_doors.html
    if (part instanceof Door) {
        final double uFactor = ((Door) part).getUValue();
        final double unitPrice = 500.0 + 100.0 / uFactor;
        return part.getArea() * unitPrice;
    }
    if (part instanceof SolarPanel) {
        return Scene.getInstance().getPvCustomPrice().getTotalCost((SolarPanel) part);
    }
    if (part instanceof Rack) {
        return Scene.getInstance().getPvCustomPrice().getTotalCost((Rack) part);
    }
    if (part instanceof Tree) {
        switch(((Tree) part).getTreeType()) {
            case Tree.LINDEN:
                return 3000;
            case Tree.COTTONWOOD:
                return 2500;
            case Tree.ELM:
                return 2000;
            case Tree.OAK:
                return 2000;
            case Tree.PINE:
                return 1500;
            case Tree.MAPLE:
                return 1000;
            default:
                return 500;
        }
    }
    return 0;
}