public static global::OpenStudio.Model CreateModel(List <List <BHE.Panel> > panelsAsSpaces, global::OpenStudio.Model modelReference)
{
List <BHC.Construction> uniqueConstructions = panelsAsSpaces.UniqueConstructions();
//Create a curtain wall construction
BHC.Construction curtainWallConstruction = new BHC.Construction();
curtainWallConstruction.Name = "Curtain Wall Construction Replacement";
BHC.Layer curtainWallLayer = new BHC.Layer();
curtainWallLayer.Thickness = 0.1;
BHM.Material curtainWallMaterial = new BHM.Material();
curtainWallMaterial.Name = "Curtain Wall Construction Replacement";
BHEM.SolidMaterial curtainWallMaterialProperties = new BHEM.SolidMaterial();
curtainWallMaterialProperties.Roughness = BHEM.Roughness.VerySmooth;
curtainWallMaterialProperties.SpecificHeat = 101;
curtainWallMaterialProperties.Conductivity = 0.1;
curtainWallMaterialProperties.EmissivityExternal = 0.1;
curtainWallMaterialProperties.SolarReflectanceExternal = 0.1;
curtainWallMaterialProperties.LightReflectanceExternal = 0.1;
curtainWallMaterialProperties.Density = 0.1;
curtainWallMaterial.Properties.Add(curtainWallMaterialProperties);
curtainWallLayer.Material = curtainWallMaterial;
curtainWallConstruction.Layers.Add(curtainWallLayer);
Dictionary <string, Construction> osmConstructions = new Dictionary <string, Construction>();
foreach (BHC.Construction c in uniqueConstructions)
{
osmConstructions.Add(c.UniqueConstructionName(), c.ToOSM(modelReference));
}
osmConstructions.Add("CurtainWallReplacementConstruction", curtainWallConstruction.ToOSM(modelReference));
foreach (List <BHE.Panel> space in panelsAsSpaces)
{
ThermalZone osmZone = new ThermalZone(modelReference);
Space osmSpace = new Space(modelReference);
osmSpace.setThermalZone(osmZone);
foreach (BHE.Panel be in space)
{
string conName = be.Construction.UniqueConstructionName();
//be.ToOSM(modelReference, osmSpace, (conName == "" ? null : osmConstructions[conName]));
Surface host = be.ToOSM(modelReference, osmSpace, osmConstructions, be.OutsideBoundaryCondition(be.AdjacentSpaces(panelsAsSpaces)));
foreach (BHE.Opening o in be.Openings)
{
conName = o.OpeningConstruction.UniqueConstructionName();
o.ToOSM(host, (conName == "" ? null : osmConstructions[conName]), modelReference);
}
}
}
return(modelReference);
}
static void Main(string[] args)
{
//
// Creating platform definition and intializing it with relevant information.
// CreateArmPlatform and Createx86Platform produces same DSDT but some platform
// specific information in FADT and other firmware tables will get generated
// to the specifc platform.
//
//ArmPlatform Platform = Platforms.CreateArmPlatform(
x86Platform Platform = Platforms.Createx86Platform(
OEMID: "MSFT",
OEMTableID: "EDK2",
CreatorID: "MSFT",
Revision: 1, FileName: "DSDT"
);
//
// Set PSCI bit - This is only Avaialble for Arm platforms
//
// Platform.PSCISupported = true;
#region PROC
Register reg0_1, reg0_2, reg0_3;
Processor CPU0 = Platform.AddProcessor("CPU0", 0);
reg0_1 = new Register(RegisterType.SystemIO, 8, 0, 0x161);
CPU0.AddCState(1, 20, 1000, reg0_1); // C1 State
reg0_2 = new Register(RegisterType.SystemIO, 8, 0, 0x162);
CPU0.AddCState(2, 40, 750, reg0_2); // C2 State
reg0_3 = new Register(RegisterType.SystemIO, 8, 0, 0x163);
CPU0.AddCState(3, 60, 500, reg0_3); // C3 State
Processor CPU1 = Platform.AddProcessor("CPU1", 1);
Register reg1_1, reg1_2, reg1_3;
reg1_1 = new Register(RegisterType.SystemIO, 8, 0, 0x164);
CPU1.AddCState(1, 20, 1000, reg1_1); // C1 State
reg1_2 = new Register(RegisterType.SystemIO, 8, 0, 0x165);
CPU1.AddCState(2, 40, 750, reg1_2); // C2 State
reg1_3 = new Register(RegisterType.SystemIO, 8, 0, 0x166);
CPU1.AddCState(3, 60, 500, reg1_3); // C3 State
Processor CPU2 = Platform.AddProcessor("CPU2", 2);
Register reg2_1, reg2_2, reg2_3;
reg2_1 = new Register(RegisterType.SystemIO, 8, 0, 0x167);
CPU2.AddCState(1, 20, 1000, reg2_1); // C1 State
reg2_2 = new Register(RegisterType.SystemIO, 8, 0, 0x168);
CPU2.AddCState(2, 40, 750, reg2_2); // C2 State
reg2_3 = new Register(RegisterType.SystemIO, 8, 0, 0x169);
CPU2.AddCState(3, 60, 500, reg2_3); // C3 State
Processor CPU3 = Platform.AddProcessor("CPU3", 3);
Register reg3_1, reg3_2, reg3_3;
reg3_1 = new Register(RegisterType.SystemIO, 8, 0, 0x16a);
CPU3.AddCState(1, 20, 1000, reg3_1); // C1 State
reg3_2 = new Register(RegisterType.SystemIO, 8, 0, 0x16b);
CPU3.AddCState(2, 40, 750, reg3_2); // C2 State
reg3_3 = new Register(RegisterType.SystemIO, 8, 0, 0x16c);
CPU3.AddCState(3, 60, 500, reg3_3); // C3 State
Platform.AddProcessorAggregator("AGR0");
//
// ADD Low Power Idle States to the Platform - only on X86 Socs
//
Platform.AddLowPowerIdleState(0, 0x100000, 0xffff000, reg0_1);
Platform.AddLowPowerIdleState(1, 0x100000, 0xffff000, reg1_2);
Platform.AddLowPowerIdleState(2, 0x100000, 0xffff000, reg2_3);
Platform.AddLowPowerIdleState(3, 0x100000, 0xffff000, reg3_1);
#endregion
#region UsbDebug
//
// This Sections how to add USB Contoller to DSDT and generating DBG2 Table.
//
XhciUsbController usb1 = Platform.AddXhciUsbController("USB1", "XHCICONT", 0);
usb1.Description = "USB Controller with Debug Support";
//
// Add Resources to the USB Contoller.
//
Memory32Fixed mem = usb1.AddMemory32Fixed(true, 0xf9000000, 0xfffff, "");
usb1.AddMemory32Fixed(true, 0xf7000000, 0xfffff, "");
usb1.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x8);
usb1.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x9);
//
// Will mark the usb controller supports Debugging and automatically generate Dbg2 table
//
usb1.DebugEnabled = true;
mem.DebugAccessSize = DebugAccessSize.DWordAccess;
//
// Will Add dependencies based on the provider info. In this Example
// USB controller have dependencies to PEP and GPIO Controller.
//
usb1.ProviderName = "PEP0,GPI0";
#endregion UsbDebug
#region DebugDevices
//
// This section shows how to add UART debug devices to DSDT.
//
SerialPort sp0 = Platform.AddSerialPort(SerialPortType.PL011UART, "UART", "HID3123", 4);
sp0.DebugEnabled = true;
sp0.AddMemory32Fixed(true, 0xf9000000, 0xfffff, "");
sp0.AddMemory32Fixed(true, 0xf7000000, 0xfffff, "");
sp0.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x8);
sp0.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x9);
//
// This section shows how to add Serial debug devices to DSDT.
//
SerialPort sp1 = Platform.AddSerialPort(SerialPortType.Serial, "NSP0", "HID3123", 8);
sp1.AddDebugMemory32Fixed(true, 0xf123a, 0x123, "MEM", DebugAccessSize.DWordAccess, 0x1, 0x1);
sp1.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x8);
sp1.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x9);
//
// This section shows how to add KDNET debug device to DSDT.
//
KDNet2Usb kdp = Platform.AddKDNet2Usb("KDO0", "HID12331", 0, 0x1234);
kdp.DebugEnabled = true;
#endregion DebugDevices
#region UsbDeviceTree
//
// This Sections how to add USB Contoller to DSDT and adding child devices to Usb Controller.
//
EhciUsbController usb2 = Platform.AddEhciUsbController("USB2", "EHCICONT", 0);
usb2.Description = "USB Controller without Debug Support";
//
// Add dependency info and resources to the controller.
//
usb2.ProviderName = "PEP0";
usb2.AddMemory32Fixed(true, 0xf8000000, 0xaf, "");
usb2.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x10);
usb2.AddGPIOInterrupt(InterruptType.Edge, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, PinConfiguration.Up, 0, 0x32, "GPI0");
//
// Adding USB Wake Information.
//
usb2.S0W = DeviceState.D3hot;
//
// Add USB Hub and add 2 Children to the Hub.
//
UsbDevice rhub = usb2.AddUsbDevice("DEV1", 0);
rhub.AddUsbDevice("DEV2", 2);
rhub.AddUsbDevice("DEV3", 3);
#endregion UsbDeviceTree
#region ButtonArray
//
// This sections shows how to add buttons used in windows platforms to DSDT.
// Button Array supports adding buttons like Windows Home button, Back button,
// Vol +/-, Power button, Rotation Lock, Search Button etc.,
//
ButtonArrayDevice btn = Platform.AddButtonArrayDevice("BTN1", "BTNDEV", 0);
btn.AddPowerButton(10, "GPI0", PinConfiguration.Up);
btn.AddSearchButton(11, "GPI0", PinConfiguration.Down);
btn.AddVolumeDownButton(12, "GPI0", PinConfiguration.Down);
#endregion ButtonArray
#region PEP
//
// This sections how how to add Pep device to DSDT. This section also demostrates
// how to use packages and implement static functions.
//
Package p, p1;// p2;
PEPDevice pep0 = Platform.AddPepDevice("PEP0", "PEPDEV", 0);
//
// Add Resources to the PEP device.
//
pep0.AddInterrupt(InterruptType.Edge, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, 0x12);
pep0.AddInterrupt(InterruptType.Edge, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, 0x13);
pep0.AddInterrupt(InterruptType.Edge, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, 0x14);
pep0.AddInterrupt(InterruptType.Edge, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, 0x15);
pep0.AddMemory32Fixed(true, 0xfc428000, 0x4000, "");
//
// Implement a method which returns Package(s).
//
pep0.AddMethod("CINF").Value = (p = new Package());
p.add(p1 = new Package());
p1.add("\\\\_SB_.CPU0");
p1.add(0x10);
p.add(p1 = new Package());
p1.add("\\\\_SB_.CPU1");
p1.add(0x11);
p.add(p1 = new Package());
p1.add("\\\\_SB_.CPU2");
p1.add(0x12);
p.add(p1 = new Package());
p1.add("\\\\_SB_.CPU3");
p1.add(0x13);
//
// Shows how to implement a method which reurns a static Integer.
//
pep0.AddMethod("PINF").Value = 4;
//
// Shows how to implement a method which return byte array.
//
pep0.AddMethod("RINF").Value = new Byte[] { 0x10, 0x20, 0x30, 0x40 };
//
// Shows how to implement a method which returns string.
//
pep0.AddMethod("SINF").Value = "TEST_PEP";
#endregion PEP
#region TZ
//
// This section shows how to implement Thermal Zones.
//
ThermalZone tz = Platform.AddThermalZone("TZ0_");
tz.ThermalConstant1_TC1 = 1;
tz.ThermalConstant2_TC2 = 2;
tz.ThermalSamplingPeriod_TSP = 0xa;
tz.ThermalZonePollingPeriod_TZP = 0;
tz.ThermalZoneDevices_TZD = "CPU0,CPU1,CPU2,CPU3";
tz.PassiveCoolingValue_PSV = 0xe60;
#endregion TZ
#region RTC
//
// This section shows how to implement Acpi Time and Alarm device.
//
RTCDevice rtc = Platform.AddRTCDevice("RTCD");
#endregion RTC
#region GpioController
//
// This section shows how to add GPIO Controller to DSDT.
//
GpioController gpc = Platform.AddGpioController("GPI0", "GPIOCONT", 0);
//
// Add dependency information. GPIO Controller depends on PEP in this example.
//
gpc.ProviderName = "PEP0";
//
// Add resources to the GPIO Controller.
//
gpc.AddMemory32Fixed(true, 0xfd510000, 0x2000, "");
gpc.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Shared, 0x16);
#endregion GpioController
#region SdController
//
// This section shows how to add SD Controller to DSDT.
//
SdHostController sd = Platform.AddSdHostController("SDC1", "SDCHOST", 0);
sd.ProviderName = "PEP0";
#endregion SdController
#region Battery
//
// This section shows how to add Battery to DSDT.
//
BatteryDevice bat = Platform.AddBatteryDevice("BAT1", 1);
bat.ThermalLimit = 10;
#endregion Battery
#region DisplaySensor
//
// This section shows how to add Display sensor to DSDT.
//
DisplaySensor dis = Platform.AddDisplaySensor("DISP", "DISPSENS");
dis.ProviderName = "PEP0";
#endregion DisplaySensor
#region ACAdapter
//
// This section shows how to add AC Adapter to DSDT.
//
ACAdapter ac = Platform.AddACAdapter("ACA");
#endregion ACAdapter
#region HidI2c
//
// This section shows how to add HID I2C Device to DSDT.
// In this case its an ATML touch device.
//
HidOverI2C hid = Platform.AddHidI2CDevice("TCH", "ATML1000", 1);
hid.AddI2CSerialBus(0xf, SlaveMode.ControllerInitiated, 0xffff, AddressMode._7Bit, "I2C1");
#endregion HidI2c
#region I2CController
//
// This section shows how to add I2C Controller to DSDT.
//
I2CController i2c = Platform.AddI2CController("I2C1", "I2CCONTR", 0);
i2c.AddMemory32Fixed(true, 0xf9999000, 0x400, "");
i2c.AddInterrupt(InterruptType.Level, InterruptActiveLevel.ActiveHigh, SharingLevel.Exclusive, 40);
#endregion I2CController
#region GenericDevice
//
// This section shows how to add a generic device. Generic devices can be
// flexible and can be used to replace any type of internally supported devices
// in the framework.
//
GenericDevice Gen1 = Platform.AddGenericDevice("GEN1", "ABC123", "", 0);
GenericDevice Gen2 = Gen1.AddGenericDevice("GEN2", "ABC123", "", 1);
#endregion GenericDevice
#region Firmware
//
// MADT: Generates a MADT table for Arm Version
//
// Platform.MadtBaseAddress = 0xEFC213;
// Platform.AddInterruptControler(CPU0, InterruptType.Edge, 0, 2, 15, 0x1D4F, 0x34DFCD);
// Platform.AddInterruptControler(CPU1, InterruptType.Edge, 3, 2, 17, 0x52DE, 0x12DCEE);
// Platform.AddInterruptExtender(0xCD312, 0xFCC234, 13);
//
// Madt Table for X86 Soc
//
Platform.MadtBaseAddress = 0xEFC213;
Platform.AddInterruptController(CPU0, 0);
Platform.AddInterruptController(CPU1, 2);
Platform.AddInterruptExtender(5, 0xFA23, 7);
//
// GTDT: Generates a GTDT table.
//
Timers timers = Platform.AddTimers(InterruptType.Edge, 0x1242FE);
timers.ConfigureTimer(TimerType.PL1, InterruptType.Edge, InterruptActiveLevel.ActiveLow, 10);
timers.ConfigureTimer(TimerType.NPL1, InterruptType.Edge, InterruptActiveLevel.ActiveLow, 5);
timers.ConfigureTimer(TimerType.VT, InterruptType.Level, InterruptActiveLevel.ActiveLow, 11);
timers.ConfigureTimer(TimerType.NPL2, InterruptType.Edge, InterruptActiveLevel.ActiveLow, 21);
//
// CSRT: Creates an Entry into DSDT aswell as generate a CSRT Table.
//
Byte[] info = { 0x00, 0x10, 0x20, 0x30, 0x40, 0x50, 0x60 };
CoreSystemDevice core = Platform.AddCoreSystemDevice("ABC1", "MSFT123", 2, 1, info);
core.AddTimerCoreSystemResource(1, info);
#endregion
//
// Generates firmware tables.
//
Platform.WriteAsl();
}
public Node CreateThermalZoneTreeViewItem(ThermalZone thermalZone)
{
if (thermalZone == null) return null;
var rootTreeViewItem = new Node() { Tag = thermalZone, Title = "Ζώνη" };
if (thermalZone.Shell != null) rootTreeViewItem.Nodes.Add(CreateShellTreeViewItem(thermalZone.Shell));
if (thermalZone.Systems != null) rootTreeViewItem.Nodes.Add(CreateSystemsTreeViewItem(thermalZone.Systems));
return rootTreeViewItem;
}
public void RemoveThermalZoneFromBuilding(ThermalZone thermalZone, Web.Models.Building building)
{
if (building.BuildingModel.ThermalZones.Contains(thermalZone))
{
building.BuildingModel.ThermalZones.Remove(thermalZone);
SaveBuildingData();
_action = e =>
{
if (e == null) StatusBar.Display("η Ζώνη διαγράφηκε");
};
Model.DataAccesLayerService.SaveChanges(_action);
}
}
private object CreateThermalZoneTreeViewItem(ThermalZone thermalZone)
{
if (thermalZone == null) return null;
var rootTreeViewItem = new TreeViewItem() { Tag = thermalZone, Header = "Ζώνη" };
rootTreeViewItem.Items.Add(CreateShellTreeViewItem(thermalZone.Shell));
if (thermalZone.Systems != null) rootTreeViewItem.Items.Add(CreateSystemsTreeViewItem(thermalZone.Systems));
return rootTreeViewItem;
}
