public void TestCountValences()
{
IElement testSubject = new Hydrogen();
var testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
Assert.AreEqual(1, testResult);
testSubject = new Helium();
testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
Assert.AreEqual(0, testResult);
testSubject = new Oxygen();
testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
Assert.AreEqual(2, testResult);
testSubject = new Nitrogen();
testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
Assert.AreEqual(3, testResult);
testSubject = new Carbon();
testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
Assert.AreEqual(4, testResult);
testSubject = new Silicon();
testResult = testSubject.CountValences;
Console.WriteLine($"{testSubject.Name} {testResult}");
}
public void check()
{
syc = MainSystem.instance;
h1 = H1.GetComponent <Hydrogen>();
h2 = H2.GetComponent <Hydrogen>();
h1.Ox = this;
h2.Ox = this;
}
public void TestPolarCovalent()
{
var testInput00 = new Oxygen();
var testInput01 = new Hydrogen();
var testOutput = BondFactory.CreateBond(testInput00, testInput01).GetBond <PolarCovalent>();
Assert.IsNotNull(testOutput);
var dipole = testOutput.DipoleVectorSize;
Assert.IsTrue(dipole > 0D);
Console.WriteLine(dipole);
}
void OnTriggerEnter(Collider other)
{
if (_partner == null && other.gameObject.CompareTag("Hydrogen"))
{
Hydrogen otherHydrogen = (Hydrogen)other.gameObject.GetComponent("Hydrogen");
if (otherHydrogen._partner == null) // two free radicals meet and form covalent bond
{
bondingParticleSystem.Play();
_partner = other.gameObject;
otherHydrogen._partner = this.gameObject;
// chemical bond formation suddenly pulls slightly closer together
float deltaX = _partner.transform.position.x - this.transform.position.x;
float deltaY = _partner.transform.position.y - this.transform.position.y;
float deltaZ = _partner.transform.position.z - this.transform.position.z;
this.transform.position = new Vector3(
this.transform.position.x + 0.25f * deltaX,
this.transform.position.y + 0.25f * deltaY,
this.transform.position.z + 0.25f * deltaZ);
_partner.transform.position = new Vector3(
_partner.transform.position.x - 0.25f * deltaX,
_partner.transform.position.y - 0.25f * deltaY,
_partner.transform.position.z - 0.25f * deltaZ);
// @todo: change the color of both.
// create SpringJoint to implement covalent bond between these two atoms
springJoint = this.gameObject.AddComponent <SpringJoint>();
springJoint.connectedBody = other.gameObject.GetComponent <Rigidbody>();
springJoint.anchor = new Vector3(0, 0, 0);
springJoint.connectedAnchor = new Vector3(0, 0, 0);
springJoint.spring = 10;
springJoint.minDistance = 0.0f;
springJoint.maxDistance = 0.0f;
springJoint.tolerance = 0.025f;
springJoint.breakForce = Mathf.Infinity;
springJoint.breakTorque = Mathf.Infinity;
springJoint.enableCollision = false;
springJoint.enablePreprocessing = true;
}
}
if (other.gameObject.CompareTag("Wall"))
{
audioSource.PlayOneShot(audioClipBallBounce, 0.25f);
}
}
public ResourcePool(ResourceTypes resourceType, int numUnits, float depletedRate)
{
switch (resourceType)
{
case ResourceTypes.Bauxite:
Resource = new Bauxite();
break;
case ResourceTypes.Hydrocarbons:
Resource = new Hydrocarbons();
break;
case ResourceTypes.Hydrogen:
Resource = new Hydrogen();
break;
case ResourceTypes.IronOre:
Resource = new IronOre();
break;
case ResourceTypes.Medicine:
Resource = new Medicine();
break;
case ResourceTypes.Organics:
Resource = new Organics();
break;
case ResourceTypes.Silica:
Resource = new Silica();
break;
case ResourceTypes.ThoriumOre:
Resource = new ThoriumOre();
break;
default:
throw new Exception("Error: " + resourceType.ToString() + " not defined in ResourcePool constructor.");
}
Resource.AddResource(numUnits);
DepletedRate = depletedRate;
}
public void TestBondFactory()
{
IElement testInput00 = new Sodium();
IElement testInput01 = new Chlorine();
var testResult = BondFactory.CreateBond(testInput00, testInput01);
Assert.IsTrue(testResult is Ionic);
testInput00 = new Hydrogen();
testInput01 = new Hydrogen();
testResult = BondFactory.CreateBond(testInput00, testInput01);
Assert.IsTrue(testResult.Is(typeof(PurelyCovalent)));
testInput00 = new Hydrogen();
testInput01 = new Chlorine();
testResult = BondFactory.CreateBond(testInput00, testInput01);
Assert.IsTrue(testResult.Is(typeof(PolarCovalent)));
}
void SortingItems(ref List <MyInventoryItem> items)
{
foreach (var item in items)
{
if (item.Type.TypeId == "MyObjectBuilder_Component" && Components.ContainsKey(item.Type.SubtypeId)) // Если имя сходится с тем что в словаре
{
Components[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_Ingot" && Ingots.ContainsKey(item.Type.SubtypeId))
{
Ingots[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_Ore" && Ores.ContainsKey(item.Type.SubtypeId))
{
Ores[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_PhysicalGunObject" && Tools.ContainsKey(item.Type.SubtypeId))
{
Tools[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_OxygenContainerObject" && Oxygen.ContainsKey(item.Type.SubtypeId))
{
Oxygen[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_GasContainerObject" && Hydrogen.ContainsKey(item.Type.SubtypeId))
{
Hydrogen[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else if (item.Type.TypeId == "MyObjectBuilder_AmmoMagazine" && Ammo.ContainsKey(item.Type.SubtypeId))
{
Ammo[item.Type.SubtypeId].Amount += item.Amount.ToIntSafe();
}
else
{
Warning += $"\n[{item.Type.TypeId}/{item.Type.SubtypeId}] отсутствует в словарях";
}
}
}
public void TestPrintElectronShellCfg_All()
{
IElement testSubject;;
testSubject = new Hydrogen();
Console.WriteLine($"Hydrogen {testSubject.PrintElectronShellCfg()}");
testSubject = new Helium();
Console.WriteLine($"Helium {testSubject.PrintElectronShellCfg()}");
testSubject = new Lithium();
Console.WriteLine($"Lithium {testSubject.PrintElectronShellCfg()}");
testSubject = new Beryllium();
Console.WriteLine($"Beryllium {testSubject.PrintElectronShellCfg()}");
testSubject = new Boron();
Console.WriteLine($"Boron {testSubject.PrintElectronShellCfg()}");
testSubject = new Carbon();
Console.WriteLine($"Carbon {testSubject.PrintElectronShellCfg()}");
testSubject = new Nitrogen();
Console.WriteLine($"Nitrogen {testSubject.PrintElectronShellCfg()}");
testSubject = new Oxygen();
Console.WriteLine($"Oxygen {testSubject.PrintElectronShellCfg()}");
testSubject = new Fluorine();
Console.WriteLine($"Fluorine {testSubject.PrintElectronShellCfg()}");
testSubject = new Neon();
Console.WriteLine($"Neon {testSubject.PrintElectronShellCfg()}");
testSubject = new Sodium();
Console.WriteLine($"Sodium {testSubject.PrintElectronShellCfg()}");
testSubject = new Magnesium();
Console.WriteLine($"Magnesium {testSubject.PrintElectronShellCfg()}");
testSubject = new Aluminum();
Console.WriteLine($"Aluminum {testSubject.PrintElectronShellCfg()}");
testSubject = new Silicon();
Console.WriteLine($"Silicon {testSubject.PrintElectronShellCfg()}");
testSubject = new Phosphorus();
Console.WriteLine($"Phosphorus {testSubject.PrintElectronShellCfg()}");
testSubject = new Sulfur();
Console.WriteLine($"Sulfur {testSubject.PrintElectronShellCfg()}");
testSubject = new Chlorine();
Console.WriteLine($"Chlorine {testSubject.PrintElectronShellCfg()}");
testSubject = new Argon();
Console.WriteLine($"Argon {testSubject.PrintElectronShellCfg()}");
testSubject = new Potassium();
Console.WriteLine($"Potassium {testSubject.PrintElectronShellCfg()}");
testSubject = new Calcium();
Console.WriteLine($"Calcium {testSubject.PrintElectronShellCfg()}");
testSubject = new Scandium();
Console.WriteLine($"Scandium {testSubject.PrintElectronShellCfg()}");
testSubject = new Titanium();
Console.WriteLine($"Titanium {testSubject.PrintElectronShellCfg()}");
testSubject = new Vanadium();
Console.WriteLine($"Vanadium {testSubject.PrintElectronShellCfg()}");
testSubject = new Chromium();
Console.WriteLine($"Chromium {testSubject.PrintElectronShellCfg()}");
testSubject = new Manganese();
Console.WriteLine($"Manganese {testSubject.PrintElectronShellCfg()}");
testSubject = new Iron();
Console.WriteLine($"Iron {testSubject.PrintElectronShellCfg()}");
testSubject = new Cobalt();
Console.WriteLine($"Cobalt {testSubject.PrintElectronShellCfg()}");
testSubject = new Nickel();
Console.WriteLine($"Nickel {testSubject.PrintElectronShellCfg()}");
testSubject = new Copper();
Console.WriteLine($"Copper {testSubject.PrintElectronShellCfg()}");
testSubject = new Zinc();
Console.WriteLine($"Zinc {testSubject.PrintElectronShellCfg()}");
testSubject = new Gallium();
Console.WriteLine($"Gallium {testSubject.PrintElectronShellCfg()}");
testSubject = new Germanium();
Console.WriteLine($"Germanium {testSubject.PrintElectronShellCfg()}");
testSubject = new Arsenic();
Console.WriteLine($"Arsenic {testSubject.PrintElectronShellCfg()}");
testSubject = new Selenium();
Console.WriteLine($"Selenium {testSubject.PrintElectronShellCfg()}");
testSubject = new Bromine();
Console.WriteLine($"Bromine {testSubject.PrintElectronShellCfg()}");
testSubject = new Krypton();
Console.WriteLine($"Krypton {testSubject.PrintElectronShellCfg()}");
testSubject = new Rubidium();
Console.WriteLine($"Rubidium {testSubject.PrintElectronShellCfg()}");
testSubject = new Strontium();
Console.WriteLine($"Strontium {testSubject.PrintElectronShellCfg()}");
testSubject = new Yttrium();
Console.WriteLine($"Yttrium {testSubject.PrintElectronShellCfg()}");
testSubject = new Zirconium();
Console.WriteLine($"Zirconium {testSubject.PrintElectronShellCfg()}");
testSubject = new Niobium();
Console.WriteLine($"Niobium {testSubject.PrintElectronShellCfg()}");
testSubject = new Molybdenum();
Console.WriteLine($"Molybdenum {testSubject.PrintElectronShellCfg()}");
testSubject = new Technetium();
Console.WriteLine($"Technetium {testSubject.PrintElectronShellCfg()}");
testSubject = new Ruthenium();
Console.WriteLine($"Ruthenium {testSubject.PrintElectronShellCfg()}");
testSubject = new Rhodium();
Console.WriteLine($"Rhodium {testSubject.PrintElectronShellCfg()}");
testSubject = new Palladium();
Console.WriteLine($"Palladium {testSubject.PrintElectronShellCfg()}");
testSubject = new Silver();
Console.WriteLine($"Silver {testSubject.PrintElectronShellCfg()}");
testSubject = new Cadmium();
Console.WriteLine($"Cadmium {testSubject.PrintElectronShellCfg()}");
testSubject = new Indium();
Console.WriteLine($"Indium {testSubject.PrintElectronShellCfg()}");
testSubject = new Tin();
Console.WriteLine($"Tin {testSubject.PrintElectronShellCfg()}");
testSubject = new Antimony();
Console.WriteLine($"Antimony {testSubject.PrintElectronShellCfg()}");
testSubject = new Tellurium();
Console.WriteLine($"Tellurium {testSubject.PrintElectronShellCfg()}");
testSubject = new Iodine();
Console.WriteLine($"Iodine {testSubject.PrintElectronShellCfg()}");
testSubject = new Xenon();
Console.WriteLine($"Xenon {testSubject.PrintElectronShellCfg()}");
testSubject = new Cesium();
Console.WriteLine($"Cesium {testSubject.PrintElectronShellCfg()}");
testSubject = new Barium();
Console.WriteLine($"Barium {testSubject.PrintElectronShellCfg()}");
}
/// <summary>
/// Process the MeshDescription data sent back from the Combiner and make it appear!
/// </summary>
/// <param name="hash">Instance Hash.</param>
/// <param name="meshDescriptions">MeshDescriptions.</param>
/// <param name="materials">Materials.</param>
IEnumerator CreateMeshes(int hash, Hydrogen.Threading.Jobs.MeshCombiner.MeshOutput[] meshOutputs)
{
// Make our meshes in Unity
for (int x = 0; x < meshOutputs.Length; x++) {
var meshObject = new GameObject ();
var newMesh = Combiner.CreateMeshObject (meshOutputs [x], true);
meshObject.name = newMesh.Mesh.name;
meshObject.AddComponent<MeshFilter> ().sharedMesh = newMesh.Mesh;
meshObject.AddComponent<MeshRenderer> ().sharedMaterials = newMesh.Materials;
if (_parentLookup.ContainsKey (hash)) {
meshObject.transform.parent = _parentLookup [hash];
}
meshObject.transform.position = Vector3.zero;
meshObject.transform.rotation = Quaternion.identity;
// Fake Unity Threading
if (x > 0 && x % ThrottleRate == 0) {
yield return new WaitForEndOfFrame ();
}
}
if (_parentLookup.ContainsKey (hash)) {
_parentLookup.Remove (hash);
}
// Clear previous data (for demonstration purposes)
// It could be useful to keep some mesh data in already parsed, then you could use the RemoveMesh function
// to remove ones that you want changed, without having to reparse mesh data.
Combiner.ClearMeshes ();
}
/// <summary>
/// This function is called in the example after the MeshCombiner has processed the meshes, it starts a Coroutine
/// to create the actual meshes based on the flat data. This is the most optimal way to do this sadly as we cannot
/// create or touch Unity based meshes outside of the main thread.
/// </summary>
/// <param name="hash">Instance Hash.</param>
/// <param name="meshOutputs">.</param>
public void ThreadCallback(int hash, Hydrogen.Threading.Jobs.MeshCombiner.MeshOutput[] meshOutputs)
{
// This is just a dirty way to see if we can squeeze jsut a bit more performance out of Unity when
// making all of the meshes for us (instead of it being done in one call, we use a coroutine with a loop.
_threadRunning = false;
StartCoroutine (CreateMeshes (hash, meshOutputs));
}
