static void Main(string[] args)
{
using (var qsim = new QuantumSimulator())
{
Entanglement.Run(qsim).Wait();
}
}
static void Main(string[] args)
{
var ones = 0;
var equal = 0;
using (var qsim = new QuantumSimulator())
{
for (int index = 0; index < 1000; index++)
{
var(qubitOne, qubitTwo) = Entanglement.Run(qsim).Result;
if (qubitOne == Result.One)
{
ones++;
}
if (qubitOne == qubitTwo)
{
equal++;
}
}
}
Console.WriteLine("Entanglement Result: ");
Console.WriteLine($"\t One: {ones}");
Console.WriteLine($"\t Zero: {1000-ones}");
Console.WriteLine($"\t Equal: {equal/1000*100}");
Console.ReadKey();
}
static void Main(string[] args)
{
var ones = 0;
var same = 0;
// We initialize a Quantum Simulator same as before.
using (var qsim = new QuantumSimulator())
{
// We run a loop for 1000 times to test the principle
for (int i = 0; i < 1000; i++)
{
// We run the Entanglement operation and store the returned results in the respective varialbles
var(qone_state, qtwo_state) = Entanglement.Run(qsim).Result;
// Check to see how many times we got state value 1. This will confirm our Superposition that collapses to state 0 or 1 with 50% probability for each
if (qone_state == Result.One)
{
ones++;
}
// Next we perform the comparison to check if the state values of the qubit match. They should, if they are entangled and result in 100% matches
if (qone_state == qtwo_state)
{
same++;
}
}
}
// Fancy printing the results.
Console.WriteLine("Entanglement Results: ");
Console.WriteLine($"\t One: {ones}");
Console.WriteLine($"\t Zero: {1000 - ones}");
Console.WriteLine($"\t Same: {same / 1000 * 100}%");
Console.ReadKey();
}
static void Main(string[] args)
{
var numberOfSameState = 0;
var numberOfDifferentStates = 0;
var numberOfOnes = 0;
var numberOfZeros = 0;
using (var qsim = new QuantumSimulator())
{
for (int k = 0; k < 1000; k++)
{
// Compare two Qubits colapsed state after entanglement
var(qubitOneResult, qubitTwoResult) = Entanglement.Run(qsim).Result;
if (qubitOneResult == qubitTwoResult)
{
numberOfSameState++;
}
else
{
numberOfDifferentStates++;
}
if (qubitOneResult == Result.One)
{
numberOfOnes++;
}
else
{
numberOfZeros++;
}
if (qubitTwoResult == Result.One)
{
numberOfOnes++;
}
else
{
numberOfZeros++;
}
}
}
Console.WriteLine("==============================================");
Console.WriteLine("========= Entanglement Calculations ==========");
Console.WriteLine("==============================================");
Console.WriteLine();
Console.WriteLine($"Number of ONES: {numberOfOnes}, Number of ZEROS: {numberOfZeros}");
Console.WriteLine($"Entangled matched: {numberOfSameState} Entangled mismatched: {numberOfDifferentStates}");
Console.WriteLine($"Even though the value might be different we expect ALL entagled Qubits to match.");
Console.WriteLine();
Console.ReadKey();
}
static void Main(string[] args)
{
/*using (var qsim = new QuantumSimulator()) // Only for hello quantum
* {
* HelloQ.Run(qsim).Wait();
* }*/
using (var qsim = new QuantumSimulator())
{
Entanglement.Run(qsim).Wait();
}
}
public void TestEntanglement(QuantumSimulator qsim)
{
Start("Entanglement");
System.Console.WriteLine($"Testing Entanglement operation");
Result[] init = new Result[] { Result.Zero, Result.One };
foreach (Result vector in init)
{
var res = Entanglement.Run(qsim, 1000, vector).Result;
var(zeros, ones, equal) = res;
System.Console.WriteLine(
$"Init:{vector,-4} 0s={zeros,-4} 1s={ones,-4} agree={equal,-4}");
}
End("Entanglement");
}
static void Main(string[] args)
{
using (var qsim = new QuantumSimulator())
{
// Each Q# operation generates a C# class with the same name.
// This class has a Run method that asynchronously executes the operation.
// The execution is asynchronous because execution on actual hardware will be asynchronous.
// However, Result blocks execution until task completes; return synchronously
var res = HelloQ.Run(qsim).Result;
}
System.Console.WriteLine("Press any key to continue...");
System.Console.WriteLine("Next up: Superposition: ");
Console.ReadKey();
// work with superposition
using (var qsim = new QuantumSimulator())
{
// Try initial values
Result[] initials = new Result[] { Result.Zero, Result.One };
foreach (Result initial in initials)
{
// '.Result' blocks execution until the task completes and returns the result synchronously.
var res = Superposition.Run(qsim, 1000, initial).Result;
var (numZeros, numOnes) = res;
System.Console.WriteLine(
$"Init:{initial,-4} 0s={numZeros,-4} 1s={numOnes,-4}");
}
}
System.Console.WriteLine("Press any key to continue...");
System.Console.WriteLine("Next up: Entanglement: ");
Console.ReadKey();
// work with entanglement
using (var qsim = new QuantumSimulator())
{
Result[] initials = new Result[] { Result.Zero, Result.One };
foreach (Result initial in initials)
{
var res = Entanglement.Run(qsim, 1000, initial).Result;
var (numZeros, numOnes, agree) = res;
System.Console.WriteLine(
$"Init:{initial,-4} 0s={numZeros,-4} 1s={numOnes,-4} agree={agree,-4}");
}
}
System.Console.WriteLine("Press any key to continue...");
Console.ReadKey();
}
static void Run_Entanglement(string[] args)
{
Console.WriteLine("Running: Entanglement Test");
// Initialise the quantum simulator
using (var qsim = new QuantumSimulator())
{
Result[] initials = { Result.Zero, Result.One };
foreach (var initial in initials)
{
// Execute the quantum function
var res = Entanglement.Run(qsim, 1000, initial).Result;
var(numZeros, numOnes, agree) = res;
Console.WriteLine($"Init:{initial,-4} 0s={numZeros,-4} 1s={numOnes,-4} agree={agree,-4}");
}
}
Console.WriteLine();
}
static void Run(Func func)
{
int opcode = 0;
code.pos = func.location;
currentFunc = func;
Block currentBlock = null;
Stack <Block> blockstack = new Stack <Block>();
while (running)
{
try
{
opcode = code.ReadInt();
}
catch (Exception ex)
{
Log.Here().Warning(ex, "Insignificant exception during buffer-read.");
}
Log.Here().Verbose($"Current opcode: {opcode}");
if (opcode == Opcodes.pushInt)
{
stack.Push(code.ReadInt());
}
else if (opcode == Opcodes.pushString)
{
stack.Push(code.ReadString());
}
else if (opcode == Opcodes.pushVar)
{
stack.Push(GetVarValue(code.ReadString()));
}
else if (opcode == Opcodes.print)
{
Console.Write(stack.Pop());
}
else if (opcode == Opcodes.printLine)
{
Console.WriteLine(stack.Pop());
}
else if (opcode == Opcodes.read)
{
Console.Read();
}
else if (opcode == Opcodes.readLine)
{
Console.ReadLine();
}
else if (opcode == Opcodes.qc_randomBitGenerator)
{
using var qsim = new QuantumSimulator();
Console.WriteLine($"Random bit: {RandomBitGenerator.Run(qsim).Result}");
}
else if (opcode == Opcodes.qc_randomNumberGenerator)
{
using var sim = new QuantumSimulator();
// First we initialize all the variables:
var bitString = "0"; // To save the bit string
int max = (int)(stack.Pop() ?? throw new NullReferenceException("What's the maximum of the random number you want to generate?")); // The maximum of the range
int size = Convert.ToInt32(Math.Floor(Math.Log(max, 2.0) + 1));
// To calculate the amount of needed bits
int output = max + 1; // Int to store the output
while (output > max) // Loop to generate the number
{
bitString = "0"; // Restart the bit string if fails
bitString = String.Join("", Enumerable.Range(0, size).Select(idx =>
RandomBitGenerator.Run(sim).Result == Result.One ? "1" : "0"
)
);
// Generate and concatenate the bits using using the Q# operation
output = Convert.ToInt32(bitString, 2);
// Convert the bit string to an integer
}
// Print the result
Console.WriteLine($"Random number: {output}");
}
else if (opcode == Opcodes.qc_entanglement)
{
using var qsim = new QuantumSimulator();
Result[] initials = new Result[] { Result.Zero, Result.One };
foreach (Result initial in initials)
{
(long, long, long)res = Entanglement.Run(qsim, 1000, initial).Result;
(long numZeros, long numOnes, long agree) = res;
Console.WriteLine($"Init:{initial,-4} 0s={numZeros,-4} 1s={numOnes,-4} agree={agree,-4}");
}
}
else if (opcode == Opcodes.bc_createBlockchain)
{
Console.WriteLine(vars);
stack.Push(new Blockchain());
Log.Here().Information("Initialized new blockchain.");
}
else if (opcode == Opcodes.bc_createTransaction)
{
Blockchain blockchain = stack.Pop() as Blockchain ?? throw new NullReferenceException("Create a blockchain before trying to create a transaction!");
//Blockchain blockchain = GetVarValue(code.ReadString()) as Blockchain
// ?? throw new NullReferenceException("Create a blockchain before trying to create a transaction!");
string fromAddress = stack.Pop() as string ?? throw new NullReferenceException("Who is receiving abinCoins?");
string toAddress = (stack.Pop() as string) ?? throw new NullReferenceException("Who is transacting abinCoins?");
int amount = (int)(stack.Pop() ?? throw new NullReferenceException("How much coins do you want to transact?"));
blockchain.CreateTransaction(new Transaction(fromAddress, toAddress, amount));
Log.Here().Information($"New transaction over '{amount}' abinCoins on Blockchain from '{fromAddress}' to '{toAddress}'.");
}
else if (opcode == Opcodes.bc_mine)
{
Blockchain blockchain = stack.Pop() as Blockchain
?? throw new NullReferenceException("Create a blockchain before trying to mine abinCoins!");
string miningAddress = stack.Pop() as string ?? throw new NullReferenceException("Who is mining abinCoins?");
blockchain.ProcessPendingTransactions(miningAddress);
Log.Here().Information($"'{miningAddress}' is mining abin coins.");
}
else if (opcode == Opcodes.bc_isValid)
{
Blockchain blockchain = stack.Pop() as Blockchain
?? throw new NullReferenceException("Create a blockchain before trying to verify it's validation-state!");
if (blockchain.IsValid())
{
Log.Here().Information("Blockchain is valid.");
}
else
{
Log.Here().Warning("Blockchain is NOT valid. Data corrupted.");
}
}
else if (opcode == Opcodes.halt)
{
while (true)
{
}
}
else if (opcode == Opcodes.inputInt32)
{
stack.Push(Convert.ToInt32(Console.ReadLine()));
}
else if (opcode == Opcodes.inputString)
{
stack.Push(Console.ReadLine());
}
else if (opcode == Opcodes.pop)
{
stack.Pop();
}
else if (opcode == Opcodes.popa)
{
stack.Clear();
}
else if (opcode == Opcodes.decVar)
{
vars.Add(new Var(code.ReadString()));
}
else if (opcode == Opcodes.setVar)
{
SetVarValue(code.ReadString(), stack.Pop());
}
else if (opcode == Opcodes.add)
{
object value1 = stack.Pop();
object value2 = stack.Pop();
if (value1 is string && value2 is string)
{
string value = ((string)value2) + ((string)value1);
stack.Push(value);
}
else if (value1 is int && value2 is int)
{
int value = ((int)value1) + ((int)value2);
stack.Push(value);
}
}
else if (opcode == Opcodes.sub)
{
int value1 = (int)stack.Pop();
int value2 = (int)stack.Pop();
stack.Push(value1 - value2);
}
else if (opcode == Opcodes.mul)
{
int value1 = (int)stack.Pop();
int value2 = (int)stack.Pop();
stack.Push(value1 * value2);
}
else if (opcode == Opcodes.div)
{
int value1 = (int)stack.Pop();
int value2 = (int)stack.Pop();
stack.Push(value1 / value2);
}
else if (opcode == Opcodes.clear)
{
Console.Clear();
}
else if (opcode == Opcodes.ife)
{
int blockNumber = code.ReadInt();
IfBlock ifblock = GetIf(blockNumber);
object value1 = stack.Pop();
object value2 = stack.Pop();
if (IfEqual(value1, value2))
{
if (currentBlock == null)
{
currentBlock = ifblock;
}
else
{
blockstack.Push(currentBlock);
currentBlock = ifblock;
}
IncVars();
ifWorked = true;
}
else
{
code.pos = ifblock.endBlock;
ifWorked = false;
}
}
else if (opcode == Opcodes.ifn)
{
int blockNumber = code.ReadInt();
IfBlock ifblock = GetIf(blockNumber);
object value1 = stack.Pop();
object value2 = stack.Pop();
if (!IfEqual(value1, value2))
{
if (currentBlock == null)
{
currentBlock = ifblock;
}
else
{
blockstack.Push(currentBlock);
currentBlock = ifblock;
}
IncVars();
ifWorked = true;
}
else
{
code.pos = ifblock.endBlock;
ifWorked = false;
}
}
else if (opcode == Opcodes.elseife)
{
int blockNumber = code.ReadInt();
ElseIfBlock elseifblock = GetElseIf(blockNumber);
if (!ifWorked)
{
object value1 = stack.Pop();
object value2 = stack.Pop();
if (IfEqual(value1, value2))
{
if (currentBlock == null)
{
currentBlock = elseifblock;
}
else
{
blockstack.Push(currentBlock);
currentBlock = elseifblock;
}
IncVars();
ifWorked = true;
}
else
{
code.pos = elseifblock.endBlock;
ifWorked = false;
}
}
else
{
code.pos = elseifblock.endBlock;
}
}
else if (opcode == Opcodes.elseifn)
{
int blockNumber = code.ReadInt();
ElseIfBlock elseifblock = GetElseIf(blockNumber);
if (!ifWorked)
{
object value1 = stack.Pop();
object value2 = stack.Pop();
if (!IfEqual(value1, value2))
{
if (currentBlock == null)
{
currentBlock = elseifblock;
}
else
{
blockstack.Push(currentBlock);
currentBlock = elseifblock;
}
IncVars();
ifWorked = true;
}
else
{
code.pos = elseifblock.endBlock;
ifWorked = false;
}
}
else
{
code.pos = elseifblock.endBlock;
}
}
else if (opcode == Opcodes.els)
{
int blockNumber = code.ReadInt();
ElseBlock elseblock = GetElse(blockNumber);
if (!ifWorked)
{
if (currentBlock == null)
{
currentBlock = elseblock;
}
else
{
blockstack.Push(currentBlock);
currentBlock = elseblock;
}
IncVars();
}
else
{
code.pos = elseblock.endBlock;
}
}
else if (opcode == Opcodes.endif)
{
if (blockstack.Count > 0)
{
currentBlock = blockstack.Pop();
}
else
{
currentBlock = null;
}
DecVars();
}
else if (opcode == Opcodes.call)
{
string name = code.ReadString();
Func f = GetFunc(name);
Call c = new Call(currentFunc, code.pos, new List <Var>(vars));
callstack.Push(c);
currentFunc = f;
code.pos = f.location;
vars.Clear();
}
else if (opcode == Opcodes.got)
{
string name = code.ReadString();
int location = GetLabel(name);
code.pos = location;
}
else if (opcode == Opcodes.ret)
{
if (callstack.Count > 0)
{
Call c = callstack.Pop();
currentFunc = c.func;
code.pos = c.ret;
vars = c.vars;
}
else
{
running = false;
}
}
}
}