static void Main(string[] args)
{
NumericArray <Rational> numericArray = new NumericArray <Rational>();
numericArray.Add(new Rational(1, 8));
numericArray.Add(new Rational(1, 4));
numericArray.Add(new Rational(1, 2));
// place for 3/5
numericArray.Add(new Rational(3, 4));
numericArray.Add(new Rational(1, 4));
Console.WriteLine("Numetic Array of Rational: ");
Console.WriteLine(numericArray);
Console.WriteLine("Size: " + numericArray.Size());
Console.WriteLine("Max: " + numericArray.GetMax());
Console.WriteLine("Min: " + numericArray.GetMin());
Console.WriteLine("Greater than 3/5 (count): " + numericArray.HowManyIsGreaterThan(new Rational(3, 5)));
Console.WriteLine("Lesser than 3/5 (count): " + numericArray.HowManyIsLesserThan(new Rational(3, 5)));
Console.WriteLine("Greater than 1/2 (count): " + numericArray.HowManyIsGreaterThan(new Rational(1, 2)));
Console.WriteLine("Lesser than 1/2 (count): " + numericArray.HowManyIsLesserThan(new Rational(1, 2)));
String filepath = "data.txt";
String pattern = "[0-9]+/[0-9]+";
RationalFactory rationalFactory = new RationalFactory();
NumericArray <Rational> numericArray2 = new NumericArray <Rational>(filepath, pattern, rationalFactory);
Console.WriteLine();
Console.WriteLine("NumericArray2, created from file: ");
Console.WriteLine(numericArray2);
Polynom <Rational> polynom1 = new Polynom <Rational>(numericArray);
Polynom <Rational> polynom2 = new Polynom <Rational>(numericArray2);
Console.WriteLine();
Console.WriteLine("Polynom1:");
Console.WriteLine(polynom1);
Console.WriteLine("Polynom2:");
Console.WriteLine(polynom2);
Console.WriteLine("Sum:");
Console.WriteLine(polynom1 + polynom2);
Console.WriteLine();
Console.WriteLine("Trying to operate with rational with zero denominator:");
try
{
Rational r = new Rational("3/0");
Console.WriteLine(r);
Console.WriteLine(r.GetDouble());
} catch (Exception ex)
{
Console.WriteLine("Exception catched: " + ex.ToString());
}
Console.Read();
}
protected override void OnEVH()
{
switch (step)
{
case 1:
parallism = encVal.Length;
scaleBits = new byte[parallism];
kip_minus_2_times_kmi = new NumericArray();
party.receiver.ReceiveFrom(PartyType.KH, line, this, kip_minus_2_times_kmi);
break;
case 2:
var enc_kip_eip = new NumericArray(parallism * Config.KeyBits);
for (int p = 0; p < parallism; ++p)
{
//System.Diagnostics.Debug.Assert(encVal[p].GetEncType() == EncryptionType.AddMod);
scaleBits[p] = encVal[p].GetScaleBits();
int offset = p * Config.KeyBits;
var emi = new Numeric[Config.KeyBits];
for (int i = 0; i < Config.KeyBits; ++i)
{
emi[i] = encVal[p].ModPow(i);
emi[i].ResetScaleBits();
enc_kip_eip[offset + i] = emi[i] + kip_minus_2_times_kmi[offset + i];
}
}
eci = new NumericArray();
new LessZeroOnEVH(party, line, this, enc_kip_eip, eci, Config.KeyBits).Run();
break;
case 3:
Numeric[] enc_kf_a = new Numeric[parallism];
for (int p = 0; p < parallism; ++p)
{
int offset = p * Config.KeyBits;
BigInteger bi = BigInteger.Zero;
for (int i = Config.KeyBits - 1; i >= 0; --i)
{
bi = (bi << 1) + eci[offset + i].GetUnsignedBigInteger();
}
enc_kf_a[p] = new Numeric(bi, scaleBits[p]);
//System.Diagnostics.Debug.WriteLine("EVH EncVal: " + encVal[p]);
//System.Diagnostics.Debug.WriteLine("EVH CarryBits: " + enckf[p]);
enc_kf_a[p] ^= encVal[p];
//System.Diagnostics.Debug.WriteLine("EVH Results: " + enckf[p]);
enc_kf_a[p].SetScaleBits(scaleBits[p]);
//enckf[p].SetEncType(EncryptionType.XOR);
}
result.SetArray(enc_kf_a);
caller.Run();
break;
default:
throw new Exception();
}
}
protected override void OnKH()
{
switch (step)
{
case 1:
parallism = key.Length;
scaleBits = new byte[parallism];
Numeric[] kip = new Numeric[Config.KeyBits * parallism], kip_minus_2_times_kmi = new Numeric[Config.KeyBits * parallism];
for (int p = 0; p < parallism; ++p)
{
//System.Diagnostics.Debug.Assert(key[p].GetEncType() == EncryptionType.AddMod);
scaleBits[p] = key[p].GetScaleBits();
int offset = p * Config.KeyBits;
var kmi = new Numeric[Config.KeyBits];
for (int i = 0; i < Config.KeyBits; ++i)
{
kmi[i] = key[p].ModPow(i);
kmi[i].ResetScaleBits();
kip[offset + i] = Utility.NextUnsignedNumeric(0);
kip_minus_2_times_kmi[offset + i] = kip[offset + i] - kmi[i];
}
}
var toEVH = Message.AssembleMessage(line, opType, false, kip_minus_2_times_kmi);
party.sender.SendTo(PartyType.EVH, toEVH);
kci = new NumericArray();
new LessZeroOnKH(party, line, this, new NumericArray(kip), kci, Config.KeyBits).Run();
break;
case 2:
Numeric[] kf = new Numeric[parallism];
for (int p = 0; p < parallism; ++p)
{
int offset = p * Config.KeyBits;
BigInteger bi = BigInteger.Zero;
for (int i = Config.KeyBits - 1; i >= 0; --i)
{
bi = (bi << 1) + kci[offset + i].GetUnsignedBigInteger();
}
kf[p] = new Numeric(bi, scaleBits[p]);
//System.Diagnostics.Debug.WriteLine("KH Key: " + key[p]);
//System.Diagnostics.Debug.WriteLine("KH CarryBits: " + kf[p]);
kf[p] ^= key[p];
//System.Diagnostics.Debug.WriteLine("KH Results: " + kf[p]);
kf[p].SetScaleBits(scaleBits[p]);
//kf[p].SetEncType(EncryptionType.XOR);
}
result.SetArray(kf);
caller.Run();
break;
default:
throw new Exception();
}
}
public void ToDelimitedString_WithAllProperties_ReturnsCorrectlySequencedFields()
{
IType hl7Type = new NumericArray
{
Value1 = 1,
Value2 = 2,
Value3 = 3,
Value4 = 4
};
string expected = "1^2^3^4";
string actual = hl7Type.ToDelimitedString();
Assert.Equal(expected, actual);
}
public void FromDelimitedString_WithAllProperties_ReturnsCorrectlyInitializedFields()
{
IType expected = new NumericArray
{
Value1 = 1,
Value2 = 2,
Value3 = 3,
Value4 = 4
};
IType actual = new NumericArray();
actual.FromDelimitedString("1^2^3^4");
expected.Should().BeEquivalentTo(actual);
}