/// <summary>
/// Create a packet that will send a custom object creation call.
/// It is expected that the first byte that follows will identify which function will be parsing this packet later.
/// </summary>
static public void CreateEx(int rccID, bool persistent, GameObject go, params object[] objs)
{
if (go != null)
{
int index = IndexOf(go);
if (isConnected)
{
if (index != -1)
{
BinaryWriter writer = mInstance.mClient.BeginSend(Packet.RequestCreate);
writer.Write((ushort)index);
writer.Write(GetFlag(go, persistent));
writer.Write((byte)rccID);
writer.WriteArray(objs);
EndSend();
return;
}
else
{
Debug.LogError("\"" + go.name + "\" has not been added to TNManager's list of objects, so it cannot be instantiated.\n" +
"Consider placing it into the Resources folder and passing its name instead.", go);
}
}
objs = BinaryExtensions.CombineArrays(go, objs);
UnityTools.ExecuteAll(GetRCCs(), (byte)rccID, objs);
UnityTools.Clear(objs);
}
}
/// <summary>
/// Calculate <c>QR</c> code format
/// </summary>
/// <param name="error">
/// The error code information.
/// </param>
/// <param name="mask">
/// The mask.
/// </param>
private void CalculateFormat(QrError error, QrMask mask)
{
// Get error bits
if (this.debugData != null)
{
this.debugData.Append("- Calculating format bits...\n");
}
// Get 5 bits of format information
int formatInfo = (QrErrorBits.GetBits(error) << 3) | BinaryExtensions.BinToDec(mask.GetBits());
if (this.debugData != null)
{
this.debugData.Append(
"- Format information error and mask bits: "
+ BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(formatInfo)) + "\n");
this.debugData.Append("- Calculating BCH (15,5) code for information bits...\n");
}
int bchCode = QrBoseChaudhuriHocquenghem.CalculateBch(formatInfo, QrConst.GenPolyFormat);
if (this.debugData != null)
{
this.debugData.Append(
"- BCH (15,5) error code: " + BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(bchCode))
+ "\n");
}
// Append BCH code to format info
formatInfo = (formatInfo << 10) | bchCode;
if (this.debugData != null)
{
this.debugData.Append(
"- Format information with appended BCH: "
+ BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(formatInfo)) + "\n");
this.debugData.Append(
"- Calculating XOR with format constant: "
+ BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(QrConst.ConstFormatXor)) + "\n");
}
formatInfo = formatInfo ^ QrConst.ConstFormatXor;
if (this.debugData != null)
{
this.debugData.Append(
"- Final format: " + BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(formatInfo, 15))
+ "\n");
}
List <bool> formatBits = BinaryExtensions.DecToBin(formatInfo, 15);
// Reverse, because our QRCode is inserting backwards
formatBits.Reverse();
foreach (bool t in formatBits)
{
this.output.Enqueue(t);
}
}
/// <summary>
/// Serializes a Message to a Sachiel buffer and sets the Raw property.
/// If you are attempting to serialize a request endpoint, set includeEndpointAsHeader to true to automatically set the header.
/// </summary>
/// <returns></returns>
public async Task <byte[]> Serialize(int allocate = 0, bool includeEndpointAsHeader = false)
{
var messageStream = new MemoryStream(allocate);
var headerStream = new MemoryStream();
try
{
if (!IsCompatibile(Source.GetType()))
throw new InvalidSerializationException($"{Source.GetType()} is not based on Message."); }
// For IPC purposes people might wish to use request both ways, this should allow them to do that.
if (includeEndpointAsHeader)
{
var attribute = Source.GetType().GetTypeInfo().GetCustomAttribute <SachielEndpoint>(false);
if (attribute == null)
{
throw new InvalidOperationException("No SachielEndpoint attribute is present on message.");
}
Header.Endpoint = attribute?.Name;
}
//Throw is the header is null.
if (string.IsNullOrEmpty(Header?.Endpoint))
{
throw new InvalidOperationException("Message headers cannot be null.");
}
Serialize(ref headerStream, Target.Header);
await UnsafeArrayIo.WriteArray(messageStream, BinaryExtensions.EncodeVariableLengthQuantity((ulong)headerStream.Length), true);
await UnsafeArrayIo.WriteArray(messageStream, headerStream.ToArray(), true);
Serialize(ref messageStream, Target.Source);
return(messageStream.ToArray());
}
/// <summary>
/// Read page bytes from disk
/// </summary>
public virtual byte[] ReadPage(uint pageID)
{
var buffer = new byte[BasePage.PAGE_SIZE];
var position = BasePage.GetSizeOfPages(pageID);
// position cursor
if (_stream.Position != position)
{
_stream.Seek(position, SeekOrigin.Begin);
}
// read bytes from data file
_stream.Read(buffer, 0, BasePage.PAGE_SIZE);
// when reading the header, check the password
if (pageID == 0 && _crypto != null)
{
// I know, header page will be double read (it's the price for isolated concerns)
var header = (HeaderPage)BasePage.ReadPage(buffer);
if (BinaryExtensions.BinaryCompareTo(_password, header.Password) != 0)
{
throw LiteException.DatabaseWrongPassword();
}
}
else if (_crypto != null)
{
buffer = _crypto.Decrypt(buffer);
}
return(buffer);
}
public void AddBinaryNull_Should_NotAddLogEventDetail()
{
var logEvent = new LogEvent <StandardLoglevel>(_ => { }, StandardLoglevel.Warning);
BinaryExtensions.Binary <StandardLoglevel>(logEvent, null).Should().BeSameAs(logEvent);
logEvent.Details.OfType <Binary>().Any().Should().BeFalse();
}
/// <summary>
/// Create a packet that will send a custom object creation call.
/// It is expected that the first byte that follows will identify which function will be parsing this packet later.
/// </summary>
static public void CreateEx(int rccID, bool persistent, string path, params object[] objs)
{
GameObject go = LoadGameObject(path);
if (go != null)
{
if (isConnected)
{
if (mInstance != null && mInstance.mClient.isSwitchingScenes)
{
Debug.LogWarning("Trying to create an object while switching scenes. Call will be ignored.");
}
BinaryWriter writer = mInstance.mClient.BeginSend(Packet.RequestCreate);
byte flag = GetFlag(go, persistent);
writer.Write((ushort)65535);
writer.Write(flag);
writer.Write(path);
writer.Write((byte)rccID);
writer.WriteArray(objs);
EndSend();
return;
}
objs = BinaryExtensions.CombineArrays(go, objs);
UnityTools.ExecuteAll(GetRCCs(), (byte)rccID, objs);
UnityTools.Clear(objs);
}
else
{
Debug.LogError("Unable to load " + path);
}
}
public void AddBinaryData_Should_AddLogEventDetail()
{
var data = new byte[] { 48, 49, 50, 51 };
var logEvent = new LogEvent <StandardLoglevel>(_ => { }, StandardLoglevel.Warning);
BinaryExtensions.Binary <StandardLoglevel>(logEvent, data).Should().BeSameAs(logEvent);
logEvent.Details.OfType <Binary>().Single().Data.SequenceEqual(data).Should().BeTrue();
}
public void Deserialize(BEReader br)
{
Header.Deserialize(br);
Payload = CreateFromPayloadType(Header.PayloadType);
byte[] buf = br.ReadToEnd();
BinaryReader payloadReader = BinaryExtensions.ReaderFromBytes(buf);
Payload.Deserialize(payloadReader);
}
public void GetByteLengthTest()
{
int i1 = 0;
int i2 = 0;
Assert.AreEqual(8, BinaryExtensions.GetByteLength(i1, i2));
short s1 = 0;
Assert.AreEqual(10, BinaryExtensions.GetByteLength(i1, i2, s1));
long l1 = 0;
Assert.AreEqual(18, BinaryExtensions.GetByteLength(i1, i2, s1, l1));
}
public static ulong?GetNullableUnsignedLong(IDataRecord reader, int index)
{
if (reader.IsDBNull(index))
{
return(default(ulong?));
}
var value = reader.GetValue(index);
var bytes = (byte[])value;
if (bytes.Length == 0)
{
return(default(ulong?));
}
return(BinaryExtensions.RowVersionBytesToUInt64(bytes));
}
private byte[] ReadAndDecryptChunk(Stream stream)
{
var reader = new BEReader(stream);
// 0xde, 0xad
reader.ReadBytes(2);
var length = reader.ReadUInt16();
var encryptedPayloadLength = length + BinaryExtensions.CalculatePaddingSize(length, 16);
var encryptedPayloadBytes = new byte[encryptedPayloadLength];
var encryptedPayloadPosition = 0;
while (encryptedPayloadPosition < encryptedPayloadLength - 1)
{
var received = reader.ReadBytes(encryptedPayloadLength - encryptedPayloadPosition);
received.CopyTo(encryptedPayloadBytes, encryptedPayloadPosition);
encryptedPayloadPosition += received.Length;
}
var signature = reader.ReadBytes(32);
var bodyWriter = new BEWriter();
bodyWriter.Write(new byte[] { 0xde, 0xad });
bodyWriter.Write(length);
bodyWriter.Write(encryptedPayloadBytes);
var messageSignature = _cryptoContext.CalculateMessageSignature(bodyWriter.ToArray());
if (!signature.SequenceEqual(messageSignature))
{
throw new InvalidDataException("Invalid message signature.");
}
var decryptedPayload = _cryptoContext.Decrypt(encryptedPayloadBytes);
return(decryptedPayload.Take(length).ToArray());
}
/// <summary>
/// The do mask.
/// </summary>
/// <param name="codeMask">
/// The mask.
/// </param>
private void DoMask(QrMask codeMask)
{
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 9 ------------------\n- Executing mask on data pixels: "
+ BinaryExtensions.BinaryToString(codeMask.GetBits()) + "\n");
}
int counter = 0;
for (int i = 0; i < this.picture.GetLength(0); i++)
{
for (int j = 0; j < this.picture.GetLength(1); j++)
{
int x = this.picture.GetLength(0) - i - 1;
int y = this.picture.GetLength(1) - j - 1;
if (codeMask.Test(y, x) && (this.staticData[x, y] == false) && (this.picture[x, y] != QrPixel.Empty))
{
this.picture[x, y] = (this.picture[x, y] == QrPixel.White) ? QrPixel.Black : QrPixel.White;
counter++;
if ((this.breakPoint == QrBreakPoint.Mask) && (this.debugData != null))
{
this.picture[x, y] = QrPixel.Mask;
}
}
}
}
if (this.debugData != null)
{
this.debugData.Append("- Mask (" + codeMask + ") written to: " + counter + " pixels.\n\n");
}
}
public void FromBinaryNullStringTest()
{
Action act = () => BinaryExtensions.FromBinary <SerializableObjectFake>(null);
act.Should().Throw <ArgumentNullException>();
}
public void LogEventNull_ShouldThrow_ArgumentNullException()
{
Assert.Throws <ArgumentNullException>(() => BinaryExtensions.Binary <StandardLoglevel>(null, new byte[] { 0x00, 0x01, 0x02, 0x03 }));
}
/// <summary>
/// The process.
/// </summary>
/// <exception cref="ArgumentException">
/// Throws argument exception if wrong type or version are selected
/// </exception>
/// <exception cref="Exception">
/// Throws exception if text is too long for the matrix
/// </exception>
private void Process()
{
// Preprocess
// -> one of the parameters was not set, simple mode
// -> create structure of QR Image
this.ChooseVersions();
if (this.debugData != null)
{
this.img = new QrImage(this.version, this.mask, this.breakPoint);
this.debugData.Append(this.img.GetDebugData());
}
else
{
this.img = new QrImage(this.version, this.mask);
}
if ((this.breakPoint == QrBreakPoint.CreatedMatrix) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 1 -------");
return;
}
// Step one - sending type to output
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 1 ------------------\n- Sending type bits (4) to output ...\n");
}
switch (this.type)
{
case QrType.Numeric:
this.output.Enqueue(false);
this.output.Enqueue(false);
this.output.Enqueue(false);
this.output.Enqueue(true);
break;
case QrType.AlphaNumeric:
this.output.Enqueue(false);
this.output.Enqueue(false);
this.output.Enqueue(true);
this.output.Enqueue(false);
break;
case QrType.Binary:
this.output.Enqueue(false);
this.output.Enqueue(true);
this.output.Enqueue(false);
this.output.Enqueue(false);
break;
case QrType.Japanese:
this.output.Enqueue(true);
this.output.Enqueue(false);
this.output.Enqueue(false);
this.output.Enqueue(false);
break;
default:
throw new ArgumentException("Wrong QRType selected.");
}
if (this.debugData != null)
{
this.debugData.Append(
"- Sent 4 bytes of output: " + BinaryExtensions.BinaryToString(this.output) + "\n\n");
}
if ((this.breakPoint == QrBreakPoint.OutputTypeBits) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 2 -------");
return;
}
// Step two - write length of string
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 2 ------------------\n- Calculating bit size for data length ...\n");
}
byte strLength;
if ((this.version.Version >= 1) && (this.version.Version <= 9))
{
switch (this.type)
{
case QrType.Numeric:
strLength = 10;
break;
case QrType.AlphaNumeric:
strLength = 9;
break;
case QrType.Binary:
strLength = 8;
break;
case QrType.Japanese:
strLength = 8;
break;
default:
strLength = 0;
break;
}
}
else if ((this.version.Version >= 10) && (this.version.Version <= 26))
{
switch (this.type)
{
case QrType.Numeric:
strLength = 12;
break;
case QrType.AlphaNumeric:
strLength = 11;
break;
case QrType.Binary:
strLength = 16;
break;
case QrType.Japanese:
strLength = 10;
break;
default:
strLength = 0;
break;
}
}
else if ((this.version.Version >= 27) && (this.version.Version <= 40))
{
switch (this.type)
{
case QrType.Numeric:
strLength = 14;
break;
case QrType.AlphaNumeric:
strLength = 13;
break;
case QrType.Binary:
strLength = 16;
break;
case QrType.Japanese:
strLength = 12;
break;
default:
strLength = 0;
break;
}
}
else
{
throw new ArgumentException("Wrong QRVersion selected.");
}
if (this.debugData != null)
{
this.debugData.Append(
"- QR Type: " + this.type + ", QR Version: " + this.version.Version + ", Bit size: " + strLength
+ " bits.\n");
}
// Write length to output
int length = this.text.Length;
this.ToOutput(BinaryExtensions.DecToBin(length, strLength));
if (this.debugData != null)
{
this.debugData.Append(
"- Stored data length to output: "
+ BinaryExtensions.BinaryToString(BinaryExtensions.DecToBin(length, strLength)) + "\n");
this.debugData.Append(
"- Data stored in output: " + BinaryExtensions.BinaryToString(this.output) + "\n\n");
}
if ((this.breakPoint == QrBreakPoint.OutputDataLength) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 3 -------");
return;
}
// Step 3 - encoding entry text
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 3 ------------------\n- Creating code table for input ...\n");
}
QrCodeTable table = new QrCodeTable(this.type);
if (this.debugData != null)
{
this.debugData.Append("- Checking for odd input length.\n");
}
// Odd text length handling
if (length % 2 == 1)
{
if (this.debugData != null)
{
this.debugData.Append(" - Text length is odd, reducing size for one character.\n");
}
length = length - 1;
}
if (this.debugData != null)
{
this.debugData.Append("- Writing characters ...\n");
}
for (int i = 0; i < length; i += 2)
{
// Get number
int calc = (table.GetCharCount() * table.GetCodeByChar(this.text[i]))
+ table.GetCodeByChar(this.text[i + 1]);
if (this.debugData != null)
{
this.debugData.Append(
" - Characters: " + this.text[i] + ", " + this.text[i + 1] + ": (" + table.GetCharCount()
+ " * " + table.GetCodeByChar(this.text[i]) + ") + " + table.GetCodeByChar(this.text[i + 1])
+ " = " + calc + "\n");
}
// Write number, why 11 bits for each sign?????
// Experimental: strLength as calculated for size.
this.ToOutput(BinaryExtensions.DecToBin(calc, 11));
}
// Handling last 6 bits for odd length
if (this.text.Length % 2 == 1)
{
if (this.debugData != null)
{
this.debugData.Append(
"- Writing last (odd) character " + this.text[this.text.Length - 1] + " with " + 6 + " bits: "
+ table.GetCodeByChar(this.text[this.text.Length - 1]) + "\n");
}
this.ToOutput(BinaryExtensions.DecToBin(table.GetCodeByChar(this.text[this.text.Length - 1]), 6));
}
if (this.debugData != null)
{
this.debugData.Append("- Input successfully encoded to binary.\n\n");
}
if ((this.breakPoint == QrBreakPoint.EncodedDataToBinary) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 4 -------");
return;
}
// Step 4 - finishing binary string
if (this.debugData != null)
{
this.debugData.Append("------------------ Step 4 ------------------\n- Finishing binary string ...\n");
}
// Calculate maximum bit length
int maxBits = this.version.DataSize * 8;
if (this.debugData != null)
{
this.debugData.Append(
"- Maximum bits for current version: " + maxBits + " current bits: " + this.output.Count + "\n");
}
// Add zeros to end of bit string, if we are missing them
int bitOverflow = 0;
while (this.output.Count < maxBits)
{
this.output.Enqueue(false);
bitOverflow++;
if (bitOverflow >= 4)
{
break;
}
}
if (this.debugData != null)
{
this.debugData.Append(
"- Added " + bitOverflow + " bits to binary output. Total: " + this.output.Count + " bits.\n\n");
}
if ((this.breakPoint == QrBreakPoint.FinishedBinary) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 5 -------");
return;
}
// Step 5 - breaking the bit string into bytes
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 5 ------------------\n- Dividing bits into bytes (8 bits per byte) ...\n");
this.debugData.Append("- Current output size: " + this.output.Count + " bits\n");
}
// For now we will just make sure it is divided by 8, we will not convert to bytes unless required.
while (this.output.Count % 8 != 0)
{
this.output.Enqueue(false);
}
if (this.debugData != null)
{
this.debugData.Append(
"- Added zeros to output, current size: " + this.output.Count + " bits, "
+ (this.output.Count / 8) + " bytes.\n\n");
}
if ((this.breakPoint == QrBreakPoint.BrokenBinary) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 6 -------");
return;
}
// Step 6 - inserting characters
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 6 ------------------\n- Inserting characters to fill missing data string ...\n");
}
// If we have too many bits
if ((this.output.Count / 8) > this.version.DataSize)
{
throw new Exception("Text is too long for current matrix.");
}
// If we have less or exact number of bits
List <bool> defaultBlock1 = BinaryExtensions.DecToBin(236, 8);
List <bool> defaultBlock2 = BinaryExtensions.DecToBin(17, 8);
// Fill matrix until it is full as specified in version
int fillCount = 0;
if (this.debugData != null)
{
this.debugData.Append(
"- Current output size: " + (this.output.Count / 8) + ", missing: "
+ (this.version.DataSize - (this.output.Count / 8)) + " bytes.\n");
this.debugData.Append("- Added bytes: ");
}
while ((this.output.Count / 8) < this.version.DataSize)
{
if ((fillCount % 2) == 0)
{
if (this.debugData != null)
{
this.debugData.Append("236, ");
}
this.ToOutput(defaultBlock1);
}
else
{
if (this.debugData != null)
{
this.debugData.Append("17, ");
}
this.ToOutput(defaultBlock2);
}
fillCount++;
}
if (this.debugData != null)
{
this.debugData.Append(
"\n- Output size filled to match data size: " + (this.output.Count / 8) + "/"
+ this.version.DataSize + " bytes\n\n");
}
if ((this.breakPoint == QrBreakPoint.MissingBytes) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 7 -------");
return;
}
// Step 7 - generating error code correction (ECC) by Reed-Solomon procedure
// Convert bits from output to byte array
byte[] bytes = BinaryExtensions.BitArrayToByteArray(new BitArray(this.output.ToArray()));
if (this.debugData != null)
{
this.debugData.Append(
"------------------ Step 7 ------------------\n- Calculating error code correction ...\n");
this.debugData.Append(
"- Dividing data words into blocks: " + this.version.GetBlockCount() + " total.\n");
this.debugData.Append("- Creating message polynomial for each block ...\n");
}
// Divide bytes into blocks
QrBlock[] blocks = new QrBlock[this.version.GetBlockCount()];
for (int x = 0; x < this.version.GetBlockCount(); x++)
{
// Creating message polynominal system (F(x)) for current block
// Calculate block length and starting position
int blockLength;
int blockStart;
if (x >= this.version.BlockOneCount)
{
blockLength = this.version.BlockTwoSize;
blockStart = (this.version.BlockOneSize * this.version.BlockOneCount)
+ ((x - this.version.BlockOneCount) * this.version.BlockTwoSize);
}
else
{
blockLength = this.version.BlockOneSize;
blockStart = this.version.BlockOneSize * x;
}
if (this.debugData != null)
{
this.debugData.Append(
"----------------------------------\n- Block " + (x + 1) + ", data from: " + blockStart
+ ", length: " + blockLength + "\n- Message polynomial:\n\n");
}
Poly message = new Poly();
int messageLevel = this.version.BlockOneSize
+ (this.version.ErrorSize / this.version.GetBlockCount()) - 1;
for (int i = 0; i < blockLength; i++)
{
if (this.debugData != null)
{
this.debugData.Append("(" + bytes[i + blockStart] + "x ^ " + messageLevel + ")");
if (i != blockLength - 1)
{
this.debugData.Append(" + ");
}
}
Term ter = new Term(messageLevel, bytes[i + blockStart]);
message.Terms.Add(ter);
messageLevel--;
}
if (this.debugData != null)
{
this.debugData.Append(
"\n\n- Calculating "
+ ((int)Math.Floor(this.version.ErrorSize / (double)this.version.GetBlockCount()))
+ " error codes using Reed-Solomon algorithm.\n");
}
// Calculate Error codes of desired block
blocks[x] = new QrBlock {
MessagePoly = new Poly(message)
};
// Create Reed Solomon algorithm class
QrReedSolomon ecc = new QrReedSolomon();
// Experimental bugfix: rounding the result, so we can choose correct ECC
blocks[x].EccCoefficients = ecc.Calculate(
message, (int)Math.Floor(this.version.ErrorSize / (double)this.version.GetBlockCount()));
if (this.debugData != null)
{
this.debugData.Append(
"- Calculated error codes: " + BinaryExtensions.ArrayToString(blocks[x].EccCoefficients)
+ "\n\n");
}
}
// Write error codes to bit stream
// Clear current output
this.output.Clear();
// Writing data bits
if (this.debugData != null)
{
this.debugData.Append("- Writing data bits into output:\n- ");
}
// Blocks might not be the same size...
for (int i = 0; i < Math.Max(this.version.BlockOneSize, this.version.BlockTwoSize); i++)
{
foreach (QrBlock t in blocks)
{
if (i < t.MessagePoly.Terms.Length)
{
this.ToOutput(BinaryExtensions.DecToBin(t.MessagePoly.Terms[i].Coefficient, 8));
if (this.debugData != null)
{
this.debugData.Append(t.MessagePoly.Terms[i].Coefficient + ", ");
}
}
}
}
if (this.debugData != null)
{
this.debugData.Append("\n\n- Writing ECC bits to output:\n- ");
}
// Writting ECC bits
for (int i = 0; i < blocks[0].EccCoefficients.Length; i++)
{
if (i == 17)
{
if (this.debugData != null)
{
this.debugData.Append(",");
}
}
foreach (QrBlock t in blocks)
{
this.ToOutput(BinaryExtensions.DecToBin(t.EccCoefficients[i], 8));
if (this.debugData != null)
{
this.debugData.Append(t.EccCoefficients[i] + ", ");
}
}
}
if (this.debugData != null)
{
this.debugData.Append("\n\n");
}
// Step 8, 9, 10 - Handled by QRImage class
if ((this.breakPoint == QrBreakPoint.ErrorCode) && (this.debugData != null))
{
this.debugData.Append("------- Breakpoint reached: Step 8 -------");
return;
}
this.img.CreateImage(this.output);
if (this.debugData != null)
{
this.debugData.Append(this.img.GetDebugData());
}
}
/// <summary>
/// The write version.
/// </summary>
/// <param name="codeVersion">
/// The version.
/// </param>
private void WriteVersion(QrVersion codeVersion)
{
if (this.debugData != null)
{
this.debugData.Append("- Should we write version information bits?\n");
}
// Only writing version with versions higher than 6
if (codeVersion.Version >= 7)
{
// Calculate BCH (18, 6) for version information
int bchVersion = QrBoseChaudhuriHocquenghem.CalculateBch(codeVersion.Version, QrConst.GenPolyVersion);
int versionInformation = (codeVersion.Version << 12) | bchVersion;
List <bool> versionInfo = BinaryExtensions.DecToBin(versionInformation, 18);
versionInfo.Reverse();
if (this.debugData != null)
{
this.debugData.Append(
"- Yes, writing information: " + BinaryExtensions.BinaryToString(versionInfo) + ".\n");
}
int iterator = 0;
// Version bits at upper right corner
for (int y = 0; y < 6; y++)
{
for (int x = this.picture.GetLength(0) - 8 - 3, j = 0; j < 3; x++, j++)
{
this.picture[x, y] = versionInfo[iterator] ? QrPixel.Black : QrPixel.White;
iterator++;
}
}
iterator = 0;
// Version bits at lower left corner
for (int x = 0; x < 6; x++)
{
for (int y = this.picture.GetLength(0) - 8 - 3, j = 0; j < 3; y++, j++)
{
this.picture[x, y] = versionInfo[iterator] ? QrPixel.Black : QrPixel.White;
iterator++;
}
}
if (this.debugData != null)
{
this.debugData.Append("- Version information bits successfully written.\n");
}
}
if ((this.debugData != null) && (codeVersion.Version < 7))
{
this.debugData.Append("- No, only required for versions higher than 6.\n");
}
}
public void ToBinaryNullObjectTest()
{
Action Act = () => BinaryExtensions.ToBinary <SerializableObjectFake>(null);
Act.Should().Throw <ArgumentNullException>();
}
public static ulong GetUnsignedLong(IDataRecord reader, int index)
{
var value = reader.GetValue(index);
return(BinaryExtensions.RowVersionBytesToUInt64((byte[])value));
}
public void DeserializeData(ISerializableLE payloadType)
{
Data = payloadType;
Data.Deserialize(BinaryExtensions.ReaderFromBytes(RawData));
}
public static INanoPacket ParsePacket(byte[] data, NanoChannelContext context)
{
BEReader packetReader = new BEReader(data);
RtpHeader header = new RtpHeader();
header.Deserialize(packetReader);
NanoPayloadType payloadType = header.PayloadType;
// It might be NanoChannel.Unknown at this point, if ChannelCreate
// packet was not processed yet
// It gets processed at the end of the function
NanoChannel channel = context.GetChannel(header.ChannelId);
BinaryReader payloadReader =
BinaryExtensions.ReaderFromBytes(packetReader.ReadToEnd());
INanoPacket packet = null;
switch (payloadType)
{
// FIXME: Create from Attribute is broken
case NanoPayloadType.UDPHandshake:
packet = new UdpHandshake();
break;
case NanoPayloadType.ControlHandshake:
packet = new ControlHandshake();
break;
case NanoPayloadType.ChannelControl:
// Read type to pinpoint exact payload
ChannelControlType cct =
(ChannelControlType)payloadReader.ReadUInt32();
packet = CreateFromChannelControlType(cct);
break;
case NanoPayloadType.Streamer:
packet = CreateFromStreamerHeader(payloadReader, channel);
break;
default:
throw new NanoPackingException(
$"Unknown packet type received: {payloadType}");
}
if (packet == null)
{
throw new NanoPackingException("Failed to find matching body for packet");
}
payloadReader.Seek(0, SeekOrigin.Begin);
packet.Deserialize(payloadReader);
packet.Header = header;
if (packet as ChannelCreate != null)
{
string channelName = ((ChannelCreate)packet).Name;
channel = NanoChannelClass.GetIdByClassName(channelName);
}
if (channel == NanoChannel.Unknown)
{
throw new NanoPackingException("ParsePacket: INanoPacket.Channel is UNKNOWN");
}
packet.Channel = channel;
return(packet);
}