/// <summary>
/// This method used to save accounting journal entry
/// </summary>
/// <param name="journalEntryDetails"></param>
public void SaveAccountingJournalEntry(JournalEntryAc journalEntryDetails)
{
try
{
foreach (var entryDetails in journalEntryDetails.JournalEntryCollection)
{
if (entryDetails.LedgerId != 0 && (entryDetails.DebitAmount != 0 || entryDetails.CreditAmount != 0))
{
var doubleEntry = new DoubleEntry
{
Debit = entryDetails.DebitAmount,
Credit = entryDetails.CreditAmount,
Description = entryDetails.Description,
LedgerId = entryDetails.LedgerId,
TransactionDate = journalEntryDetails.JournalDate.ToLocalTime(),
ActivityName = StringConstants.JournalEntry,
CreatedDateTime = DateTime.UtcNow
};
_accountEntryContext.Add(doubleEntry);
_accountEntryContext.SaveChanges();
}
}
}
catch (Exception ex)
{
_errorLog.LogException(ex);
throw;
}
}
public static DoubleEntry[] CreateDoubleChunk(int count, DateTime?start = null, double percentOfFill = 1.0, int ticksIntervalMs = 100)
{
var data = new DoubleEntry[(int)(count * percentOfFill)];
var ticks = (start ?? DateTime.Now).Ticks;
var ticksStep = TimeSpan.FromMilliseconds(ticksIntervalMs).Ticks;
data[0].ticks = ticks;
data[0].value = random.NextDouble() * 100.0;
for (int i = 1, j = 1; i < count && j < data.Length; i++)
{
ticks += ticksStep;
if (!(random.NextDouble() + percentOfFill >= 1.0))
{
continue;
}
data[j].ticks = ticks;
data[j].value = random.NextDouble() * 100.0;
j++;
}
return(data);
}
public void RavenNominaleTest()
{
const int size = 16 * Mem.KB;
var count = size / sizeof(DoubleEntry);
var chunk = Factory.CreateDoubleChunk(count);
var buffer = new byte[size];
var result = new DoubleEntry[count];
fixed(byte *o = buffer)
{
int compressedSize;
fixed(DoubleEntry *i = chunk)
{
var pi = (byte *)i;
var po = o;
compressedSize = Lz4Raven.Encode64(ref pi, ref po, size, (int)Lz4Raven.MaximumOutputLength(size));
}
Console.WriteLine("Compression ratio: x {0}", size / (double)compressedSize);
fixed(DoubleEntry *r = result)
Lz4Raven.Decode64(o, compressedSize, (byte *)r, size, true);
}
result.Check(chunk);
}
public void NominaleTest()
{
const int size = 16 * Mem.KB;
var count = size / sizeof(DoubleEntry);
var chunk = Factory.CreateDoubleChunk(count);
var buffer = new byte[size];
var result = new DoubleEntry[count];
fixed(byte *o = buffer)
{
int compressedSize;
fixed(DoubleEntry *i = chunk)
{
var pi = (byte *)i;
var po = o;
compressedSize = Lz4.LZ4_compress_fast(pi, po, size, (int)Lz4.MaximumOutputLength(size), 1);
}
Console.WriteLine("Compression ratio: x {0}", size / (double)compressedSize);
fixed(DoubleEntry *r = result)
{
var ip = o;
var op = (byte *)r;
Lz4.LZ4_decompress_fast(ref ip, ref op, compressedSize);
}
}
result.Check(chunk);
}
private static void TestCursor <TEntry, T>(
Func <DoubleEntry[], TEntry[]> convert,
Func <TEntry, T> getValue,
Func <TEntry[], IColumnCursor <T> > factory,
T defaultValue = default(T))
where T : struct
{
const int iterations = 5;
var chunk = new DoubleEntry[0]
.Add(0, 12.2)
.Add(4, 15.2)
.Add(5, 16.2)
.Add(6, 13.2)
.Add(7, 14.2);
var convertedChunk = convert(chunk);
var cursor = factory(convertedChunk);
// Test MoveNext
for (var i = 0; i < iterations; i++)
{
Assert.AreEqual(getValue(convertedChunk[0]), cursor.GetNext(0));
Assert.AreEqual(getValue(convertedChunk[0]), cursor.GetNext(1));
Assert.AreEqual(getValue(convertedChunk[0]), cursor.GetNext(2));
Assert.AreEqual(getValue(convertedChunk[1]), cursor.GetNext(4));
Assert.AreEqual(getValue(convertedChunk[2]), cursor.GetNext(5));
Assert.AreEqual(getValue(convertedChunk[3]), cursor.GetNext(6));
Assert.AreEqual(getValue(convertedChunk[4]), cursor.GetNext(7));
Assert.AreEqual(getValue(convertedChunk[4]), cursor.GetNext(8));
Assert.AreEqual(getValue(convertedChunk[4]), cursor.GetNext(9));
cursor.Reset();
}
cursor.Dispose();
chunk.Set(0, 1, 12.2);
cursor = factory(convert(chunk));
for (var i = 0; i < iterations; i++)
{
Assert.AreEqual(defaultValue, cursor.GetNext(0));
Assert.AreEqual(getValue(convertedChunk[0]), cursor.GetNext(1));
Assert.AreEqual(getValue(convertedChunk[3]), cursor.GetNext(6));
Assert.AreEqual(getValue(convertedChunk[4]), cursor.GetNext(7));
cursor.Reset();
}
cursor.Dispose();
}
public void RavenCompressWithLowerBlockTest()
{
const int size = 16 * Mem.KB;
const int writeBlockSize = 1 * Mem.KB;
var count = size / sizeof(DoubleEntry);
var chunk = Factory.CreateDoubleChunk(count);
var buffer = new byte[size];
var result = new DoubleEntry[count];
fixed(byte *o = buffer)
{
var compressedSize = 0;
fixed(DoubleEntry *i = chunk)
{
var pi = (byte *)i;
var pEnd = pi + size;
var po = o;
while (pi < pEnd)
{
var wrote = Lz4Raven.Encode64(ref pi, ref po, (int)(pEnd - pi), size, writeBlockSize, 1);
//Assert.LessOrEqual(wrote, writeBlockSize);
compressedSize += wrote;
}
}
Console.WriteLine("Compression ratio: x {0}", size / (double)compressedSize);
fixed(DoubleEntry *r = result)
{
var iPtr = o;
var oPtr = (byte *)r;
var inputLength = compressedSize;
var wrote = 0;
while (wrote < size)
{
wrote += Lz4Raven.Decode64(ref iPtr, inputLength, ref oPtr, size - wrote, writeBlockSize);
}
}
}
result.Check(chunk);
}
public void RavenUncompressWithLowerBlocksTest()
{
const int size = 16 * Mem.KB;
const int writeBlockSize = 4 * Mem.KB;
var count = size / sizeof(DoubleEntry);
var chunk = Factory.CreateDoubleChunk(count);
var buffer = new byte[size];
var result = new DoubleEntry[count];
fixed(byte *o = buffer)
{
int compressedSize;
fixed(DoubleEntry *i = chunk)
{
var pi = (byte *)i;
var po = o;
compressedSize = Lz4Raven.Encode64(ref pi, ref po, size, (int)Lz4Raven.MaximumOutputLength(size));
}
Console.WriteLine("Compression ratio: x {0}", size / (double)compressedSize);
fixed(DoubleEntry *r = result)
{
var iPtr = o;
var oPtr = (byte *)r;
var inputLength = compressedSize;
var wrote = 0;
while (wrote < size)
{
wrote += Lz4Raven.Decode64(ref iPtr, inputLength, ref oPtr, size - wrote, writeBlockSize);
}
}
}
result.Check(chunk);
}
public static Int64Entry ToInt64(this DoubleEntry entry)
{
return(new Int64Entry {
ticks = entry.ticks, value = (long)entry.value
});
}
public static Int32Entry ToInt32(this DoubleEntry entry)
{
return(new Int32Entry {
ticks = entry.ticks, value = (int)entry.value
});
}
public static FloatEntry ToFloat(this DoubleEntry entry)
{
return(new FloatEntry {
ticks = entry.ticks, value = (float)entry.value
});
}
public void RavenUncompressComparePerf()
{
const int size = 4 * Mem.KB;
var readSizes = new [] { 1, 2, 4, 8, 16 };
const int iterations = 10000;
var count = size / sizeof(DoubleEntry);
var chunk = Factory.CreateDoubleChunk(count);
var buffer = new byte[size];
var result = new DoubleEntry[count];
fixed(byte *o = buffer)
{
int compressedSize;
fixed(DoubleEntry *i = chunk)
{
var pi = (byte *)i;
var po = o;
compressedSize = Lz4Raven.Encode64(ref pi, ref po, size, (int)Lz4Raven.MaximumOutputLength(size));
}
Console.WriteLine("Compression ratio: x {0}", size / (double)compressedSize);
fixed(DoubleEntry *r = result)
{
Lz4Raven.Decode64(o, compressedSize, (byte *)r, size, true);
// Jitter purpose
for (var i = 0; i < 10; i++)
{
var iPtr = o;
var oPtr = (byte *)r;
var writeBlockSize = readSizes[0] * Mem.KB;
var wrote = 0;
while (wrote < size)
{
wrote += Lz4Raven.Decode64(ref iPtr, compressedSize, ref oPtr, size - wrote, writeBlockSize);
}
}
var sw = Stopwatch.StartNew();
for (var i = 0; i < iterations; i++)
{
Lz4Raven.Decode64(o, compressedSize, (byte *)r, size, true);
}
sw.Stop();
Console.WriteLine("Match: {0} µs", sw.Elapsed.TotalMilliseconds / iterations * 1e3);
result.Check(chunk);
for (var j = 0; j < readSizes.Length; j++)
{
var writeBlockSize = readSizes[j] * Mem.KB;
sw = Stopwatch.StartNew();
for (var i = 0; i < iterations; i++)
{
var iPtr = o;
var oPtr = (byte *)r;
var wrote = 0;
while (wrote < size)
{
wrote += Lz4Raven.Decode64(ref iPtr, compressedSize, ref oPtr, size - wrote, writeBlockSize);
}
}
sw.Stop();
Console.WriteLine("Size {0} KB: {1} µs", readSizes[j], sw.Elapsed.TotalMilliseconds / iterations * 1e3);
result.Check(chunk);
}
}
}
}
