public void RegMHandle()
{
//var x = new Lazy<int>(() => 2);
//var tt = x.GetType();
//dynamic nn= Activator.CreateInstance(tt);
//var vv = nn.Value;
//Assert.AreEqual(vv, 2);
using (var mmap = new MemMap())
{
RegDataMHandle._MemMap = mmap;
var reg = new RegDataMHandle()
{
_name = regroot
};
reg.Fillit();
var mh = mmap.AddData(reg);
var ret = (RegDataMHandle)mmap.GetData(mh, reg.GetType());
foreach (var m in ret._childNodes)
{
var ch = mmap.GetData(m, reg.GetType());
}
Assert.IsTrue(reg.CompareTo(ret) == 0, "not eq cnt = {0}", RegDataMHandle._cnt);
}
}
public MemAddr inst_wnd_head_addr()
{
ulong block_addr = inst_wnd.head();
ulong paddr = block_addr << Config.proc.block_size_bits;
MemAddr addr = MemMap.Translate(paddr);
return(addr);
}
public void TestListNest()
{
for (int i = 0; i < 10000; i++)
{
var x1x = new MemMap();
}
MapFileList <NestClass> mfList = null;
int iLoop = 0;
try
{
var bigstr = new string('a', 10000);
uint nInst = 1 << 25; // 2^26 = 67,108,864
nInst = 16777214;
nInst = 10000;
using (mfList = new MapFileList <NestClass>())
{
var xx = new NestClass()
{
_nNum = 1, _stack = null
};
mfList.Add(xx);
var ret = mfList[mfList.Count - 1];
Assert.AreEqual(ret._nNum, mfList.Count);
Assert.IsNull(ret._stack, "ret stack should be null");
mfList.Clear();
for (int i = 1; i < nInst; i++)
{
var testInstance = DataClass.MakeInstance((ulong)i);
testInstance.str5 = bigstr;
var x = new NestClass()
{
_nNum = i, _stack = testInstance
};
mfList.Add(x);
var retrievedInstance = mfList[(int)i - 1];
Assert.AreEqual(bigstr, retrievedInstance._stack.str5, "objects not equal Count=" + mfList.Count.ToString());
// Assert.AreEqual(testInstance, retrievedInstance, "objects not equal Count=" + mfList.Count.ToString());
}
mfList.VerifyNoLeaks();
}
}
catch (Exception ex)
{
Assert.Fail("exception lp={0} cnt={1} {2}\r\n{3}", iLoop, mfList.Count, mfList._MemMap._stats.ToString(), ex.ToString());
throw;
}
}
public MapFileList(
ulong ulInitialSize = 0,
MapMemTypes mapfileType = MapMemTypes.MapMemTypePageFile,
ulong ulGrowDynamicallyThreshold = 0,
MemMap memMapToUse = null,
uint uiViewSize = MemMap.AllocationGranularity
)
{
_MemMap = memMapToUse;
if (_MemMap == null)
{
_MemMap = new MemMap(
ulInitialSize,
mapfileType,
ulGrowDynamicallyThreshold,
uiViewSize
);
}
_listInternal = new List <MHandle>();
}
public void DelegateTest()
{
var dummy = 0;
var x = new Action(() =>
{
dummy = 1;
});
using (var mfd = new MemMap())
{
var loc = mfd.AddData(x);
var ret = (Action)mfd.GetData(loc, x.GetType());
ret.Invoke();
Assert.AreEqual(dummy, 1);
// Assert.IsTrue(ret.CompareTo(root) == 0, "not equal!");
}
}
public MapFileDict(
IEqualityComparer <TKey> comparer = null,
ulong ulInitialSize = 0,
MapMemTypes mapfileType = MapMemTypes.MapMemTypePageFile,
ulong ulGrowDynamicallyThreshold = 0,
MemMap memMapToUse = null,
uint uiViewSize = MemMap.AllocationGranularity
)
{
_MemMap = memMapToUse;
_comparer = comparer ?? EqualityComparer <TKey> .Default;
if (_MemMap == null)
{
_MemMap = new MemMap(
ulInitialSize,
mapfileType,
ulGrowDynamicallyThreshold,
uiViewSize
);
}
}
public void Set(int pid, ReqType type, ulong paddr)
{
// state
Pid = pid;
Type = type;
// address
TracePaddr = paddr;
if (Config.mctrl.page_randomize)
{
Paddr = Prand.get_paddr(paddr);
}
else if (Config.mctrl.page_sequence)
{
Paddr = Pseq.get_paddr(paddr);
}
else if (Config.mctrl.page_contiguous)
{
Paddr = Pcontig.get_paddr(paddr);
}
else
{
Paddr = paddr;
}
BlockAddr = Paddr >> Config.proc.block_size_bits;
Addr = MemMap.Translate(Paddr);
Stat.procs[pid].allocated_physical_pages.collect();
reset_timing();
// Word offset
ulong pwo = (Paddr & (63)) >> 2;
Dbg.AssertPrint(pwo == ((paddr & (63)) >> 2),
"Word offset should be the same for both virtual and physical addresses.");
Dbg.AssertPrint(pwo < 16, "There should be only 8 words in a cacheline=" + pwo);
WordOffset = (int)pwo;
}
public ProcessMemory()
{
//mUsage = new List<Dictionary<string, string>>();
memUsagepList = new MemMap();
}
/// <param name="args"></param>
static void Main(string[] args)
{
string name;
string message;
StringComparer stringComparer = StringComparer.OrdinalIgnoreCase;
// Create a new SerialPort object with default settings.
_serialPort = new SerialPort();
// Allow the user to set the appropriate properties.
_serialPort.PortName = "COM6";
_serialPort.BaudRate = 9600;
_serialPort.Parity = Parity.None;
_serialPort.DataBits = 8;
_serialPort.StopBits = StopBits.One;
_serialPort.Encoding = System.Text.ASCIIEncoding.ASCII;
_serialPort.Handshake = Handshake.None;
// Set the read/write timeouts
_serialPort.ReadTimeout = 500;
_serialPort.WriteTimeout = 500;
_serialPort.ReadBufferSize = 10000;
_serialPort.WriteBufferSize = 10000;
_serialPort.DataReceived += _serialPort_DataReceived;
_serialPort.Open();
_continue = true;
Console.WriteLine("Type QUIT to exit");
while (_continue)
{
message = Console.ReadLine();
if (stringComparer.Equals("quit", message))
{
_continue = false;
}
if (stringComparer.Equals("U", message))
{
_serialPort.Write("U");
}
if (stringComparer.Equals("reset", message))
{
Reset();
}
if (stringComparer.Equals("read", message))
{
ReadData(0x00);
}
if (stringComparer.Equals("gc", message))
{
//I'm too lazy to figure this out, so I'll flatten it.
byte[] valArray = new byte[256];
int add = 0;
for (int i = 0; i < 32; i++)
{
for (int k = 0; k < 8; k++)
{
valArray[add] = readValues[i, k];
add++;
}
}
//Open our text file.
string file = System.IO.File.ReadAllText("memtable.txt");
using (StreamWriter writer = File.CreateText("MemMap.cs"))
{
writer.Write(@"using System;
using System.Collections.Generic;
using System.IO.Ports;
using System.IO;
using System.Linq;
using System.Text;
using System.Threading;
using System.Threading.Tasks;
public class MemMap
{
private byte[] valArray;
public MemMap(byte[] vals)
{
valArray = vals;
}
");
string[] lines = file.Split('\n');
foreach (string line in lines)
{
//Console.WriteLine(line);
string[] cols = line.Split('\t');
if (cols.Length > 5)
{
//foreach (string col in cols)
//{
// Console.WriteLine(col);
//}
writer.WriteLine("/// <summary>");
writer.WriteLine("/// " + cols[4]);
writer.WriteLine("/// </summary>");
string type = "UNKNOWN";
int length = Convert.ToInt32(cols[3]);
switch (length)
{
case 1:
{
type = "byte";
break;
}
case 2:
{
type = "UInt16";
break;
}
case 4:
{
type = "UInt32";
break;
}
}
writer.WriteLine("public {0} {1}", type, cols[2]);
writer.WriteLine("{");
writer.WriteLine("\tget{");
switch (length)
{
case 1:
{
writer.WriteLine("return valArray[{0}];", cols[0]);
break;
}
case 2:
{
writer.WriteLine("return BitConverter.ToUInt16(valArray, {0});", cols[0]);
break;
}
case 4:
{
writer.WriteLine("return BitConverter.ToUInt32(valArray, {0});", cols[0]);
break;
}
}
writer.WriteLine("\t}");
writer.WriteLine("}");
}
}
writer.WriteLine("}");
writer.Flush();
writer.Close();
}
}
if (stringComparer.Equals("rst", message))
{
_serialPort.Write(new byte[] { 0x00 }, 0, 1);
}
if (stringComparer.Equals("dspb", message))
{
int add = 0;
for (int i = 0; i < 32; i++)
{
for (int k = 0; k < 8; k++)
{
Console.WriteLine(String.Format("Add {0} value {1}", add, (int)readValues[i, k]));
add++;
}
}
}
if (stringComparer.Equals("mm", message))
{
byte[] valArray = new byte[256];
int add = 0;
for (int i = 0; i < 32; i++)
{
for (int k = 0; k < 8; k++)
{
valArray[add] = readValues[i, k];
add++;
}
}
MemMap map = new MemMap(valArray);
}
if (stringComparer.Equals("readAllBytes", message))
{
for (int i = 0; i < 240; i = i + 8)
{
ReadData((byte)i);
reset = false;
int j = 0;
while (!reset)
{
Thread.Sleep(10);
j++;
if (j > 1500) //15second timeout... I think, I don't math.
{
reset = true;
}
}
}
}
}
_serialPort.Close();
}
public void Initialize()
{
Stat = new Stat();
// Crossbar
Xbar = new Xbar();
// ddr3
DDR3DRAM ddr3 = new DDR3DRAM(Config.mem.ddr3_type,
Config.mem.clock_factor, Config.mem.tRTRS, Config.mem.tWR,
Config.mem.tWTR, Config.mem.tBL, Config.mem.bank_max,
Config.mem.subarray_max, Config.mem.col_max,
Config.mem.tRA, Config.mem.tWA, Config.mem.tREFI,
Config.mem.tRFC, Config.mem.tRP, Config.mem.tRCD);
uint cmax = Config.mem.chan_max;
uint rmax = Config.mem.rank_max;
// randomized page table
const ulong page_size = 4 * 1024;
PageRandomizer prand = new PageRandomizer(page_size, ddr3.ROW_MAX);
Req.Prand = prand;
// sequential page table
PageSequencer pseq = new PageSequencer(page_size, cmax, rmax, ddr3.BANK_MAX);
Req.Pseq = pseq;
// Contiguous physical page allocation
ContiguousAllocator pcontig = new ContiguousAllocator(page_size, cmax * rmax * ddr3.ROW_MAX * ddr3.DEVICE_WIDTH);
Req.Pcontig = pcontig;
// memory mapping
MemMap.Init(Config.mem.map_type, Config.mem.chan_max, Config.mem.rank_max, Config.mem.col_per_subrow, ddr3);
// Cache hierarchy
if (Config.proc.cache_enabled)
{
Caches = new CacheHierarchy(Config.N);
}
// processors
Procs = new Proc.Proc[Config.N];
for (int p = 0; p < Config.N; p++)
{
Procs[p] = new Proc.Proc(Config.traceFileNames[p], Caches);
}
// memory controllers
Mctrls = new MemCtrl.MemCtrl[cmax];
for (int i = 0; i < Mctrls.Length; i++)
{
Mctrls[i] = new MemCtrl.MemCtrl(rmax, ddr3);
// Add ref handles to processors
for (int p = 0; p < Config.N; p++)
{
Procs[p].mctrls[i] = Mctrls[i];
Mctrls[i].ProcHandles[p] = Procs[p];
}
}
// memory schedulers
MemSched.MemSched[] rscheds = new MemSched.MemSched[cmax];
for (int i = 0; i < cmax; i++)
{
Object[] args = { Mctrls[i], Mctrls };
rscheds[i] = Activator.CreateInstance(Config.sched.typeof_sched_algo, args) as MemSched.MemSched;
}
MemSched.MemSched[] wscheds = new MemSched.MemSched[cmax];
for (int i = 0; i < cmax; i++)
{
Object[] args = { Mctrls[i], Mctrls };
wscheds[i] = Activator.CreateInstance(Config.sched.typeof_wbsched_algo, args) as MemSched.MemSched;
}
for (int i = 0; i < cmax; i++)
{
Mctrls[i].Rsched = rscheds[i];
Mctrls[i].Wsched = wscheds[i];
rscheds[i].Initialize();
wscheds[i].Initialize();
}
// WB mode
Mwbmode = Activator.CreateInstance(Config.mctrl.typeof_wbmode_algo, new Object[] { Mctrls }) as MemWBMode.MemWBMode;
for (int i = 0; i < cmax; i++)
{
Mctrls[i].Mwbmode = Mwbmode;
}
// BLP tracker
Blptracker = new BLPTracker(Mctrls);
}
public ProcessMemory()
{
//mUsage = new List<Dictionary<string, string>>();
memUsagepList = new MemMap();
}