/// <summary>
/// NOT WORKING YET!
/// </summary>
/// <param name="eprom"></param>
/// <param name="bytes"></param>
public void WriteEpromFast(Eprom eprom, IList <byte> bytes)
{
if (eprom.VppPins.Any(p => eprom.OutputEnable.Any(q => p.Number == q.Number)))
{
throw new U2PaException("Fast Programming Algoritm can't by used for this EPROM (yet)");
}
var totalNumberOfAdresses = eprom.AddressPins.Length == 0 ? 0 : 1 << eprom.AddressPins.Length;
var translator = eprom.GetPinTranslator(ZIFType);
{
var zif = new ZIFSocket(ZIFType);
zif.SetAll(true);
zif.Disable(eprom.Program, translator.ToZIF);
WriteZIF(zif, "Apply 1 to all pins");
SetVccLevel(eprom.VccLevel);
SetVppLevel(eprom.VppLevel);
ApplyGnd(translator.ToZIF, eprom.GndPins);
ApplyVcc(translator.ToZIF, eprom.VccPins);
ApplyVpp(translator.ToZIF, eprom.VppPins);
}
using (var progress = new ProgressBar(Shouter, totalNumberOfAdresses))
{
progress.Init();
foreach (var address in Enumerable.Range(0, totalNumberOfAdresses))
{
var pulse = 1;
while (pulse <= 32)
{
// Writing
var writerZif = new ZIFSocket(40);
writerZif.SetAll(true);
writerZif.Disable(eprom.GndPins, translator.ToZIF);
writerZif.Enable(eprom.Constants, translator.ToZIF);
writerZif.Disable(eprom.ChipEnable, translator.ToZIF);
writerZif.Disable(eprom.OutputEnable, translator.ToZIF);
writerZif.Disable(eprom.Program, translator.ToZIF);
eprom.SetAddress(writerZif, address);
var data = eprom.DataPins.Length > 8
? new[] { bytes[2 * address], bytes[2 * address + 1] }
: new[] { bytes[address] };
eprom.SetData(writerZif, data);
WriteZIF(writerZif, "Write address & d ata to ZIF");
writerZif.Enable(eprom.ChipEnable, translator.ToZIF);
writerZif.Enable(eprom.Program, translator.ToZIF);
WriteZIF(writerZif, "Start pulse E");
writerZif.Disable(eprom.ChipEnable, translator.ToZIF);
writerZif.Disable(eprom.Program, translator.ToZIF);
BulkDevice.Delay(pulse);
WriteZIF(writerZif, "End pulse E");
// Reading
var addressZif = new ZIFSocket(40);
addressZif.SetAll(true);
addressZif.Disable(eprom.GndPins, translator.ToZIF);
addressZif.Enable(eprom.Constants, translator.ToZIF);
addressZif.Enable(eprom.ChipEnable, translator.ToZIF);
addressZif.Enable(eprom.OutputEnable, translator.ToZIF);
addressZif.Disable(eprom.Program, translator.ToZIF);
eprom.SetAddress(addressZif, address);
WriteZIF(addressZif, "Write address");
var dataZifs = ReadZIF("Read data");
ZIFSocket resultZif;
if (Tools.AnalyzeEpromReadSoundness(dataZifs, eprom, address, out resultZif) == ReadSoundness.SeemsToBeAOkay)
{
if (eprom.GetData(resultZif).SequenceEqual(data))
{
// Data validates; now we overprogram
writerZif.Enable(eprom.ChipEnable, translator.ToZIF);
writerZif.Enable(eprom.Program, translator.ToZIF);
WriteZIF(writerZif, "Overprogram");
BulkDevice.Delay(3 * pulse);
writerZif.Disable(eprom.ChipEnable, translator.ToZIF);
writerZif.Disable(eprom.Program, translator.ToZIF);
WriteZIF(writerZif, "End pulse E");
break;
}
else
{
Console.WriteLine("Pulse: {0}", pulse);
Console.WriteLine("Address: {0}", address.ToString("X4"));
Console.WriteLine(eprom.GetData(writerZif).First());
Console.WriteLine(eprom.GetData(resultZif).First());
}
}
pulse *= 2;
}
if (pulse > 32)
{
progress.Shout("Address {0} doesn't validate! }};-(", address.ToString("X4"));
}
progress.Progress();
}
}
}
/// <summary>
/// Writes an EPROM using the Classic Algorithm
/// </summary>
/// <param name="eprom">The EPROM type.</param>
/// <param name="bytes">The bytes to write.</param>
/// <param name="patch">Not used yet!</param>
public void WriteEpromClassic(Eprom eprom, IList <byte> bytes, IList <int> patch = null)
{
var totalNumberOfAdresses = eprom.AddressPins.Length == 0 ? 0 : 1 << eprom.AddressPins.Length;
var translator = eprom.GetPinTranslator(ZIFType);
SetVccLevel(eprom.VccLevel);
ApplyGnd(translator.ToZIF, eprom.GndPins);
ApplyVcc(translator.ToZIF, eprom.VccPins);
var initZif = new ZIFSocket(ZIFType);
initZif.SetAll(true);
initZif.Disable(eprom.GndPins, translator.ToZIF);
initZif.Enable(eprom.Constants, translator.ToZIF);
initZif.Disable(eprom.ChipEnable, translator.ToZIF);
initZif.Disable(eprom.OutputEnable, translator.ToZIF);
initZif.Disable(eprom.Program, translator.ToZIF);
WriteZIF(initZif, "Apply 1 to all data and address pins");
SetVppLevel(eprom.VppLevel);
ApplyVpp(translator.ToZIF, eprom.VppPins);
PullUpsEnable(true);
using (var progress = new ProgressBar(Shouter, totalNumberOfAdresses))
{
progress.Init();
foreach (var address in Enumerable.Range(0, totalNumberOfAdresses))
{
//if(patch != null)
//{
// if(!patch.Contains(address))
// continue;
// progress.Shout("Now patching address {0}", address);
//}
var zif = new ZIFSocket(40);
// Pull up all pins
zif.SetAll(true);
zif.Disable(eprom.GndPins, translator.ToZIF);
zif.Enable(eprom.Constants, translator.ToZIF);
zif.Disable(eprom.Program, translator.ToZIF);
zif.Disable(eprom.ChipEnable, translator.ToZIF);
zif.Disable(eprom.OutputEnable, translator.ToZIF);
// Set address and data
eprom.SetAddress(zif, address);
var data = eprom.DataPins.Length > 8
? new[] { bytes[2 * address], bytes[2 * address + 1] }
: new[] { bytes[address] };
eprom.SetData(zif, data);
// Prepare ZIF without programming in order to let it stabilize
// TODO: Do we really need to do this?
WriteZIF(zif, "Write address & data to ZIF");
// In order to let the boost converter for manual Vcc
// spin up to full output voltage.
if (address == 0 && eprom.InitialProgDelay != 0)
{
BulkDevice.Delay(eprom.InitialProgDelay);
}
// Enter programming mode
zif.Enable(eprom.Program, translator.ToZIF);
zif.Enable(eprom.ChipEnable, translator.ToZIF);
WriteZIF(zif, "Start pulse E");
// Exit programming mode after at least <pulse> ms
zif.Disable(eprom.Program, translator.ToZIF);
zif.Disable(eprom.ChipEnable, translator.ToZIF);
BulkDevice.Delay(eprom.ProgPulse);
WriteZIF(zif, "End pulse E");
progress.Progress();
}
}
}