protected bool PrintVoltageValueInfo(VM_VoltageInfo vi)
{
if (OnVoltageValueChanges != null)
{
return(OnVoltageValueChanges(vi));
}
else
{
return(false);
}
}
public bool PrintVoltageValueChanged(VM_VoltageInfo vi)
{
decimal retValue = 0;
if (vi == null)
{
return(false);
}
decimal voltageValue = 0;
string v0 = vi.V0.ToString().Replace("V", "");
string v1 = vi.V1.ToString().Replace("V", "");
string v2 = vi.V2.ToString().Replace("V", "");
if (decimal.Parse(v0) < 0)
{
v0 = "0";
}
if (decimal.Parse(v1) < 0)
{
v1 = "0";
}
if (decimal.Parse(v2) < 0)
{
v2 = "0";
}
voltageValue = (decimal.Parse(v0) + decimal.Parse(v1) + decimal.Parse(v2)) / 3;
retValue = voltageValue;
if (VoltageBLL == null)
{
VoltageBLL = new VoltageBLL();
}
IList <VM_VoltageParam> vm_vp = VoltageBLL.GetVoltageDsToListInfo();
vm_vp = vm_vp.Where(a => a.PreVoltage <= retValue && a.CurVoltage > retValue).ToList();
if (vm_vp == null || vm_vp.Count <= 0)
{
return(false);
}
foreach (VM_VoltageParam item in vm_vp)
{
n_VoltageLevel = item.VoltageLevel;
}
return(true);
}
private void GetVoltageValue()
{
float[] fVals;
int[] iVals;
Adam4000_ChannelStatus[] status;
VM_VoltageInfo vi = new VM_VoltageInfo();
m_iCount++;
strReadCount = "Polling " + m_iCount.ToString() + " times...";
if (m_adamConfig.Format == Adam4000_DataFormat.TwosComplementHex)
{
//if (adamCom.AnalogInput(m_iAddr).GetValues(8, out iVals))
//{
// vi.V0 = "0x" + iVals[0].ToString("X04");
// vi.V1 = "0x" + iVals[1].ToString("X04");
// vi.V2 = "0x" + iVals[2].ToString("X04");
// vi.V3 = "0x" + iVals[3].ToString("X04");
// vi.V4 = "0x" + iVals[4].ToString("X04");
// vi.V5 = "0x" + iVals[5].ToString("X04");
// vi.V6 = "0x" + iVals[6].ToString("X04");
// vi.V7 = "0x" + iVals[7].ToString("X04");
//}
//else
//{
// vi.V0 = "Failed to get!";
// vi.V1 = "Failed to get!";
// vi.V2 = "Failed to get!";
// vi.V3 = "Failed to get!";
// vi.V4 = "Failed to get!";
// vi.V5 = "Failed to get!";
// vi.V6 = "Failed to get!";
// vi.V7 = "Failed to get!";
//}
}
else
{
if (adamCom.AnalogInput(m_iAddr).GetValues(8, out fVals, out status))
{
string a0 = "";
string a1 = "";
string a2 = "";
string a3 = "";
string a4 = "";
string a5 = "";
string a6 = "";
string a7 = "";
if (vi == null)
{
vi = new VM_VoltageInfo();
}
RefreshValue(ref a0, status[0], fVals[0], m_byRange[0]);
vi.V0 = a0;
RefreshValue(ref a1, status[1], fVals[1], m_byRange[1]);
vi.V1 = a1;
RefreshValue(ref a2, status[2], fVals[2], m_byRange[2]);
vi.V2 = a2;
RefreshValue(ref a3, status[3], fVals[3], m_byRange[3]);
vi.V3 = a3;
RefreshValue(ref a4, status[4], fVals[4], m_byRange[4]);
vi.V4 = a4;
RefreshValue(ref a5, status[5], fVals[5], m_byRange[5]);
vi.V5 = a5;
RefreshValue(ref a6, status[6], fVals[6], m_byRange[6]);
vi.V6 = a6;
RefreshValue(ref a7, status[7], fVals[7], m_byRange[7]);
vi.V7 = a7;
///传送电压变化值
PrintVoltageValueInfo(vi);
}
else
{
vi.V0 = "0";
vi.V1 = "0";
vi.V2 = "0";
vi.V3 = "0";
vi.V4 = "0";
vi.V5 = "0";
vi.V6 = "0";
vi.V7 = "0";
}
}
}
