Files
lighthub/owSwitch.cpp
2017-10-02 14:13:45 +03:00

439 lines
9.9 KiB
C++

#include "owSwitch.h"
#include "owTerm.h"
#include <Arduino.h>
#include "utils.h"
int owRead2408(uint8_t* addr) {
uint8_t buf[13];
// PrintBytes(buf, 13, true);
if (!net) return -1;
net->reset();
net->select(addr);
// uint8_t buf[13]; // Put everything in the buffer so we can compute CRC easily.
buf[0] = 0xF0; // Read PIO Registers
buf[1] = 0x88; // LSB address
buf[2] = 0x00; // MSB address
net->write_bytes(buf, 3,1);
net->read_bytes(buf+3, 10); // 3 cmd bytes, 6 data bytes, 2 0xFF, 2 CRC16
net->reset();
if (!OneWire::check_crc16(buf, 11, &buf[11])) {
Serial.print(F("CRC failure in DS2408 at "));
PrintBytes(addr, 8, true);
PrintBytes(buf+3,10);
return -1;
}
return (buf[3]);
}
/*
int read1W(int i)
{
Serial.print("1W requested: ");
Serial.println (i);
int t=-1;
switch (term[i][0]){
case 0x29: // DS2408
t=owRead2408(term[i]);
break;
case 0x28: // Thermomerer
t=sensors.getTempC(term[i]);
}
return t;
}
*/
int ow2408out(DeviceAddress addr,uint8_t cur)
{
if (!net) return -1;
uint8_t buf[5];
net->reset();
net->select(addr);
buf[0] = 0x5A; // Write PIO Registers
buf[1]=cur;
buf[2] = ~buf[1];
net->write_bytes(buf, 3);
net->read_bytes(buf+3, 2);
//net.reset();
PrintBytes(buf, 5);
Serial.print(" Out: ");Serial.print(buf[1],BIN);
Serial.print(" In: ");Serial.println(buf[4],BIN);
if (buf[3] != 0xAA) {
Serial.print("Write failure in DS2408 at ");
PrintBytes(addr, 8, true);
return -2;
}
return buf[4];
}
int cntrl2408(uint8_t* addr, int subchan, int val) {
if (!net) return -1;
uint8_t buf;
int mask,devnum;
if ((devnum=owFind(addr))<0) return -1;
buf=regs[devnum];
Serial.print("Current: ");Serial.println(buf,BIN);
mask=0;
int r,f;
switch (subchan) {
case 0:
if ((buf & SW_STAT0) != ((val)?SW_STAT0:0))
{
if (wstat[devnum] & (SW_PULSE0|SW_PULSE_P0))
{
wstat[devnum]|=SW_CHANGED_P0;
Serial.println("Rollback 0");
}
else {
wstat[devnum]|=SW_PULSE0;
regs[devnum] = (ow2408out(addr,(buf | SW_MASK) & ~SW_OUT0) & SW_INMASK) ^ SW_STAT0; ///?
}
}
return 0;
case 1:
if ((buf & SW_STAT1) != ((val)?SW_STAT1:0))
{
if (wstat[devnum] & (SW_PULSE1|SW_PULSE_P1))
{
wstat[devnum]|=SW_CHANGED_P1;
Serial.println("Rollback 1");
}
else {
wstat[devnum]|=SW_PULSE1;
regs[devnum] =(ow2408out(addr,(buf | SW_MASK) & ~SW_OUT1) & SW_INMASK) ^ SW_STAT1; /// -?
}
}
return 0;
/* Assume AUX 0&1 it is INPUTS - no write
case 2:
mask=SW_AUX0;
break;
case 3:
mask=SW_AUX1; */
}
/* Assume AUX 0&1 it is INPUTS - no write
switch (val) {
case 0: buf=(buf | SW_MASK | SW_OUT0 | SW_OUT1) | mask;
break;
default: buf= (buf | SW_MASK | SW_OUT0 | SW_OUT1) & ~mask;
}
regs[devnum] = ow2408out(addr,buf); */
return 0;
}
int cntrl2890(uint8_t* addr, int val) {
uint8_t buf[13];
if (!net) return -1;
// case 0x2C: //Dimmer
Serial.print("Update dimmer ");PrintBytes(addr, 8, true);Serial.print(" = ");
Serial.println(val);
net->reset();
net->select(addr);
buf[0] = 0x55;
buf[1] = 0x4c;
net->write_bytes(buf, 2);
net->read_bytes(buf+2, 1); // check if buf[2] == val = ok
buf[3]=0x96;
net->write_bytes(buf+3, 1);
net->read_bytes(buf+4, 1); // 0 = updated ok
PrintBytes(buf, 5, true);
net->select(addr);
if (val==-1)
{
buf[0] = 0xF0;
net->write_bytes(buf, 1);
net->read_bytes(buf+1, 2); // check if buf[2] == val = ok
net->reset();
return buf[2];
}
else
{
buf[0] = 0x0F;
buf[1] = val;
net->write_bytes(buf, 2);
net->read_bytes(buf+2, 1); // check if buf[2] == val = ok
buf[3]=0x96;
net->write_bytes(buf+3, 1);
net->read_bytes(buf+4, 1); // 0 = updated ok
net->reset();
PrintBytes(buf, 5, true);
return buf[2];
}
}
#define DS2413_FAMILY_ID 0x3A
#define DS2413_ACCESS_READ 0xF5
#define DS2413_ACCESS_WRITE 0x5A
#define DS2413_ACK_SUCCESS 0xAA
#define DS2413_ACK_ERROR 0xFF
#define DS2413_IN_PinA 1
#define DS2413_IN_LatchA 2
#define DS2413_IN_PinB 4
#define DS2413_IN_LatchB 8
#define DS2413_OUT_PinA 1
#define DS2413_OUT_PinB 2
/*
byte read(void)
{
bool ok = false;
uint8_t results;
oneWire.reset();
oneWire.select(address);
oneWire.write(DS2413_ACCESS_READ);
results = oneWire.read(); / Get the register results /
ok = (!results & 0x0F) == (results >> 4); / Compare nibbles /
results &= 0x0F; / Clear inverted values /
oneWire.reset();
// return ok ? results : -1;
return results;
}
bool write(uint8_t state)
{
uint8_t ack = 0;
/ Top six bits must '1' /
state |= 0xFC;
oneWire.reset();
oneWire.select(address);
oneWire.write(DS2413_ACCESS_WRITE);
oneWire.write(state);
oneWire.write(~state); / Invert data and resend /
ack = oneWire.read(); / 0xAA=success, 0xFF=failure /
if (ack == DS2413_ACK_SUCCESS)
{
oneWire.read(); / Read the status byte /
}
oneWire.reset();
return (ack == DS2413_ACK_SUCCESS ? true : false);
}
*/
int cntrl2413(uint8_t* addr, int subchan, int val) {
bool ok = false;
uint8_t results;
uint8_t cmd;
uint8_t set=0;
uint8_t count =10;
if (!net) return -1;
// case 0x85: //Switch
Serial.print("Update switch ");PrintBytes(addr, 8, false); Serial.print("/");Serial.print(subchan);Serial.print(" = ");Serial.println(val);
while (count--)
{
net->reset();
net->select(addr);
net->setStrongPullup();
cmd = DS2413_ACCESS_READ;
net->write(cmd);
results = net->read();
Serial.print("Got: "); Serial.println(results,BIN);
//Serial.println((~results & 0x0F),BIN); Serial.println ((results >> 4),BIN);
ok = (~results & 0x0F) == (results >> 4); // Compare nibbles
results &= 0x0F; // Clear inverted values
if (ok) {Serial.println("Read ok");break;} else {Serial.println("read Error");delay(1);}
} //while
if (ok && (val>=0))
{
count=10;
while (count--)
{
net->reset();
net->select(addr);
if (results & DS2413_IN_LatchA) set|=DS2413_OUT_PinA;
if (results & DS2413_IN_LatchB) set|=DS2413_OUT_PinB;
switch (subchan) {
case 0:
if (!val) set|=DS2413_OUT_PinA; else set &= ~DS2413_OUT_PinA;
break;
case 1:
if (!val) set|=DS2413_OUT_PinB; else set &= ~DS2413_OUT_PinB;
};
set |= 0xFC;
Serial.print("New: ");Serial.println(set,BIN);
cmd = DS2413_ACCESS_WRITE;
net->write(cmd);
net->write(set);
net->write(~set);
uint8_t ack = net->read(); // 0xAA=success, 0xFF=failure
if (ack == DS2413_ACK_SUCCESS)
{
results=net->read();
Serial.print("Updated ok: "); Serial.println(results,BIN);
ok = (~results & 0x0F) == (results >> 4); // Compare nibbles
{
if (ok)
{Serial.println("Readback ok");
break;}
else {Serial.println("readback Error");delay(1);}
}
results &= 0x0F; // Clear inverted values
}
else Serial.println ("Write failed");;
} //while
} //if
return ok ? results : -1;
}
int sensors_ext(void)
{
int t;
switch (term[si][0]){
case 0x29: // DS2408
//Serial.println(wstat[si],BIN);
if (wstat[si] & SW_PULSE0) {
wstat[si]&=~SW_PULSE0;
wstat[si]|=SW_PULSE_P0;
Serial.println("Pulse0 in progress");
return 500;
}
if (wstat[si] & SW_PULSE0_R) {
wstat[si]&=~SW_PULSE0_R;
wstat[si]|=SW_PULSE_P0;
regs[si] =(ow2408out(term[si],(regs[si] | SW_MASK) & ~SW_OUT0) & SW_INMASK) ^ SW_STAT0;
Serial.println("Pulse0 in activated");
return 500;
}
if (wstat[si] & SW_PULSE1) {
wstat[si]&=~SW_PULSE1;
wstat[si]|=SW_PULSE_P1;
Serial.println("Pulse1 in progress");
return 500;
}
if (wstat[si] & SW_PULSE1_R) {
wstat[si]&=~SW_PULSE1_R;
wstat[si]|=SW_PULSE_P1;
regs[si] =(ow2408out(term[si],(regs[si] | SW_MASK) & ~SW_OUT1) & SW_INMASK) ^ SW_STAT1;
Serial.println("Pulse0 in activated");
return 500;
}
if (wstat[si] & SW_PULSE_P0) {
wstat[si]&=~SW_PULSE_P0;
Serial.println("Pulse0 clearing");
ow2408out(term[si],regs[si] | SW_MASK | SW_OUT0);
if (wstat[si] & SW_CHANGED_P0) {
wstat[si]&=~SW_CHANGED_P0;
wstat[si]|=SW_PULSE0_R;
return 500;
}
}
if (wstat[si] & SW_PULSE_P1) {
wstat[si]&=~SW_PULSE_P1;
Serial.println("Pulse1 clearing");
ow2408out(term[si],regs[si] | SW_MASK | SW_OUT1);
if (wstat[si] & SW_CHANGED_P1) {
wstat[si]&=~SW_CHANGED_P1;
wstat[si]|=SW_PULSE1_R;
return 500;
}
}
if (wstat[si])
{
t=owRead2408(term[si]) & SW_INMASK;
if (t!=regs[si]) {
Serial.print(F("DS2408 data = "));
Serial.println(t, BIN);
if (!(wstat[si] & SW_DOUBLECHECK))
{
wstat[si]|=SW_DOUBLECHECK; //suspected
Serial.println("DOUBLECHECK");
return recheck_interval;
}
Serial.println(F("Really Changed"));
if (owChanged) owChanged(si,term[si],t);
regs[si]=t;
}
wstat[si]&=~SW_DOUBLECHECK;
}
break;
case 0x01:
case 0x81:
t=wstat[si];
if (t!=regs[si])
{ Serial.println("Changed");
if (owChanged) owChanged(si,term[si],t);
regs[si]=t;
}
}
si++;
return check_circle;
}