wmbusmeters/src/meter_flowiq2200.cc

500 wiersze
16 KiB
C++

/*
Copyright (C) 2017-2020 Fredrik Öhrström
This program is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <http://www.gnu.org/licenses/>.
*/
#include"dvparser.h"
#include"meters.h"
#include"meters_common_implementation.h"
#include"wmbus.h"
#include"wmbus_utils.h"
#include"util.h"
#include<assert.h>
using namespace std;
// Are these bits really correct for this meter?
#define INFO_CODE_DRY 0x01
#define INFO_CODE_DRY_SHIFT (4+0)
#define INFO_CODE_REVERSE 0x02
#define INFO_CODE_REVERSE_SHIFT (4+3)
#define INFO_CODE_LEAK 0x04
#define INFO_CODE_LEAK_SHIFT (4+6)
#define INFO_CODE_BURST 0x08
#define INFO_CODE_BURST_SHIFT (4+9)
struct MeterFlowIQ2200 : public virtual WaterMeter, public virtual MeterCommonImplementation {
MeterFlowIQ2200(MeterInfo &mi, MeterType mt);
// Total water counted through the meter
double totalWaterConsumption(Unit u);
bool hasTotalWaterConsumption();
// Meter sends target water consumption or max flow, depending on meter configuration
// We can see which was sent inside the wmbus message!
// Target water consumption: The total consumption at the start of the previous 30 day period.
double targetWaterConsumption(Unit u);
bool hasTargetWaterConsumption();
double currentFlow(Unit u);
// Max flow during last month or last 24 hours depending on meter configuration.
double maxFlow(Unit u);
bool hasMaxFlow();
double minFlow(Unit u);
// Water temperature
double flowTemperature(Unit u);
bool hasFlowTemperature();
double minFlowTemperature(Unit u);
double maxFlowTemperature(Unit u);
// Surrounding temperature
double externalTemperature(Unit u);
bool hasExternalTemperature();
// statusHumanReadable: DRY,REVERSED,LEAK,BURST if that status is detected right now, followed by
// (dry 15-21 days) which means that, even it DRY is not active right now,
// DRY has been active for 15-21 days during the last 30 days.
string statusHumanReadable();
string status();
string timeDry();
string timeReversed();
string timeLeaking();
string timeBursting();
private:
void processContent(Telegram *t);
string decodeTime(int time);
uint16_t info_codes_ {};
double total_water_consumption_m3_ {};
bool has_total_water_consumption_ {};
double target_water_consumption_m3_ {};
bool has_target_water_consumption_ {};
double current_flow_m3h_ {};
double max_flow_m3h_ {};
double min_flow_m3h_ {};
double min_flow_temperature_c_ { 127 };
double max_flow_temperature_c_ { 127 };
double external_temperature_c_ { 127 };
bool has_external_temperature_ {};
string target_datetime_;
};
MeterFlowIQ2200::MeterFlowIQ2200(MeterInfo &mi, MeterType mt) :
MeterCommonImplementation(mi, mt)
{
setExpectedELLSecurityMode(ELLSecurityMode::AES_CTR);
addLinkMode(LinkMode::C1);
addPrint("total", Quantity::Volume,
[&](Unit u){ return totalWaterConsumption(u); },
"The total water consumption recorded by this meter.",
true, true);
addPrint("target", Quantity::Volume,
[&](Unit u){ return targetWaterConsumption(u); },
"The total water consumption recorded at the beginning of this month.",
true, true);
addPrint("target_datetime", Quantity::Text,
[&](){ return target_datetime_; },
"Timestamp for water consumption recorded at the beginning of this month.",
true, true);
addPrint("current_flow", Quantity::Flow,
[&](Unit u){ return currentFlow(u); },
"The current flow of water.",
true, true);
addPrint("max_flow", Quantity::Flow,
[&](Unit u){ return maxFlow(u); },
"The maxium flow recorded during previous period.",
true, true);
addPrint("min_flow", Quantity::Flow,
[&](Unit u){ return currentFlow(u); },
"The minimum flow recorded during previous period.",
true, true);
addPrint("min_flow_temperature", Quantity::Temperature,
[&](Unit u){ return minFlowTemperature(u); },
"The minimum water temperature during previous period.",
true, true);
addPrint("max_flow_temperature", Quantity::Temperature,
[&](Unit u){ return maxFlowTemperature(u); },
"The maximum water temperature during previous period.",
true, true);
addPrint("external_temperature", Quantity::Temperature,
[&](Unit u){ return externalTemperature(u); },
"The external temperature outside of the meter.",
true, true);
addPrint("", Quantity::Text,
[&](){ return statusHumanReadable(); },
"Status of meter.",
true, false);
addPrint("current_status", Quantity::Text,
[&](){ return status(); },
"Status of meter.",
false, true);
addPrint("time_dry", Quantity::Text,
[&](){ return timeDry(); },
"Amount of time the meter has been dry.",
false, true);
addPrint("time_reversed", Quantity::Text,
[&](){ return timeReversed(); },
"Amount of time the meter has been reversed.",
false, true);
addPrint("time_leaking", Quantity::Text,
[&](){ return timeLeaking(); },
"Amount of time the meter has been leaking.",
false, true);
addPrint("time_bursting", Quantity::Text,
[&](){ return timeBursting(); },
"Amount of time the meter has been bursting.",
false, true);
}
double MeterFlowIQ2200::totalWaterConsumption(Unit u)
{
assertQuantity(u, Quantity::Volume);
return convert(total_water_consumption_m3_, Unit::M3, u);
}
bool MeterFlowIQ2200::hasTotalWaterConsumption()
{
return has_total_water_consumption_;
}
double MeterFlowIQ2200::targetWaterConsumption(Unit u)
{
assertQuantity(u, Quantity::Volume);
return convert(target_water_consumption_m3_, Unit::M3, u);
}
bool MeterFlowIQ2200::hasTargetWaterConsumption()
{
return has_target_water_consumption_;
}
double MeterFlowIQ2200::currentFlow(Unit u)
{
assertQuantity(u, Quantity::Flow);
return convert(current_flow_m3h_, Unit::M3H, u);
}
double MeterFlowIQ2200::maxFlow(Unit u)
{
assertQuantity(u, Quantity::Flow);
return convert(max_flow_m3h_, Unit::M3H, u);
}
double MeterFlowIQ2200::minFlow(Unit u)
{
assertQuantity(u, Quantity::Flow);
return convert(min_flow_m3h_, Unit::M3H, u);
}
bool MeterFlowIQ2200::hasMaxFlow()
{
return true;
}
double MeterFlowIQ2200::flowTemperature(Unit u)
{
assertQuantity(u, Quantity::Temperature);
return convert(127, Unit::C, u);
}
double MeterFlowIQ2200::minFlowTemperature(Unit u)
{
assertQuantity(u, Quantity::Temperature);
return convert(min_flow_temperature_c_, Unit::C, u);
}
double MeterFlowIQ2200::maxFlowTemperature(Unit u)
{
assertQuantity(u, Quantity::Temperature);
return convert(max_flow_temperature_c_, Unit::C, u);
}
bool MeterFlowIQ2200::hasFlowTemperature()
{
// Actually no, it has only min and max.
return false;
}
double MeterFlowIQ2200::externalTemperature(Unit u)
{
assertQuantity(u, Quantity::Temperature);
return convert(external_temperature_c_, Unit::C, u);
}
bool MeterFlowIQ2200::hasExternalTemperature()
{
return has_external_temperature_;
}
shared_ptr<WaterMeter> createFlowIQ2200(MeterInfo &mi)
{
return shared_ptr<WaterMeter>(new MeterFlowIQ2200(mi, MeterType::FLOWIQ2200));
}
void MeterFlowIQ2200::processContent(Telegram *t)
{
/*
(flowiq2200) 14: 04 dif (32 Bit Integer/Binary Instantaneous value)
(flowiq2200) 15: FF vif (Vendor extension)
(flowiq2200) 16: 23 vife (per day)
(flowiq2200) 17: * 00000000 info codes (OK)
(flowiq2200) 1b: 04 dif (32 Bit Integer/Binary Instantaneous value)
(flowiq2200) 1c: 13 vif (Volume l)
(flowiq2200) 1d: * AEAC0000 total consumption (44.206000 m3)
(flowiq2200) 21: 44 dif (32 Bit Integer/Binary Instantaneous value storagenr=1)
(flowiq2200) 22: 13 vif (Volume l)
(flowiq2200) 23: * 64A80000 target consumption (43.108000 m3)
(flowiq2200) 27: 42 dif (16 Bit Integer/Binary Instantaneous value storagenr=1)
(flowiq2200) 28: 6C vif (Date type G)
(flowiq2200) 29: * 812A target_datetime (2020-10-01 00:00)
(flowiq2200) 2b: 02 dif (16 Bit Integer/Binary Instantaneous value)
(flowiq2200) 2c: 3B vif (Volume flow l/h)
(flowiq2200) 2d: * 0000 current flow (0.000000 m3/h)
(flowiq2200) 2f: 92 dif (16 Bit Integer/Binary Maximum value)
(flowiq2200) 30: 01 dife (subunit=0 tariff=0 storagenr=2)
(flowiq2200) 31: 3B vif (Volume flow l/h)
(flowiq2200) 32: * EF01 max flow (0.495000 m3/h)
(flowiq2200) 34: A2 dif (16 Bit Integer/Binary Minimum value)
(flowiq2200) 35: 01 dife (subunit=0 tariff=0 storagenr=2)
(flowiq2200) 36: 3B vif (Volume flow l/h)
(flowiq2200) 37: * 0000 min flow (0.000000 m3/h)
(flowiq2200) 39: 06 dif (48 Bit Integer/Binary Instantaneous value)
(flowiq2200) 3a: FF vif (Vendor extension)
(flowiq2200) 3b: 1B vife (?)
(flowiq2200) 3c: 067000097000
(flowiq2200) 42: A1 dif (8 Bit Integer/Binary Minimum value)
(flowiq2200) 43: 01 dife (subunit=0 tariff=0 storagenr=2)
(flowiq2200) 44: 5B vif (Flow temperature °C)
(flowiq2200) 45: * 0C min flow temperature (12.000000 °C)
(flowiq2200) 46: 91 dif (8 Bit Integer/Binary Maximum value)
(flowiq2200) 47: 01 dife (subunit=0 tariff=0 storagenr=2)
(flowiq2200) 48: 5B vif (Flow temperature °C)
(flowiq2200) 49: * 14 max flow temperature (20.000000 °C)
(flowiq2200) 4a: A1 dif (8 Bit Integer/Binary Minimum value)
(flowiq2200) 4b: 01 dife (subunit=0 tariff=0 storagenr=2)
(flowiq2200) 4c: 67 vif (External temperature °C)
(flowiq2200) 4d: * 13 external temperature (19.000000 °C)
*/
string meter_name = toMeterName(type()).c_str();
int offset;
string key;
extractDVuint16(&t->values, "04FF23", &offset, &info_codes_);
t->addMoreExplanation(offset, " info codes (%s)", statusHumanReadable().c_str());
if(findKey(MeasurementType::Instantaneous, ValueInformation::Volume, 0, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &total_water_consumption_m3_);
has_total_water_consumption_ = true;
t->addMoreExplanation(offset, " total consumption (%f m3)", total_water_consumption_m3_);
}
if(findKey(MeasurementType::Unknown, ValueInformation::Volume, 1, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &target_water_consumption_m3_);
has_target_water_consumption_ = true;
t->addMoreExplanation(offset, " target consumption (%f m3)", target_water_consumption_m3_);
}
if (findKey(MeasurementType::Unknown, ValueInformation::Date, 1, 0, &key, &t->values)) {
struct tm datetime;
extractDVdate(&t->values, key, &offset, &datetime);
target_datetime_ = strdatetime(&datetime);
t->addMoreExplanation(offset, " target_datetime (%s)", target_datetime_.c_str());
}
if(findKey(MeasurementType::Instantaneous, ValueInformation::VolumeFlow, 0, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &current_flow_m3h_);
t->addMoreExplanation(offset, " current flow (%f m3/h)", current_flow_m3h_);
}
if(findKey(MeasurementType::Maximum, ValueInformation::VolumeFlow, 2, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &max_flow_m3h_);
t->addMoreExplanation(offset, " max flow (%f m3/h)", max_flow_m3h_);
}
if(findKey(MeasurementType::Minimum, ValueInformation::VolumeFlow, 2, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &min_flow_m3h_);
t->addMoreExplanation(offset, " min flow (%f m3/h)", min_flow_m3h_);
}
if(findKey(MeasurementType::Minimum, ValueInformation::FlowTemperature, 2, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &min_flow_temperature_c_);
t->addMoreExplanation(offset, " min flow temperature (%f °C)", min_flow_temperature_c_);
}
if(findKey(MeasurementType::Maximum, ValueInformation::FlowTemperature, 2, 0, &key, &t->values)) {
extractDVdouble(&t->values, key, &offset, &max_flow_temperature_c_);
t->addMoreExplanation(offset, " max flow temperature (%f °C)", max_flow_temperature_c_);
}
if(findKey(MeasurementType::Unknown, ValueInformation::ExternalTemperature, ANY_STORAGENR, 0, &key, &t->values)) {
has_external_temperature_ = extractDVdouble(&t->values, key, &offset, &external_temperature_c_);
t->addMoreExplanation(offset, " external temperature (%f °C)", external_temperature_c_);
}
}
string MeterFlowIQ2200::status()
{
string s;
if (info_codes_ & INFO_CODE_DRY) s.append("DRY ");
if (info_codes_ & INFO_CODE_REVERSE) s.append("REVERSED ");
if (info_codes_ & INFO_CODE_LEAK) s.append("LEAK ");
if (info_codes_ & INFO_CODE_BURST) s.append("BURST ");
if (s.length() > 0) {
s.pop_back(); // Remove final space
return s;
}
return s;
}
string MeterFlowIQ2200::timeDry()
{
int time_dry = (info_codes_ >> INFO_CODE_DRY_SHIFT) & 7;
if (time_dry) {
return decodeTime(time_dry);
}
return "";
}
string MeterFlowIQ2200::timeReversed()
{
int time_reversed = (info_codes_ >> INFO_CODE_REVERSE_SHIFT) & 7;
if (time_reversed) {
return decodeTime(time_reversed);
}
return "";
}
string MeterFlowIQ2200::timeLeaking()
{
int time_leaking = (info_codes_ >> INFO_CODE_LEAK_SHIFT) & 7;
if (time_leaking) {
return decodeTime(time_leaking);
}
return "";
}
string MeterFlowIQ2200::timeBursting()
{
int time_bursting = (info_codes_ >> INFO_CODE_BURST_SHIFT) & 7;
if (time_bursting) {
return decodeTime(time_bursting);
}
return "";
}
string MeterFlowIQ2200::statusHumanReadable()
{
string s;
bool dry = info_codes_ & INFO_CODE_DRY;
int time_dry = (info_codes_ >> INFO_CODE_DRY_SHIFT) & 7;
if (dry || time_dry) {
if (dry) s.append("DRY");
s.append("(dry ");
s.append(decodeTime(time_dry));
s.append(") ");
}
bool reversed = info_codes_ & INFO_CODE_REVERSE;
int time_reversed = (info_codes_ >> INFO_CODE_REVERSE_SHIFT) & 7;
if (reversed || time_reversed) {
if (dry) s.append("REVERSED");
s.append("(rev ");
s.append(decodeTime(time_reversed));
s.append(") ");
}
bool leak = info_codes_ & INFO_CODE_LEAK;
int time_leak = (info_codes_ >> INFO_CODE_LEAK_SHIFT) & 7;
if (leak || time_leak) {
if (dry) s.append("LEAK");
s.append("(leak ");
s.append(decodeTime(time_leak));
s.append(") ");
}
bool burst = info_codes_ & INFO_CODE_BURST;
int time_burst = (info_codes_ >> INFO_CODE_BURST_SHIFT) & 7;
if (burst || time_burst) {
if (dry) s.append("BURST");
s.append("(burst ");
s.append(decodeTime(time_burst));
s.append(") ");
}
if (s.length() > 0) {
s.pop_back();
return s;
}
return "OK";
}
string MeterFlowIQ2200::decodeTime(int time)
{
if (time>7) {
string meter_name = toMeterName(type()).c_str();
warning("(%s) warning: Cannot decode time %d should be 0-7.\n", meter_name.c_str(), time);
}
switch (time) {
case 0:
return "0 hours";
case 1:
return "1-8 hours";
case 2:
return "9-24 hours";
case 3:
return "2-3 days";
case 4:
return "4-7 days";
case 5:
return "8-14 days";
case 6:
return "15-21 days";
case 7:
return "22-31 days";
default:
return "?";
}
}