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/* lgk larry kahn kahn-st@lgk.com custom ct100 .. changes to stock device type
1. add some icons and colors heat color, cool color,
2. add operating mode tile ie idle heating etc
3. add color for humididity as well
4. get rid of sliders that worked like crap and added up down arrows for both heating and cooling,
and color based on temp for both.
5. add color for battery status.
v 2. some returns between indicators to move things down a line as recommended
v 3 reintegrate changes smarthigns made in setheatingsetpoint and setcoolingsetpoint functions apparently to get around bugs.
these changes were made in the stock ct100 device type.
*/
metadata {
// Automatically generated. Make future change here.
definition (name: "My CT100 Thermostat", namespace: "smartthings", author: "LGK Customized") {
capability "Actuator"
capability "Temperature Measurement"
capability "Relative Humidity Measurement"
capability "Thermostat"
capability "Battery"
capability "Configuration"
capability "Refresh"
capability "Sensor"
command "heatLevelUp"
command "heatLevelDown"
command "coolLevelUp"
command "coolLevelDown"
attribute "thermostatFanState", "string"
command "switchMode"
command "switchFanMode"
command "quickSetCool"
command "quickSetHeat"
fingerprint deviceId: "0x08", inClusters: "0x43,0x40,0x44,0x31,0x80,0x85,0x60"
}
// simulator metadata
simulator {
status "off" : "command: 4003, payload: 00"
status "heat" : "command: 4003, payload: 01"
status "cool" : "command: 4003, payload: 02"
status "auto" : "command: 4003, payload: 03"
status "emergencyHeat" : "command: 4003, payload: 04"
status "fanAuto" : "command: 4403, payload: 00"
status "fanOn" : "command: 4403, payload: 01"
status "fanCirculate" : "command: 4403, payload: 06"
status "heat 60" : "command: 4303, payload: 01 09 3C"
status "heat 72" : "command: 4303, payload: 01 09 48"
status "cool 76" : "command: 4303, payload: 02 09 4C"
status "cool 80" : "command: 4303, payload: 02 09 50"
status "temp 58" : "command: 3105, payload: 01 2A 02 44"
status "temp 62" : "command: 3105, payload: 01 2A 02 6C"
status "temp 78" : "command: 3105, payload: 01 2A 03 0C"
status "temp 86" : "command: 3105, payload: 01 2A 03 34"
status "idle" : "command: 4203, payload: 00"
status "heating" : "command: 4203, payload: 01"
status "cooling" : "command: 4203, payload: 02"
// reply messages
reply "2502": "command: 2503, payload: FF"
}
tiles {
valueTile("temperature", "device.temperature", width: 2, height: 2) {
state("temperature", label:'${currentValue}°',
icon: "http://cdn.device-icons.smartthings.com/Weather/weather2-icn@2x.png",
backgroundColors:[
[value: 32, color: "#153591"],
[value: 44, color: "#1e9cbb"],
[value: 59, color: "#90d2a7"],
[value: 74, color: "#44b621"],
[value: 84, color: "#f1d801"],
[value: 92, color: "#d04e00"],
[value: 98, color: "#bc2323"]
]
)
}
standardTile("mode", "device.thermostatMode", inactiveLabel: false) {
state "off", label:'${name}', action:"switchMode", icon: "st.Outdoor.outdoor19" ,nextState:"to_heat"
state "heat", label:'${name}', action:"switchMode", icon: "st.Weather.weather14", backgroundColor: '#E14902', nextState:"to_cool"
state "cool", label:'${name}', action:"switchMode", icon: "st.Weather.weather7", backgroundColor: '#1e9cbb', nextState:"..."
state "auto", label:'${name}', action:"switchMode", icon: "st.Weather.weather3", backgroundColor: '#44b621', nextState:"..."
state "emergency heat", label:'${name}', action:"switchMode", nextState:"..."
state "to_heat", label: "heat", action:"switchMode", nextState:"to_cool"
state "to_cool", label: "cool", action:"switchMode", nextState:"..."
state "...", label: "...", action:"off", nextState:"off"
}
standardTile("fanMode", "device.thermostatFanMode", inactiveLabel: false) {
state "fanAuto", label:'${name}', action:"switchFanMode", icon: "st.Appliances.appliances11", backgroundColor: '#44b621'
state "fanOn", label:'${name}', action:"switchFanMode", icon: "st.Appliances.appliances11", backgroundColor: '#44b621'
state "fanCirculate", label:'${name}', action:"switchFanMode", icon: "st.Appliances.appliances11", backgroundColor: '#44b621'
}
valueTile("coolingSetpoint", "device.coolingSetpoint", inactiveLabel: false)
{
state "default", label:'Cool\n${currentValue}°F', unit:"F",
backgroundColors:
[
[value: 31, color: "#153591"],
[value: 44, color: "#1e9cbb"],
[value: 59, color: "#90d2a7"],
[value: 74, color: "#44b621"],
[value: 84, color: "#f1d801"],
[value: 95, color: "#d04e00"],
[value: 96, color: "#bc2323"]
]
}
valueTile("heatingSetpoint", "device.heatingSetpoint", inactiveLabel: false)
{
state "default", label:'Heat\n${currentValue}°F', unit:"F",
backgroundColors:
[
[value: 31, color: "#153591"],
[value: 44, color: "#1e9cbb"],
[value: 59, color: "#90d2a7"],
[value: 74, color: "#44b621"],
[value: 84, color: "#f1d801"],
[value: 95, color: "#d04e00"],
[value: 96, color: "#bc2323"]
]
}
standardTile("heatLevelUp", "device.heatingSetpoint", canChangeIcon: false, inactiveLabel: false) {
state "heatLevelUp", label:' ', action:"heatLevelUp", icon:"st.thermostat.thermostat-up"
}
standardTile("heatLevelDown", "device.heatingSetpoint", canChangeIcon: false, inactiveLabel: false) {
state "heatLevelDown", label:' ', action:"heatLevelDown", icon:"st.thermostat.thermostat-down"
}
standardTile("coolLevelUp", "device.heatingSetpoint", canChangeIcon: false, inactiveLabel: false) {
state "coolLevelUp", label:' ', action:"coolLevelUp", icon:"st.thermostat.thermostat-up"
}
standardTile("coolLevelDown", "device.heatingSetpoint", canChangeIcon: false, inactiveLabel: false) {
state "coolLevelDown", label:' ', action:"coolLevelDown", icon:"st.thermostat.thermostat-down"
}
/*
controlTile("heatSliderControl", "device.heatingSetpoint", "slider", height: 1, width: 2, inactiveLabel: false) {
state "setHeatingSetpoint", action:"quickSetHeat", backgroundColor:"#d04e00"
}
valueTile("heatingSetpoint", "device.heatingSetpoint", inactiveLabel: false, decoration: "flat") {
state "heat", label:'${currentValue}° heat', backgroundColor:"#ffffff"
}
controlTile("coolSliderControl", "device.coolingSetpoint", "slider", height: 1, width: 2, inactiveLabel: false) {
state "setCoolingSetpoint", action:"quickSetCool", backgroundColor: "#1e9cbb"
}
valueTile("coolingSetpoint", "device.coolingSetpoint", inactiveLabel: false, decoration: "flat") {
state "cool", label:'${currentValue}° cool', backgroundColor:"#ffffff"
}
*/
valueTile("humidity", "device.humidity", inactiveLabel: false) {
state "humidity", label:'Humidity\n${currentValue}%', unit:"",
icon: "http://cdn.device-icons.smartthings.com/Weather/weather12-icn@2x.png",
backgroundColors : [
[value: 01, color: "#724529"],
[value: 11, color: "#724529"],
[value: 21, color: "#724529"],
[value: 35, color: "#44b621"],
[value: 49, color: "#44b621"],
[value: 50, color: "#1e9cbb"]
]
}
valueTile("battery", "device.battery", inactiveLabel: false) {
state "battery", label:'Battery\n${currentValue}%', unit:"",
backgroundColors : [
[value: 20, color: "#720000"],
[value: 40, color: "#724529"],
[value: 60, color: "#00cccc"],
[value: 80, color: "#00b621"],
[value: 90, color: "#009c00"],
[value: 100, color: "#00ff00"]
]h
}
valueTile("thermostatOperatingState", "device.thermostatOperatingState", inactiveLabel: false, decoration: "flat") {
state "thermostatOperatingState", label:'${currentValue}', unit:""
}
standardTile("refresh", "device.thermostatMode", inactiveLabel: false, decoration: "flat") {
state "default", action:"refresh.refresh", icon:"st.secondary.refresh"
}
main "temperature"
details(["temperature", "mode", "fanMode",
"heatLevelUp", "heatingSetpoint" , "heatLevelDown", "coolLevelUp",
"coolingSetpoint", "coolLevelDown",
"humidity", "battery","thermostatOperatingState","refresh"])
/*main "temperature"
details(["temperature", "mode", "fanMode",
"heatSliderControl", "heatingSetpoint", "coolSliderControl", "coolingSetpoint",
"humidity", "battery","thermostatOperatingState","refresh"])*/
}
}
def parse(String description)
{
def result = []
if (description == "updated") {
} else {
def zwcmd = zwave.parse(description, [0x42:2, 0x43:2, 0x31: 2, 0x60: 3])
if (zwcmd) {
result += zwaveEvent(zwcmd)
} else {
log.debug "$device.displayName couldn't parse $description"
}
}
if (!result) {
return null
}
if (result.size() == 1 && (!state.lastbatt || now() - state.lastbatt > 48*60*60*1000)) {
result << response(zwave.batteryV1.batteryGet().format())
}
//log.debug "$device.displayName parsed '$description' to $result"
result
}
def zwaveEvent(physicalgraph.zwave.commands.multichannelv3.MultiChannelCmdEncap cmd) {
def result = null
def encapsulatedCommand = cmd.encapsulatedCommand([0x42:2, 0x43:2, 0x31: 2])
log.debug ("Command from endpoint ${cmd.sourceEndPoint}: ${encapsulatedCommand}")
if (encapsulatedCommand) {
result = zwaveEvent(encapsulatedCommand)
if (cmd.sourceEndPoint == 1) { // indicates a response to refresh() vs an unrequested update
def event = ([] + result)[0] // in case zwaveEvent returns a list
def resp = nextRefreshQuery(event?.name)
if (resp) {
log.debug("sending next refresh query: $resp")
result = [] + result + response(["delay 200", resp])
}
}
}
result
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatsetpointv2.ThermostatSetpointReport cmd)
{
def cmdScale = cmd.scale == 1 ? "F" : "C"
def temp = convertTemperatureIfNeeded(cmd.scaledValue, cmdScale, cmd.precision)
def unit = getTemperatureScale()
def map1 = [ value: temp, unit: unit, displayed: false ]
switch (cmd.setpointType) {
case 1:
map1.name = "heatingSetpoint"
break;
case 2:
map1.name = "coolingSetpoint"
break;
default:
log.debug "unknown setpointType $cmd.setpointType"
return
}
// So we can respond with same format
state.size = cmd.size
state.scale = cmd.scale
state.precision = cmd.precision
def mode = device.latestValue("thermostatMode")
if (mode && map1.name.startsWith(mode) || (mode == "emergency heat" && map1.name == "heatingSetpoint")) {
def map2 = [ name: "thermostatSetpoint", value: temp, unit: unit ]
[ createEvent(map1), createEvent(map2) ]
} else {
createEvent(map1)
}
}
def zwaveEvent(physicalgraph.zwave.commands.sensormultilevelv2.SensorMultilevelReport cmd)
{
def map = [:]
if (cmd.sensorType == 1) {
map.name = "temperature"
map.unit = getTemperatureScale()
map.value = convertTemperatureIfNeeded(cmd.scaledSensorValue, cmd.scale == 1 ? "F" : "C", cmd.precision)
} else if (cmd.sensorType == 5) {
map.name = "humidity"
map.unit = "%"
map.value = cmd.scaledSensorValue
}
createEvent(map)
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport cmd)
{
def map = [name: "thermostatOperatingState" ]
switch (cmd.operatingState) {
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_IDLE:
map.value = "idle"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_HEATING:
map.value = "heating"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_COOLING:
map.value = "cooling"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_FAN_ONLY:
map.value = "fan only"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_PENDING_HEAT:
map.value = "pending heat"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_PENDING_COOL:
map.value = "pending cool"
break
case physicalgraph.zwave.commands.thermostatoperatingstatev2.ThermostatOperatingStateReport.OPERATING_STATE_VENT_ECONOMIZER:
map.value = "vent economizer"
break
}
def result = createEvent(map)
if (result.isStateChange && device.latestValue("thermostatMode") == "auto" && (result.value == "heating" || result.value == "cooling")) {
def thermostatSetpoint = device.latestValue("${result.value}Setpoint")
result = [result, createEvent(name: "thermostatSetpoint", value: thermostatSetpoint, unit: getTemperatureScale())]
}
result
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatfanstatev1.ThermostatFanStateReport cmd) {
def map = [name: "thermostatFanState", unit: ""]
switch (cmd.fanOperatingState) {
case 0:
map.value = "idle"
break
case 1:
map.value = "running"
break
case 2:
map.value = "running high"
break
}
createEvent(map)
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport cmd) {
def map = [name: "thermostatMode"]
def thermostatSetpoint = null
switch (cmd.mode) {
case physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport.MODE_OFF:
map.value = "off"
break
case physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport.MODE_HEAT:
map.value = "heat"
thermostatSetpoint = device.latestValue("heatingSetpoint")
break
case physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport.MODE_AUXILIARY_HEAT:
map.value = "emergency heat"
thermostatSetpoint = device.latestValue("heatingSetpoint")
break
case physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport.MODE_COOL:
map.value = "cool"
thermostatSetpoint = device.latestValue("coolingSetpoint")
break
case physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeReport.MODE_AUTO:
map.value = "auto"
def temp = device.latestValue("temperature")
def heatingSetpoint = device.latestValue("heatingSetpoint")
def coolingSetpoint = device.latestValue("coolingSetpoint")
if (temp && heatingSetpoint && coolingSetpoint) {
if (temp < (heatingSetpoint + coolingSetpoint) / 2.0) {
thermostatSetpoint = heatingSetpoint
} else {
thermostatSetpoint = coolingSetpoint
}
}
break
}
state.lastTriedMode = map.value
if (thermostatSetpoint) {
[ createEvent(map), createEvent(name: "thermostatSetpoint", value: thermostatSetpoint, unit: getTemperatureScale()) ]
} else {
createEvent(map)
}
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatfanmodev3.ThermostatFanModeReport cmd) {
def map = [name: "thermostatFanMode", displayed: false]
switch (cmd.fanMode) {
case physicalgraph.zwave.commands.thermostatfanmodev3.ThermostatFanModeReport.FAN_MODE_AUTO_LOW:
map.value = "fanAuto"
break
case physicalgraph.zwave.commands.thermostatfanmodev3.ThermostatFanModeReport.FAN_MODE_LOW:
map.value = "fanOn"
break
case physicalgraph.zwave.commands.thermostatfanmodev3.ThermostatFanModeReport.FAN_MODE_CIRCULATION:
map.value = "fanCirculate"
break
}
state.lastTriedFanMode = map.value
createEvent(map)
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatmodev2.ThermostatModeSupportedReport cmd) {
def supportedModes = ""
if(cmd.off) { supportedModes += "off " }
if(cmd.heat) { supportedModes += "heat " }
if(cmd.auxiliaryemergencyHeat) { supportedModes += "emergency heat " }
if(cmd.cool) { supportedModes += "cool " }
if(cmd.auto) { supportedModes += "auto " }
state.supportedModes = supportedModes
[ createEvent(name:"supportedModes", value: supportedModes, displayed: false),
response(zwave.thermostatFanModeV3.thermostatFanModeSupportedGet()) ]
}
def zwaveEvent(physicalgraph.zwave.commands.thermostatfanmodev3.ThermostatFanModeSupportedReport cmd) {
def supportedFanModes = ""
if(cmd.auto) { supportedFanModes += "fanAuto " }
if(cmd.low) { supportedFanModes += "fanOn " }
if(cmd.circulation) { supportedFanModes += "fanCirculate " }
state.supportedFanModes = supportedFanModes
[ createEvent(name:"supportedFanModes", value: supportedModes, displayed: false),
response(refresh()) ]
}
def zwaveEvent(physicalgraph.zwave.commands.basicv1.BasicReport cmd) {
log.debug "Zwave event received: $cmd"
}
def zwaveEvent(physicalgraph.zwave.commands.batteryv1.BatteryReport cmd) {
def map = [ name: "battery", unit: "%" ]
if (cmd.batteryLevel == 0xFF) {
map.value = 1
map.descriptionText = "${device.displayName} battery is low"
map.isStateChange = true
} else {
map.value = cmd.batteryLevel
}
state.lastbatt = now()
createEvent(map)
}
def zwaveEvent(physicalgraph.zwave.Command cmd) {
log.warn "Unexpected zwave command $cmd"
}
def refresh() {
// Use encapsulation to differentiate refresh cmds from what the thermostat sends proactively on change
def cmd = zwave.sensorMultilevelV2.sensorMultilevelGet()
zwave.multiChannelV3.multiChannelCmdEncap(destinationEndPoint:1).encapsulate(cmd).format()
}
def nextRefreshQuery(name) {
def cmd = null
switch (name) {
case "temperature":
cmd = zwave.thermostatModeV2.thermostatModeGet()
break
case "thermostatMode":
cmd = zwave.thermostatSetpointV1.thermostatSetpointGet(setpointType: 1)
break
case "heatingSetpoint":
cmd = zwave.thermostatSetpointV1.thermostatSetpointGet(setpointType: 2)
break
case "coolingSetpoint":
cmd = zwave.thermostatFanModeV3.thermostatFanModeGet()
break
case "thermostatFanMode":
cmd = zwave.thermostatOperatingStateV2.thermostatOperatingStateGet()
break
case "thermostatOperatingState":
// get humidity, multilevel sensor get to endpoint 2
cmd = zwave.sensorMultilevelV2.sensorMultilevelGet()
return zwave.multiChannelV3.multiChannelCmdEncap(destinationEndPoint:2).encapsulate(cmd).format()
default: return null
}
zwave.multiChannelV3.multiChannelCmdEncap(destinationEndPoint:1).encapsulate(cmd).format()
}
def quickSetHeat(degrees) {
setHeatingSetpoint(degrees, 1000)
}
def setHeatingSetpoint(degrees, delay = 30000) {
setHeatingSetpoint(degrees.toDouble(), delay)
}
def setHeatingSetpoint(Double degrees, Integer delay = 30000) {
log.trace "setHeatingSetpoint($degrees, $delay)"
def deviceScale = state.scale ?: 1
def deviceScaleString = deviceScale == 2 ? "C" : "F"
def locationScale = getTemperatureScale()
def p = (state.precision == null) ? 1 : state.precision
def convertedDegrees
if (locationScale == "C" && deviceScaleString == "F") {
convertedDegrees = celsiusToFahrenheit(degrees)
} else if (locationScale == "F" && deviceScaleString == "C") {
convertedDegrees = fahrenheitToCelsius(degrees)
} else {
convertedDegrees = degrees
}
delayBetween([
zwave.thermostatSetpointV1.thermostatSetpointSet(setpointType: 1, scale: deviceScale, precision: p, scaledValue: convertedDegrees).format(),
zwave.thermostatSetpointV1.thermostatSetpointGet(setpointType: 1).format()
], delay)
}
def quickSetCool(degrees) {
setCoolingSetpoint(degrees, 1000)
}
def setCoolingSetpoint(degrees, delay = 30000) {
setCoolingSetpoint(degrees.toDouble(), delay)
}
def setCoolingSetpoint(Double degrees, Integer delay = 30000) {
log.trace "setCoolingSetpoint($degrees, $delay)"
def deviceScale = state.scale ?: 1
def deviceScaleString = deviceScale == 2 ? "C" : "F"
def locationScale = getTemperatureScale()
def p = (state.precision == null) ? 1 : state.precision
def convertedDegrees
if (locationScale == "C" && deviceScaleString == "F") {
convertedDegrees = celsiusToFahrenheit(degrees)
} else if (locationScale == "F" && deviceScaleString == "C") {
convertedDegrees = fahrenheitToCelsius(degrees)
} else {
convertedDegrees = degrees
}
delayBetween([
zwave.thermostatSetpointV1.thermostatSetpointSet(setpointType: 2, scale: deviceScale, precision: p, scaledValue: convertedDegrees).format(),
zwave.thermostatSetpointV1.thermostatSetpointGet(setpointType: 2).format()
], delay)
}
def configure() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSupportedGet().format(),
], 2300)
}
def modes() {
["off", "heat", "cool", "auto", "emergency heat"]
}
def switchMode() {
def currentMode = device.currentState("thermostatMode")?.value
def lastTriedMode = state.lastTriedMode ?: currentMode ?: "off"
def supportedModes = getDataByName("supportedModes")
def modeOrder = modes()
def next = { modeOrder[modeOrder.indexOf(it) + 1] ?: modeOrder[0] }
def nextMode = next(lastTriedMode)
if (supportedModes?.contains(currentMode)) {
while (!supportedModes.contains(nextMode) && nextMode != "off") {
nextMode = next(nextMode)
}
}
state.lastTriedMode = nextMode
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: modeMap[nextMode]).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], 1000)
}
def switchToMode(nextMode) {
def supportedModes = getDataByName("supportedModes")
if(supportedModes && !supportedModes.contains(nextMode)) log.warn "thermostat mode '$nextMode' is not supported"
if (nextMode in modes()) {
state.lastTriedMode = nextMode
"$nextMode"()
} else {
log.debug("no mode method '$nextMode'")
}
}
def switchFanMode() {
def currentMode = device.currentState("thermostatFanMode")?.value
def lastTriedMode = state.lastTriedFanMode ?: currentMode ?: "off"
def supportedModes = getDataByName("supportedFanModes") ?: "fanAuto fanOn"
def modeOrder = ["fanAuto", "fanCirculate", "fanOn"]
def next = { modeOrder[modeOrder.indexOf(it) + 1] ?: modeOrder[0] }
def nextMode = next(lastTriedMode)
while (!supportedModes?.contains(nextMode) && nextMode != "fanAuto") {
nextMode = next(nextMode)
}
switchToFanMode(nextMode)
}
def switchToFanMode(nextMode) {
def supportedFanModes = getDataByName("supportedFanModes")
if(supportedFanModes && !supportedFanModes.contains(nextMode)) log.warn "thermostat mode '$nextMode' is not supported"
def returnCommand
if (nextMode == "fanAuto") {
returnCommand = fanAuto()
} else if (nextMode == "fanOn") {
returnCommand = fanOn()
} else if (nextMode == "fanCirculate") {
returnCommand = fanCirculate()
} else {
log.debug("no fan mode '$nextMode'")
}
if(returnCommand) state.lastTriedFanMode = nextMode
returnCommand
}
def getDataByName(String name) {
state[name] ?: device.getDataValue(name)
}
def getModeMap() { [
"off": 0,
"heat": 1,
"cool": 2,
"auto": 3,
"emergency heat": 4
]}
def setThermostatMode(String value) {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: modeMap[value]).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def getFanModeMap() { [
"auto": 0,
"on": 1,
"circulate": 6
]}
def setThermostatFanMode(String value) {
delayBetween([
zwave.thermostatFanModeV3.thermostatFanModeSet(fanMode: fanModeMap[value]).format(),
zwave.thermostatFanModeV3.thermostatFanModeGet().format()
], standardDelay)
}
def off() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: 0).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def heat() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: 1).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def emergencyHeat() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: 4).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def cool() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: 2).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def auto() {
delayBetween([
zwave.thermostatModeV2.thermostatModeSet(mode: 3).format(),
zwave.thermostatModeV2.thermostatModeGet().format()
], standardDelay)
}
def fanOn() {
delayBetween([
zwave.thermostatFanModeV3.thermostatFanModeSet(fanMode: 1).format(),
zwave.thermostatFanModeV3.thermostatFanModeGet().format()
], standardDelay)
}
def fanAuto() {
delayBetween([
zwave.thermostatFanModeV3.thermostatFanModeSet(fanMode: 0).format(),
zwave.thermostatFanModeV3.thermostatFanModeGet().format()
], standardDelay)
}
def fanCirculate() {
delayBetween([
zwave.thermostatFanModeV3.thermostatFanModeSet(fanMode: 6).format(),
zwave.thermostatFanModeV3.thermostatFanModeGet().format()
], standardDelay)
}
private getStandardDelay() {
1000
}
def coolLevelUp(){
int nextLevel = device.currentValue("coolingSetpoint") + 1
if( nextLevel > 99){
nextLevel = 99
}
log.debug "Setting cool set point up to: ${nextLevel}"
setCoolingSetpoint(nextLevel)
}
def coolLevelDown(){
int nextLevel = device.currentValue("coolingSetpoint") - 1
if( nextLevel < 50){
nextLevel = 50
}
log.debug "Setting cool set point down to: ${nextLevel}"
setCoolingSetpoint(nextLevel)
}
def heatLevelUp(){
int nextLevel = device.currentValue("heatingSetpoint") + 1
if( nextLevel > 90){
nextLevel = 90
}
log.debug "Setting heat set point up to: ${nextLevel}"
setHeatingSetpoint(nextLevel)
}
def heatLevelDown(){
int nextLevel = device.currentValue("heatingSetpoint") - 1
if( nextLevel < 40){
nextLevel = 40
}
log.debug "Setting heat set point down to: ${nextLevel}"
setHeatingSetpoint(nextLevel)
}

View File

@@ -346,8 +346,8 @@ def getTemperature(value) {
log.debug "Acceleration"
def name = "acceleration"
def value = numValue.endsWith("1") ? "active" : "inactive"
def linkText = getLinkText(device)
def descriptionText = "$linkText was $value"
//def linkText = getLinkText(device)
def descriptionText = "was $value"
def isStateChange = isStateChange(device, name, value)
[
name: name,

View File

@@ -1,226 +0,0 @@
/**
* Copyright 2015 SmartThings
*
* Licensed under the Apache License, Version 2.0 (the "License"); you may not use this file except
* in compliance with the License. You may obtain a copy of the License at:
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software distributed under the License is distributed
* on an "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the License
* for the specific language governing permissions and limitations under the License.
*
* Author: LGKahn kahn-st@lgk.com
* version 2 user defineable timeout before checking if door opened or closed correctly. Raised default to 25 secs. can reduce to 15 if you have custom simulated door with < 6 sec wait.
*/
definition(
name: "LGK Virtual Garage Door",
namespace: "lgkapps",
author: "lgkahn kahn-st@lgk.com",
description: "Sync the Simulated garage door device with 2 actual devices, either a tilt or contact sensor and a switch or relay. The simulated device will then control the actual garage door. In addition, the virtual device will sync when the garage door is opened manually, \n It also attempts to double check the door was actually closed in case the beam was crossed. ",
category: "Convenience",
iconUrl: "https://s3.amazonaws.com/smartapp-icons/Meta/garage_contact.png",
iconX2Url: "https://s3.amazonaws.com/smartapp-icons/Meta/garage_contact@2x.png"
)
preferences {
section("Choose the switch/relay that opens closes the garage?"){
input "opener", "capability.switch", title: "Physical Garage Opener?", required: true
}
section("Choose the sensor that senses if the garage is open closed? "){
input "sensor", "capability.contactSensor", title: "Physical Garage Door Open/Closed?", required: true
}
section("Choose the Virtual Garage Door Device? "){
input "virtualgd", "capability.doorControl", title: "Virtual Garage Door?", required: true
}
section("Choose the Virtual Garage Door Device sensor (same as above device)?"){
input "virtualgdbutton", "capability.contactSensor", title: "Virtual Garage Door Open/Close Sensor?", required: true
}
section("Timeout before checking if the door opened or closed correctly?"){
input "checkTimeout", "number", title: "Door Operation Check Timeout?", required: true, defaultValue: 25
}
section( "Notifications" ) {
input("recipients", "contact", title: "Send notifications to") {
input "sendPushMessage", "enum", title: "Send a push notification?", options: ["Yes", "No"], required: false
input "phone1", "phone", title: "Send a Text Message?", required: false
}
}
}
def installed()
{
def realgdstate = sensor.currentContact
def virtualgdstate = virtualgd.currentContact
//log.debug "in installed ... current state= $realgdstate"
//log.debug "gd state= $virtualgd.currentContact"
subscribe(sensor, "contact", contactHandler)
subscribe(virtualgdbutton, "contact", virtualgdcontactHandler)
// sync them up if need be set virtual same as actual
if (realgdstate != virtualgdstate)
{
if (realgdstate == "open")
{
virtualgd.open()
}
else virtualgd.close()
}
}
def updated()
{
def realgdstate = sensor.currentContact
def virtualgdstate = virtualgd.currentContact
//log.debug "in updated ... current state= $realgdstate"
//log.debug "in updated ... gd state= $virtualgd.currentContact"
unsubscribe()
subscribe(sensor, "contact", contactHandler)
subscribe(virtualgdbutton, "contact", virtualgdcontactHandler)
// sync them up if need be set virtual same as actual
if (realgdstate != virtualgdstate)
{
if (realgdstate == "open")
{
log.debug "opening virtual door"
mysend("Virtual Garage Door Opened!")
virtualgd.open()
}
else {
virtualgd.close()
log.debug "closing virtual door"
mysend("Virtual Garage Door Closed!")
}
}
// for debugging and testing uncomment temperatureHandlerTest()
}
def contactHandler(evt)
{
def virtualgdstate = virtualgd.currentContact
// how to determine which contact
//log.debug "in contact handler for actual door open/close event. event = $evt"
if("open" == evt.value)
{
// contact was opened, turn on a light maybe?
log.debug "Contact is in ${evt.value} state"
// reset virtual door if necessary
if (virtualgdstate != "open")
{
mysend("Garage Door Opened Manually syncing with Virtual Garage Door!")
virtualgd.open()
}
}
if("closed" == evt.value)
{
// contact was closed, turn off the light?
log.debug "Contact is in ${evt.value} state"
//reset virtual door
if (virtualgdstate != "closed")
{
mysend("Garage Door Closed Manually syncing with Virtual Garage Door!")
virtualgd.close()
}
}
}
def virtualgdcontactHandler(evt) {
// how to determine which contact
def realgdstate = sensor.currentContact
//log.debug "in virtual gd contact/button handler event = $evt"
//log.debug "in virtualgd contact handler check timeout = $checkTimeout"
if("open" == evt.value)
{
// contact was opened, turn on a light maybe?
log.debug "Contact is in ${evt.value} state"
// check to see if door is not in open state if so open
if (realgdstate != "open")
{
log.debug "opening real gd to correspond with button press"
mysend("Virtual Garage Door Opened syncing with Actual Garage Door!")
opener.on()
runIn(checkTimeout, checkIfActuallyOpened)
}
}
if("closed" == evt.value)
{
// contact was closed, turn off the light?
log.debug "Contact is in ${evt.value} state"
if (realgdstate != "closed")
{
log.debug "closing real gd to correspond with button press"
mysend("Virtual Garage Door Closed syncing with Actual Garage Door!")
opener.on()
runIn(checkTimeout, checkIfActuallyClosed)
}
}
}
private mysend(msg) {
if (location.contactBookEnabled) {
log.debug("sending notifications to: ${recipients?.size()}")
sendNotificationToContacts(msg, recipients)
}
else {
if (sendPushMessage != "No") {
log.debug("sending push message")
sendPush(msg)
}
if (phone1) {
log.debug("sending text message")
sendSms(phone1, msg)
}
}
log.debug msg
}
def checkIfActuallyClosed()
{
def realgdstate = sensor.currentContact
def virtualgdstate = virtualgd.currentContact
//log.debug "in checkifopen ... current state= $realgdstate"
//log.debug "in checkifopen ... gd state= $virtualgd.currentContact"
// sync them up if need be set virtual same as actual
if (realgdstate == "open" && virtualgdstate == "closed")
{
log.debug "opening virtual door as it didnt close.. beam probably crossed"
mysend("Resetting Virtual Garage Door to Open as real door didn't close (beam probably crossed)!")
virtualgd.open()
}
}
def checkIfActuallyOpened()
{
def realgdstate = sensor.currentContact
def virtualgdstate = virtualgd.currentContact
//log.debug "in checkifopen ... current state= $realgdstate"
//log.debug "in checkifopen ... gd state= $virtualgd.currentContact"
// sync them up if need be set virtual same as actual
if (realgdstate == "closed" && virtualgdstate == "open")
{
log.debug "opening virtual door as it didnt open.. track blocked?"
mysend("Resetting Virtual Garage Door to Closed as real door didn't open! (track blocked?)")
virtualgd.close()
}
}