Pool Systems Dashboard - Revision history

Matt Parnell: /* Graphs */

2025-06-30T18:45:53Z

Graphs

← Older revision		Revision as of 18:45, 30 June 2025
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	== Graphs ==		== Graphs ==

	~~=== ORP ===~~		To be updated.

	~~[[File:ORP Graph Example.png\|frame\|An example of an ORP graph.]]~~

	~~The ORP graph shows the ORP measurement over time. The graph shown contains two days worth of history. Certain events, marked by numbers, can~~ be ~~identified:~~

	~~# A valley indicates a ORP trend direction change. This typically occurs when chlorine is added to the pool.~~
	~~# Overshoot and leveling-off is common overnight, as a lack of UV (and to some extent, pool occupants) prevents the rapid breakdown of chlorine in the pool water.~~
	# Two events are identified in this marker. First, the gradual drop in ORP as the sun hits the pool (starting at about 7:30 am). Then, like in #1, a rise in ORP as chlorine is added to the pool. Overshoot is much lower in this instance, as the pool is occupied and mid-day sunshine contributes to rapid chlorine breakdown.

Matt Parnell: /* Gauges */

2025-06-30T18:44:24Z

Gauges

← Older revision		Revision as of 18:44, 30 June 2025
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	=== Filter Tank Pressure ===		=== Filter Tank Pressure ===

	~~[[File:Tank Pressure Gauge Example.png\|frame\|An example of a tank pressure gauge.]]~~

	Shows the pressure in pounds per square inch (psi) for a [[Sand Filters\|sand filter]] tank per the PLC [[Pool Systems Automation#Filter Tank Pressure\|Filter Tank Pressure]] measurement (via WiFi link).		Shows the pressure in pounds per square inch (psi) for a [[Sand Filters\|sand filter]] tank per the PLC [[Pool Systems Automation#Filter Tank Pressure\|Filter Tank Pressure]] measurement (via WiFi link).
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	=== Surge Tank Level ===		=== Surge Tank Level ===

	~~[[File:Surge Tank Depth Gauge Example.png\|frame\|An example of the surge tank level (depth) gauge.]]~~

	Shows the level (depth) in inches for the surge tank per the PLC [[Pool Systems Automation#Surge Tank Level\|Surge Tank Level]] measurement (via WiFi link).		Shows the level (depth) in inches for the surge tank per the PLC [[Pool Systems Automation#Surge Tank Level\|Surge Tank Level]] measurement (via WiFi link).
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	=== Out Flow ===		=== Out Flow ===

	~~[[File:Out Flow Gauge Example.png\|frame\|An example of the out flow rate gauge.]]~~

	Shows the out flow rate in gallons per minute (GPM).		Shows the out flow rate in gallons per minute (GPM).
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	=== Inlet Temperature ===		=== Inlet Temperature ===

	~~[[File:Inlet Temperature Gauge Example.png\|frame\|An example of the inlet temperature gauge.]]~~

	Shows the inlet temperature in degrees Fahrenheit (°F) per the temperature controller measurement (via WiFi link). This temperature is measured directly after the filter tanks, prior to the boiler loop (refer to the [[Process Flow Diagram]]).		Shows the inlet temperature in degrees Fahrenheit (°F) per the temperature controller measurement (via WiFi link). This temperature is measured directly after the filter tanks, prior to the boiler loop (refer to the [[Process Flow Diagram]]).
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	=== pH ===		=== pH ===

	~~[[File:pH Gauge Example.png\|frame\|An example of the pH gauge.]]~~

	Shows the sampled water pH per a [[Chemtrol Pool Controller]] measurement (via RS-485/Ethernet link).		Shows the sampled water pH per a [[Chemtrol Pool Controller]] measurement (via RS-485/Ethernet link).
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	=== ORP ===		=== ORP ===

	~~[[File:ORP Gauge Example.png\|frame\|An example of the ORP gauge.]]~~

	Shows the sampled water oxidation reduction potential (ORP) per a [[Chemtrol Pool Controller]] measurement (via RS-485/Ethernet link).		Shows the sampled water oxidation reduction potential (ORP) per a [[Chemtrol Pool Controller]] measurement (via RS-485/Ethernet link).

Matt Parnell: /* LCD Monitor */

2025-06-30T18:42:32Z

LCD Monitor

← Older revision		Revision as of 18:42, 30 June 2025
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	=== LCD Monitor ===		=== LCD Monitor ===

	~~As of 2021, the~~ monitor is an "old" HP Compaq LA2405x. This was an older surplus unit, ~~chosen for its scrap bin destiny~~. It's fully expected that this monitor may eventually fail due to the corrosive environment it's exposed to in the summer, along with a cold/damp/unconditioned environment in the winter. Replacement is straightforward; screws accessible on the bottom side release it from the VESA wall mount. Any monitor with HD or better resolution and an HDMI input should suffice.		The monitor is an "old" HP Compaq LA2405x. This was an older surplus unit, installed in 2021. It is/was fully expected that this monitor may eventually fail due to the corrosive environment it's exposed to in the summer, along with a cold/damp/unconditioned environment in the winter. That said, it's still going strong as of 2025. Replacement is straightforward; screws accessible on the bottom side release it from the VESA wall mount. Any monitor with HD or better resolution and an HDMI input should suffice.

	== Gauges ==		== Gauges ==

Matt Parnell: /* Software */

2025-06-30T18:40:51Z

Software

← Older revision		Revision as of 18:40, 30 June 2025
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	==== Grafana ====		==== Grafana ====

	In the Pi 5 refresh, the Chronograf/Kapacitor portion of the ~~InfluxdB~~ TICK stack were replaced with Grafana. This seems to be the preferred direction for InfluxDB 3 onward. Grafana ~~also~~ offers far more DB (input) hooks than Chronograf~~, so it seems to be a good choice going forward~~.		In the Pi 5 refresh, the Chronograf/Kapacitor portion of the InfluxDB TICK stack were replaced with [https://grafana.com/ Grafana]. This seems to be the preferred direction for InfluxDB 3 onward. Grafana offers far more DB (input) hooks than Chronograf.

	==== Node-RED ====		==== Node-RED ====

Matt Parnell: /* Software */

2025-06-30T18:40:05Z

Software

← Older revision		Revision as of 18:40, 30 June 2025
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	=== Software ===		=== Software ===

	All software operates on [https://www.raspberrypi.org/software/operating-systems/ Raspberry Pi OS] (the "~~Desktop~~" distribution), which is based on Debian GNU/Linux.		All software operates on [https://www.raspberrypi.org/software/operating-systems/ Raspberry Pi OS] (the "Lite" distribution), which is based on Debian GNU/Linux.

	==== InfluxDB ~~Platform~~ ====		==== InfluxDB ====

	[https://www.influxdata.com/products/influxdb-overview/ InfluxDB] is a time series database, used to store data collected by [https://www.influxdata.com/time-series-platform/telegraf/ Telegraf]. ~~The UI layer~~, [https://www.influxdata.com/time-series-platform/chronograf/ Chronograf]~~, is~~ used to display the data in a visually useful way on the dashboard. ~~Finally,~~ [https://www.influxdata.com/time-series-platform/kapacitor/ Kapacitor] is used to trigger actions based upon data values.		[https://www.influxdata.com/products/influxdb-overview/ InfluxDB] is a time series database, used to store data collected by [https://www.influxdata.com/time-series-platform/telegraf/ Telegraf].

			Previously, [https://www.influxdata.com/time-series-platform/chronograf/ Chronograf] was used to display the data in a visually useful way on the dashboard. [https://www.influxdata.com/time-series-platform/kapacitor/ Kapacitor] was used to trigger actions based upon data values.

			==== Grafana ====

			In the Pi 5 refresh, the Chronograf/Kapacitor portion of the InfluxdB TICK stack were replaced with Grafana. This seems to be the preferred direction for InfluxDB 3 onward. Grafana also offers far more DB (input) hooks than Chronograf, so it seems to be a good choice going forward.

	==== Node-RED ====		==== Node-RED ====

Matt Parnell: /* Hardware */

2025-06-30T18:36:03Z

Hardware

← Older revision		Revision as of 18:36, 30 June 2025
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	==== Raspberry Pi ====		==== Raspberry Pi ====

	The dashboard presently runs on a [https://www.raspberrypi.org/products/raspberry-pi-3-model-b/ Raspberry Pi 3 Model B] V1.2.		The dashboard presently runs on a [https://www.raspberrypi.com/products/raspberry-pi-5/ Raspberry Pi 5] (4 GB). The Pi hardware was upgraded in 2025; previously it ran on a [https://www.raspberrypi.org/products/raspberry-pi-3-model-b/ Raspberry Pi 3 Model B] V1.2.

	The ~~Raspberry~~ Pi is powered via a ~~micro~~ USB cable, connected to ~~a powered by~~ a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).		The Pi is powered via a modified USB-C cable, connected to a Mean Well DDR-15G-5. Note that previously, a a micro USB cable was used for the Pi 3B. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).

	Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller]] and [[Pool Boiler Temperature Controller\|Temperature Controller]] requires a functional WiFi device network.		Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller]] and [[Pool Boiler Temperature Controller\|Temperature Controller]] requires a functional WiFi device network.

Matt Parnell: /* Filter Tank Pressure */

2021-09-05T12:22:58Z

Filter Tank Pressure

← Older revision		Revision as of 12:22, 5 September 2021
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	\|18+		\|18+
	\|Yellow/Red		\|Yellow/Red
	\|[[Backwash]] Recommended		\|[[Backwashing\|Backwash]] Recommended
	\|}		\|}

Matt Parnell: /* Raspberry Pi */

2021-09-05T12:21:29Z

Raspberry Pi

← Older revision		Revision as of 12:21, 5 September 2021
Line 13:		Line 13:
	The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).		The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).

	Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller]] and [[Pool Boiler Temperature Controller\|~~temperature controller~~]] requires a functional WiFi device network.		Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller]] and [[Pool Boiler Temperature Controller\|Temperature Controller]] requires a functional WiFi device network.

	==== Lantronix PremierWave XN ====		==== Lantronix PremierWave XN ====

Matt Parnell: /* Raspberry Pi */

2021-09-05T12:21:16Z

Raspberry Pi

← Older revision		Revision as of 12:21, 5 September 2021
Line 13:		Line 13:
	The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).		The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).

	Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller] and [[Pool Boiler Temperature Controller\|temperature controller]] requires a functional WiFi device network.		Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller]] and [[Pool Boiler Temperature Controller\|temperature controller]] requires a functional WiFi device network.

	==== Lantronix PremierWave XN ====		==== Lantronix PremierWave XN ====

Matt Parnell: /* Raspberry Pi */

2021-09-05T12:21:05Z

Raspberry Pi

← Older revision		Revision as of 12:21, 5 September 2021
Line 13:		Line 13:
	The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).		The Raspberry Pi is powered via a micro USB cable, connected to a powered by a Mean Well DDR-15G-5. This device drops the 12 V chassis supply down to 5 V (for the Pi) and is capable of producing 15 W (3 A). This exceeds the 2.5 A requirement cited for the Pi. The internal WiFi radio is NOT used; instead, network connectivity is provided by Ethernet (to the Lantronix PremierWave XN).

	Communication with the ~~PLC~~ and temperature controller requires a functional WiFi device network.		Communication with the [[Pool Systems Automation#Programmable Logic Controller\|Programmable Logic Controller] and [[Pool Boiler Temperature Controller\|temperature controller]] requires a functional WiFi device network.

	==== Lantronix PremierWave XN ====		==== Lantronix PremierWave XN ====