Remote Pump Monitoring Dashboard for Pressure Flow Level and Motor Current

A pump station can look fine from the outside while wasting power, losing water, running dry, or heading towards a breakdown. The problem is simple: the most useful signals often sit in different places. Level might be in a tank, pressure on a rising main, flow in a pipeline, and motor current inside a switchboard.

When those readings stay separate, operators get fragments. When they come together on one screen, the pump station starts to tell a clear story.

A remote pump monitoring dashboard brings four key measurements into one view:

```text

Level Sensor

Pressure Sensor

Flow Meter

Motor Current / Energy Meter

↓

RTU / Gateway

↓

ProSight

```

For water, irrigation and wastewater systems, this setup gives operators a practical way to see what the pump is doing, what the network is receiving, and whether energy is being used efficiently.

A remote pump station becomes easier to manage when field data reaches one dashboard.

Why one dashboard matters for pump monitoring

Most pump faults are not difficult to understand once the right data is visible. A pump that draws high current but delivers low flow may be blocked, worn, air-locked, or pushing against a closed valve. A pump that runs while the suction level is low may be close to running dry. A pump that delivers pressure but little flow may be fighting a restriction.

The hard part is seeing those signals together.

A single dashboard helps operators compare cause and effect in real time. Instead of checking one system for tank level, another for flow and another for electrical data, the dashboard places the main operating conditions side by side.

That matters because pumps are connected machines. Pressure, flow, level and motor current all influence each other. Reading any one value on its own can lead to the wrong conclusion.

For example:

• High pressure with low flow may point to a closed valve or blocked pipe.

• Low pressure with high flow may suggest a burst, open hydrant, or irrigation zone demand.

• High current with normal flow may indicate mechanical friction, bearing wear, or a motor issue.

• Falling tank level while the pump is running may show demand is greater than supply.

• Frequent starts and stops may point to control issues, incorrect setpoints, or a small operating band.

  
  

A remote pump monitoring dashboard for pressure flow level and motor current turns this information into one operating view. That helps with fault finding, energy checks, reporting and daily decisions.

The complete remote monitoring system

A complete pump monitoring system has three main layers. The field instruments measure what is happening. The RTU or gateway collects and sends the data. ProSight displays the information, trends it, and alerts the right people when readings move outside expected limits.

Field sensors capture the real conditions

The monitoring starts at the pump station, reservoir, bore, wet well, channel or pipeline.

The common inputs are:

Measurement	Typical device	What it helps reveal
Level	Ultrasonic, radar, hydrostatic or float-based level sensor	Tank level, wet well depth, bore level, channel level, pump run permission
Pressure	Pressure transmitter	Discharge pressure, suction pressure, line pressure, pressure loss
Flow	Magnetic, ultrasonic, insertion or mechanical flow meter	Pump output, water delivered, leakage clues, irrigation volume
Motor current or energy	Current transformer, power meter or energy meter	Pump load, run status, efficiency trend, abnormal electrical demand

The best mix depends on the site. A wastewater pump station may need wet well level, discharge pressure, flow and motor current. An irrigation bore may need bore level, mainline pressure, flow and energy use. A treated water boost station may need suction pressure, discharge pressure, flow and pump current.

The aim is not to install every possible instrument. The aim is to install the signals that explain how the pump performs.

The RTU or gateway connects the site

The RTU or gateway sits between the instruments and the dashboard. It reads sensor signals, packages the values, and sends them to ProSight over the available communications link.

Depending on the site, signals may arrive as:

• Analogue inputs, such as 4 to 20 mA level or pressure

• Digital inputs, such as pump run status or fault contacts

• Pulse inputs, such as flow total pulses

• Serial or Ethernet data, such as Modbus from an energy meter

• Control outputs, where remote start, stop or reset is approved and designed safely

  
  

For remote water and irrigation sites, communications may use cellular, radio, NBN where available, or a site network. Wastewater facilities may already have telemetry cabinets or SCADA equipment that can share signals with a gateway.

A good RTU setup also deals with real field conditions. It should handle power interruptions, signal noise, poor coverage, enclosure temperatures and temporary communication dropouts. Local logging is useful because it can retain readings until the connection returns.

Sensors and gateways turn pump station conditions into usable data.

What each measurement adds to the dashboard

A pump dashboard becomes useful when each signal has a clear purpose. Too many values can create clutter. Too few can hide the cause of a problem.

The four core measurements give a balanced view of hydraulic and electrical performance.

Level shows whether the pump has enough supply

Level is often the first signal to check. It tells the system whether the pump has enough water to run, whether a tank is filling or draining, and whether a wet well is rising faster than expected.

In a clean water system, level can show reservoir storage, tank turnover and low-level risk. In irrigation, it may show sump, channel or bore conditions before a pump starts. In wastewater, wet well level is central to pump control and overflow prevention.

Useful dashboard items include:

• Current level in metres or percentage

• High and low level alarms

• Rate of level change

• Pump start and stop levels

• Time above high level or below low level

  
  

Level also gives pressure and flow readings context. A low suction level can explain poor pump output or unstable pressure. A high wet well level during pump operation may show the pump is not keeping up with inflow.

Pressure shows the load on the network

Pressure tells operators what the pump is pushing against. It is one of the clearest ways to check whether the downstream system is behaving as expected.

Pressure can rise when valves close, filters block, mains restrict, or irrigation zones shut. It can fall when demand increases, pipelines break, suction is poor, or the pump loses prime.

A pressure trend is often more useful than a single reading. A slow rise across days may point to fouling or filter loading. A sudden drop may point to a burst or a major demand change. Repeated pressure spikes may show valve slam, control instability or water hammer risk.

Dashboard displays may include:

• Suction pressure and discharge pressure

• Pressure setpoint and actual pressure

• High and low pressure alarms

• Pressure trend during pump start

• Pressure difference across filters or screens

  
  

Where variable speed drives are used, pressure also helps show how well the control loop is holding the setpoint.

Flow shows what the pump actually delivers

Flow is the reality check. A pump can run, draw current and build pressure, but the key question remains: how much water or wastewater is moving?

Flow helps confirm delivery to a tank, irrigation area, treatment process or discharge line. It also supports volume reporting, licence conditions, billing, water balance work and pump performance checks.

In irrigation, flow can confirm whether a block or zone is receiving the expected rate. In water supply, it can show demand patterns and transfer volumes. In wastewater, it can show pump station output and abnormal inflow behaviour after rain.

Useful flow views include:

• Instantaneous flow rate, such as L/s

• Daily, weekly or monthly total volume

• Flow per pump run

• Low-flow alarm when the pump is on

• No-flow alarm after a start delay

  
  

Low flow while the pump is running is one of the most valuable alarms in remote pump monitoring. It can catch blocked suction, closed valves, failed couplings, blocked impellers and air problems before operators discover the issue by loss of service.

Motor current and energy show the electrical effort

Motor current tells the dashboard how hard the motor is working. Energy data adds a longer-term view of consumption, cost and pump efficiency.

Current can help identify:

• Pump running status

• Overload conditions

• Dry run behaviour

• Jammed or blocked pumps

• Worn mechanical components

• Changes in operating load

  
  

Energy meters can record kW, kWh, voltage, current, power factor and run hours, depending on the meter. This helps compare one pump against another, track energy use by site, and detect changes in performance over time.

A pump that slowly uses more energy to deliver the same flow deserves attention. The cause may be mechanical wear, pipe restrictions, changes in suction level or operating outside the preferred duty range.

Flow and pressure readings explain what the pump is delivering to the network.

How ProSight turns readings into decisions

Once data reaches ProSight, the dashboard should be arranged around real operating questions.

A clear pump dashboard might show:

• Pump run status

• Current level, pressure, flow and motor current

• Energy use and run hours

• Alarm state

• Trends over the last hour, day and week

• Total volume pumped

• Communication and power status

• Site map or asset list

• Event history

  
  

The most useful dashboards avoid clutter. They place the key live values at the top, trends nearby, and alarms where they cannot be missed.

Alarms need context, not just limits

Simple high and low alarms are helpful, but pump monitoring improves when alarms use relationships between signals.

Examples include:

Alarm condition	Why it matters
Pump on, no flow	The pump may be blocked, air-locked, isolated or failed mechanically
Pump on, high current	The motor may be overloaded or the pump may be jammed
Pump on, low current	The pump may be running dry or not loaded correctly
High level, pump running	Inflow may exceed pumping capacity or the pump may not be moving enough flow
High pressure, low flow	The discharge line may be restricted or a valve may be closed
Low pressure, high flow	There may be a major leak, burst, or open demand point
Rising energy per kilolitre	Pump efficiency may be falling or operating conditions may have changed

Good alarm design reduces nuisance alerts. A short delay after pump start can prevent false no-flow alarms while pipes fill. Deadbands can reduce repeated alarms around a threshold. Escalation can send alerts to different people if the first response is missed.

Trends make small changes visible

Live values help with immediate decisions. Trends help with maintenance planning.

A weekly or monthly trend can show that a pump is taking longer to fill a tank, drawing more current, or producing less flow at the same pressure. These changes may be gradual, so they are easy to miss during routine site visits.

Trend data can help answer practical questions:

• Is the pump curve changing over time?

• Are filters or screens blocking faster than expected?

• Are irrigation zones using the intended volume?

• Does wet weather increase inflow at wastewater pump stations?

• Is one pump doing more work than the duty cycle suggests?

• Are night flows higher than expected?

  
  

When level, pressure, flow and motor current sit on the same time axis, the cause of an event is easier to trace.

Practical uses in water, irrigation and wastewater

Remote pump monitoring fits many types of sites, but the value changes by application.

Water supply and transfer pumping

For treated water and raw water transfer, the dashboard helps confirm that pumps are filling tanks, maintaining pressure and moving the planned volume.

Typical uses include:

• Tank filling verification

• Low suction protection

• Transfer volume tracking

• Pump duty comparison

• Pressure alarm monitoring

• Energy use review

  
  

Operators can see whether a pump is moving enough water before storage becomes critical.

Irrigation pump systems

Irrigation systems often run across large areas, with pumps, filters, valves and channels spread across farms or supply districts. Remote monitoring cuts down unnecessary site checks and helps protect pumps during changing water conditions.

Useful views include:

• Bore, sump or channel level

• Mainline pressure

• Flow by irrigation shift

• Energy per megalitre

• Pump current during starts

• Filter pressure difference where fitted

  
  

If the pump runs but flow is lower than expected, the dashboard can help identify whether the issue is water availability, filter blockage, pressure control, valve state or pump performance.

Wastewater pump stations

Wastewater stations need reliable level control and fast fault response. Wet well level, pump run status, discharge pressure, flow and current provide a strong picture of station health.

The dashboard can help detect:

• Pump failure to start

• High wet well level

• Blocked or ragged pumps

• Rising main restrictions

• Excess inflow after rain

• No-flow while running

• Unusual current draw

  
  

For unattended sites, this early warning is often the difference between planned maintenance and an urgent callout.

Wastewater pump stations benefit from level, flow, pressure and current monitoring in one place.

What to check before installation

A successful monitoring project starts with clear site information. Before choosing sensors or building the dashboard, confirm the operating goal.

Useful questions include:

• What is the pump supposed to achieve?

• Which failures cause the biggest risk or cost?

• Which readings already exist on site?

• Are spare inputs available in the RTU or control panel?

• What communication options are reliable at the location?

• Does the site have stable power?

• What alarms need immediate response?

• Who receives alerts after hours?

• What reports are needed for operations, water use or compliance?

  
  

Sensor placement also matters. A pressure transmitter in the wrong location can hide suction problems or exaggerate discharge pressure. A flow meter needs suitable pipe conditions for accurate readings. Level sensors need protection from turbulence, foam, ragging or build-up, depending on the application.

Electrical monitoring should be designed and installed by qualified people. Motor current and energy measurements involve switchboards and live electrical equipment, so safety and local standards come first.

What a well-built dashboard should show at a glance

The best pump dashboards are simple enough for a quick check and detailed enough for fault finding.

At a glance, an operator should be able to see:

• Is the pump running?

• Is there enough level to run safely?

• Is pressure within the expected range?

• Is flow present and sensible?

• Is motor current normal?

• Is energy use changing over time?

• Are any alarms active?

• Has communication been lost?

  
  

That short list covers most daily questions. Deeper views can then show trends, reports, event logs and individual sensor details.

The result is better awareness without overloading the screen.

Bring the pump story into one view

A pump station is more than a motor and a pipe. It is a connected system where water level, pressure, flow and electrical load all tell part of the story.

When those signals travel through an RTU or gateway into ProSight, operators can see the whole picture from anywhere with access. They can respond sooner, compare performance over time, and make better maintenance decisions.

For water, irrigation and wastewater sites, the strongest dashboard is not the one with the most data. It is the one that shows the right data together, clearly enough to act before a small issue becomes a site failure.