IoT brings meters, sensors and devices onto a single network. Voltie reads that data live, tells you when a threshold is crossed, and uses schedules to start and stop devices while you are nowhere near the site.
IoT Energy Hub › Analysis · shown with sample dataScroll sideways to see the whole screen
Data from the devices in the field becomes useful in four steps, and you control those devices from the same panel.
Devices and sensors in the field connect to Voltie; the energy they use and their running status are read live.
No need to be on site. You watch live from the dashboard and switch devices on and off from there.
The collected data is analyzed continuously; anything abnormal reaches you by dashboard notification, SMS and email.
Devices run themselves according to the scenario you set — nobody has to press a button.
Measuring device by device and line by line shows which line carries the largest share during the 6.3 — energy review; the data collection plan 6.6 asks for is built on top of that measurement.
Efficiency doesn’t stop at watching a device; running it at the right hour matters just as much. You set the schedule once and the rest takes care of itself.
Lighting, compressors or air conditioning stop by themselves at the end of the day and come back on in the morning.
Outdoor lighting follows the sun rather than the calendar, so you never adjust the times as the seasons change.
Set up summer and winter scenarios separately and have the system switch between them as the site’s load changes.
The Control tab — where you switch a device on and set its schedule · shown with sample dataScroll sideways to see the whole screen
Knowing the total consumption isn’t enough. The dashboard shows every component of the three-phase (A, B, C) system separately, catching a fault before it happens — so you avoid downtime, production disruption and repair costs.
Per-phase voltage is monitored live, so deviations on the grid are caught immediately.
Example: 295 V on phase B is a serious risk to your equipment. Overvoltage shortens equipment life, causes failures and puts system safety at risk.
Energy consumed over the range you select is tracked, revealing your usage pattern.
Observation: if the chart shows consumption rising in the morning and evening, that can be tied directly to production processes or how busy the site is.
Active power is read separately for each phase, which is how you judge whether the system is balanced.
Example: if phase B carries 42.5% of the total load, the phases are unbalanced. Over time that degrades transformer performance and wastes energy.
How per-phase current moves over time, making sudden spikes and irregularities visible.
Analysis: sudden current surges on phase B may relate to high power draw. They point to overloading or unplanned consumption.
Voltage, current and power for every phase, summarized in one table.
For an electrical engineer this is the direct reference point for reactive power management, phase balancing and preventive maintenance planning.
A warning is raised the moment a threshold you set is crossed, so you see the danger as it happens rather than afterwards.
Harmonic distortion pushed back into the grid is measured phase by phase, making it visible which line the non-linear loads are polluting.
Example: if current harmonic distortion goes past the 8% limit, loads such as drives, inverters and UPS units are straining the network. They heat the transformer and cabling for nothing and shorten the life of your compensation capacitors.
Temperature on the panel and the line is read continuously, so a loosening terminal or an overloaded cable is spotted the moment it starts running hot.
Early warning: if a line that sits around 53 °C all day pushes up against the 65 °C warning threshold, something in the connection is under strain. You intervene before it reaches the 93 °C critical limit — heading it off before the insulation degrades and before there is any risk of a panel fire.
The Analysis tab looks at the device; the Overview tab looks at the business. What you have spent month to date, where the bill is heading, which department is eating the money — all on one screen.
kWh accumulated month to date, so you can see how much you have used by this point in the month.
An all-in forecast with the average ₺/kWh beside it. You know the number before the bill arrives.
The gap between the kWh your IoT devices measure and the main meter. That gap is load you cannot see yet; as it closes, you can attribute the whole bill to departments.
Which department spent the most this month — in kWh and in ₺.
Whether a penalty formed this period and whether you are within the inductive and capacitive limits. Answered at a glance.
Calculated automatically from consumption using a kgCO₂e/kWh factor — no separate bookkeeping needed.
The Overview tab · shown with sample dataScroll sideways to see the whole screen
How the main meter has trended over the last 12 months. Compare with the same month last year and see your seasonal pattern.
The last 30 days of alerts stream in live — what happened, when and where, in one list.
Broken down by location and department. Production, cooling, lighting and offices each show separately.
Put two subscribers or two devices side by side and compare consumption, billing and reactive figures.
Leave your work email and we’ll get back to you. We’ll go through your facility’s consumption together and show you where the savings are.
Have a look at the frequently asked questions.
Frequently asked questions →