Every water asset, digitized
Eight technology areas, one practical idea: digitize what your plant, network and control systems already know, and make that data accessible for faster analysis, remote monitoring and control, and easier decisions. The approach is built for Canadian municipalities, water utilities, industrial and energy operators, and remote and rural communities, and we apply it in international markets too.
Do not replace what works. Connect it, extend it and make the data more useful.
Most water and industrial facilities already have working assets: PLCs that have run reliably for years, a SCADA system the operators know, instruments that are still within calibration. Ripping those out to chase a new platform adds cost, risk and retraining, and it rarely solves the real problem, which is that the information is hard to reach and harder to trust. Good digitalization fixes that problem without adding to it.
FlowVexa starts from the process and the operational question, then selects the lightest technology that answers it. Sometimes that is a gateway reading existing PLC registers. Sometimes it is a battery-powered LoRaWAN sensor at a site that has never had telemetry. Sometimes it is a better alarm philosophy and no new hardware at all.
Our working method follows four verbs: Understand the process and the challenge; Connect sensors, meters, PLCs and SCADA; Analyze the data to produce trends, KPIs and alarms; and Improve reliability, efficiency, maintenance and decisions.
Technology that suits how Canadian water systems run
FlowVexa is a Calgary-based Canadian company. We work with municipalities, water utilities, industrial and energy operators, and remote and rural communities, and bring international experience, notably from Saudi Arabia, to every design.
Cold-climate operation
Field devices, enclosures and batteries must cope with freezing temperatures. We account for freeze protection, enclosure heating and cold-rated equipment when selecting and placing devices.
Distance and remote sites
Long distances between assets and communities make wiring costly. Telemetry, LoRaWAN and cellular IoT often reach sites where a cable run is not realistic.
Aging infrastructure
Many systems combine long-lived assets with newer equipment. Digitizing what exists, and adding data where it is missing, helps teams plan renewal with better evidence.
Data and reporting
Operators answer to provincial reporting requirements and often have data-residency questions. We design records and reports to support your obligations, and Canadian hosting is an option.
Cold weather, long distances and aging assets shape how we digitize, from day one.
From asset to insight
Every digitalization project we scope maps onto the same five layers. The detail changes between a municipal pumping network and an industrial RO plant, but the flow of information, and the need to protect it, stays the same.
Connect at the edge
Existing PLCs, RTUs and SCADA stay in place. Gateways read from them, buffer data during outages and publish it in open formats. New sites can join over LoRaWAN or cellular.
Organize in the platform
A historian and network server give every signal a consistent name, unit and timestamp. The platform can sit on-premises, in the cloud or in both, depending on your policies.
Act in the applications
Dashboards, alarms, KPIs, digital O&M tools, analytics and AI models turn data into work orders, adjustments and plans that people can trust and review.
Choose the layer that solves your problem
Each area digitizes a different part of the operation, stands on its own and combines with the others. Select a topic to see what we connect, the challenges we usually meet and how we approach them.
From digitized assets to operational intelligence
Water facilities generate large amounts of operational data. The challenge is to digitize it, make it accessible and turn it into information that people can act on.
In a typical utility or plant, flows sit in one PLC, pressures in a logger, water-quality readings on a handheld meter and pump hours in a spreadsheet. Each source is correct on its own. Together, they are hard to compare, hard to trend and almost impossible to review at the moment a decision is due.
Digital water is the practical layer that connects field equipment, instrumentation, PLCs, SCADA systems and modern IoT devices into one coherent picture. We design it around the questions operators and managers actually ask. Is the network stable? Which pump is drifting from its curve? Where is water being lost? Are we meeting quality targets this shift, not next month?
The aim of digitalization is simple: right information, right people, right time.
What we connect and monitor
- Real-time and remote monitoring of plants, pumping stations, reservoirs and unmanned sites
- Flow, pressure and tank level across distribution and transfer networks
- Water quality parameters such as turbidity, pH, conductivity and residual chlorine
- Pump and energy monitoring: run status, power and specific energy per cubic metre
- Smart metering for bulk, district and customer meters
- Operational dashboards and KPI management by role and site
- Alarm management with priorities, escalation and history
- Digital O&M: inspections, work records and maintenance history in one place
Illustrative dashboard
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Data scattered across PLCs, loggers and paper rounds | One platform with consistent tag names, units and timestamps, built on the instruments you already own. |
| Problems discovered only after customers or inspectors report them | Threshold and rate-of-change alarms, prioritized and routed by role, with a clear history of what happened. |
| Reporting that takes days of manual work, including provincial regulatory reports | Automated KPI calculation and scheduled reports, with data records organized to support the reporting your jurisdiction requires. |
| Unclear where to invest next | Trends and comparisons that show which assets, zones or plants deserve attention first. |
Outcomes to expect
- Earlier awareness of abnormal conditions
- Less manual data collection and re-entry
- A shared view for operations, maintenance and management
- A measured baseline against which improvements can be shown
Connect existing infrastructure to the digital world
IIoT digitizes equipment and operational data without necessarily replacing existing control infrastructure.
Industrial IoT is often described as new sensors on everything. In practice, most of the value for a water operator comes from the other direction: getting reliable data out of equipment that is already installed. Pumps, motors, valves and meters already produce signals. PLCs and RTUs already collect many of them. IIoT is the method for moving that data, securely and in a structured way, to where it can be used.
We use three patterns. First, read from what exists: an edge gateway polls PLC registers or an OPC UA server, with read-only access until the value is proven. Second, add what is missing: a clamp-on flow meter, a current transformer, a vibration or temperature sensor, installed beside the existing control loop and not inside it. Third, buffer at the edge: gateways store data when the link drops and forward it when it returns, so gaps are the exception.
The result is a foundation for remote monitoring, analytics and intelligent maintenance, built around the equipment mix you actually have, whatever its age or manufacturer.
What we connect
- Pumps and motors: run state, speed, current, power, and vibration or temperature where practical
- Valves: position feedback, open and closed status, actuator alarms
- Tanks and reservoirs: level, overflow and low-level conditions
- Flow meters and pressure sensors: instantaneous and totalized values
- Level and water-quality instruments: pH, ORP, conductivity, turbidity, residual chlorine
- Energy meters: consumption and demand by asset or area
- PLCs, RTUs and SCADA systems: as sources of process data and alarms
Protocols and interfaces
- OPC UA
- MQTT
- Modbus RTU
- Modbus TCP
- DNP3
- HART
- 4–20 mA
- Pulse outputs
- REST APIs
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Mixed vendors and equipment of different ages | Protocol gateways and a common data model, so a pump looks the same in the platform whatever controls it. |
| Fear of touching a control system that works | Read-only integration first, change-managed and documented, with the control logic left alone. |
| Unreliable links to remote sites and harsh winter conditions | Store-and-forward at the edge, timestamps taken at the source, and cold-rated or heated enclosures where field devices face freezing temperatures. |
| Pilots that never scale | Naming, security and architecture decided up front, so the tenth site takes less effort than the first. |
Outcomes to expect
- Remote visibility of equipment that was previously local only
- A usable data foundation for analytics and maintenance planning
- Lower risk than a control-system replacement
- A structure that extends to new sites and new sensors
Long-range connectivity for distributed assets
LoRaWAN provides long-range, low-power communication suited to many water and infrastructure applications. We position it as a complement to SCADA and telemetry, not a replacement.
Water assets are spread out: meters in every street, level sensors on elevated tanks, pressure points in valve chambers, pumps at the edge of the network. Wiring them or giving each a cellular modem is often uneconomical. LoRaWAN fills that gap. A device sends a small message, one or more gateways within range receive it, and a network server de-duplicates, decrypts and forwards it to your platform.
For Canadian operators, the fit is often strong. Small and rural communities, long pipelines and widely spaced reservoirs mean many sites sit far from the nearest control building. Battery-powered sensors reduce the need for trenching and power supply, though in cold climates we check battery chemistry and enclosure choice against winter temperatures, which reduce battery capacity.
It suits data that is small, periodic and not time-critical: meter reads, levels, pressures, temperatures, status flags and alarms. It does not suit closed-loop control, large payloads or anything that needs guaranteed low latency. Those jobs stay with your PLCs, SCADA and wired or licensed radio links, which is why LoRaWAN extends your telemetry rather than competing with it.
We help with the engineering that determines success: choosing device classes, setting reporting intervals against battery life, planning gateway placement and coverage, and bringing the data into your SCADA, historian or analytics environment.
Applications
- Smart water meters for automated meter reading
- Pressure monitoring at hydrants, valve chambers and district boundaries
- Tank-level monitoring for reservoirs, break tanks and chemical day tanks
- Remote pumping stations: run status, alarms and key readings
- Leak monitoring with acoustic or pressure-based sensors
- Environmental sensors for rainfall, soil moisture and temperature
- Agricultural water monitoring across wide irrigation areas
- Distributed infrastructure such as manhole and overflow level sensing
- Equipment condition monitoring for non-critical rotating assets
Technical building blocks
- Class A
- Class B
- Class C
- Adaptive data rate (ADR)
- OTAA activation
- AES-128 encryption
- Gateways
- Network server
- Public or private network
- 902–928 MHz in Canada
Class A devices transmit when they have data and open short receive windows afterwards, which gives the lowest power use. Class B adds scheduled receive slots synchronized by gateway beacons. Class C listens almost continuously and suits mains-powered devices.
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Remote sites with no power or communications | Battery-powered sensors on a gateway network, sized for the reporting interval each use case really needs. |
| Coverage uncertainty before committing to hardware | Gateway placement planning and field coverage checks, then a pilot that proves the link budget. |
| Adding hundreds of small points overloads the SCADA system | A network server and integration layer that delivers selected values and alarms to SCADA or the historian. |
| Using the wrong technology for the job | A clear line between what LoRaWAN should carry and what stays on PLCs, wired links or licensed radio. |
Outcomes to expect
- Telemetry reaching sites that were uneconomical to wire
- Low installation effort and low-maintenance field devices
- Wider visibility of pressure, level and consumption
- Data that complements, and does not duplicate, existing SCADA
Connect physical assets with digital information
RFID gives every physical asset a digital identity, so organizations can identify and track each one and connect it with the information that matters.
A plant can have thousands of assets: pumps, motors, valves, instruments, electrical gear, tools and spares. Too often, the knowledge about them lives in people's heads, in paper files or in inconsistent spreadsheets. When a pump trips at night, the person on call may not know which motor it uses, when it was last serviced or whether a spare is in stock.
RFID gives each asset a durable identity. A tag carries a unique identifier; a handheld or fixed reader captures it; and that identifier becomes the key to the asset's record in your register or maintenance system. Scan a tag, and the technician sees the history. Record an inspection, and it is attached to the right asset without retyping.
RFID provides identity, not measurement. Condition comes from linking that identity with SCADA tags, sensors and inspection results. That is why we treat RFID as part of a smart asset management approach, not as a standalone gadget.
- IdentityUnique tag ID and asset record
- LocationWhere the asset is installed or stored
- InspectionRoutine checks logged at the asset
- MaintenanceWork orders, parts and repairs
- HistoryA continuous record over the asset's life
- ConditionLive data and inspection findings combined
Assets we help identify and track
- Pumps and motors, linked to nameplate data and service history
- Valves and actuators, including those in chambers and pits
- Instruments with calibration dates and certificates
- Electrical equipment such as panels, drives and starters
- Tools and maintenance equipment with check-out records
- Spare parts for stock location and replenishment
- Mobile assets such as portable pumps, analyzers and test equipment
Technology choices
- Passive UHF
- HF / NFC
- Metal-mount tags
- Rugged, weather-rated tags
- Handheld readers
- Fixed portals
- Mobile apps
- Barcode and QR backup
Tag type depends on read range, the surface it is mounted on (metal and wet surfaces affect read performance), environmental exposure and whether technicians read by hand or at a fixed point. Barcodes and QR codes remain a low-cost companion where they are enough.
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Assets named differently in each system | A simple asset hierarchy and naming standard, applied once and reused by SCADA, maintenance and reporting. |
| Maintenance history on paper or in memory | Digital records attached to each tag, accessible from a phone or handheld at the asset. |
| Spare parts and tools that cannot be found | Tagged stock and equipment with location and check-out tracking. |
| Inspections that are hard to prove | Scan-to-inspect workflows that timestamp the visit and capture findings at the asset. |
Outcomes to expect
- A reliable register of what you own and where it is
- Faster fault-finding with history at the point of work
- Better evidence for inspections and compliance records
- A practical foundation for digital O&M and predictive maintenance
Connect the field to the control room
Many facilities already have functioning PLC and SCADA systems. Our philosophy is to extend them, not discard them, and to open them to secure remote monitoring and control.
Control systems are the operational heart of a water or industrial facility. PLCs execute the logic. HMIs give local operators a view of each machine. SCADA collects the whole picture, stores history and raises alarms. When these are well designed and documented, they are an asset worth building on.
Our work covers instrumentation, PLC and RTU application support, HMI and SCADA improvement, telemetry, process control, data acquisition, remote monitoring and the industrial communications that tie them together. We pay particular attention to the seams: the protocol gateway that makes an old PLC readable, the alarm list that has grown unmanageable, or the remote site that nobody can see until it fails.
Where replacement is genuinely justified, for example because equipment is unsupported or a safety function is at risk, we help scope a staged migration that keeps the plant running. Where it is not, we make the existing system more useful.
Scope of support
- PLC and HMI application review, documentation and improvement
- SCADA screens, trends, historian and reporting
- Instrumentation selection, signal checking and loop documentation
- RTU and telemetry for remote stations and reservoirs
- Process control strategies for pumping, dosing, filtration and RO
- Data acquisition and remote monitoring across sites
- Alarm management: rationalization, priorities and escalation
- Industrial communication and control system integration
- P1Reservoir 2 level high-highUnacked
- P2Booster pump 3 tripAcked
- P3Residual chlorine lowActive
- P4Panel door open, Site 7Shelved
Illustrative alarm list
Industrial communication
- OPC UA
- Modbus TCP
- Modbus RTU
- DNP3
- MQTT
- Ethernet and fibre
- Serial RS-485
- BACnet (building systems)
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Legacy PLCs with proprietary or serial protocols | Protocol gateways and OPC UA or MQTT bridges that expose data without altering control logic. |
| Alarm floods that hide the alarms that matter | Alarm review using the concepts in ISA-18.2: purpose, priority, expected response and consequence for each alarm. |
| Separate SCADA islands at every site | Consistent tag naming and a central view, so operators see one network rather than many. |
| Inconsistent HMI screens and hard-to-read graphics | Clear, consistent screen conventions that make abnormal conditions stand out. |
Outcomes to expect
- Control-room visibility of every site, including remote ones
- More manageable alarms and quicker operator response
- Documented systems that are easier to support
- A staged path to modernization without a forced shutdown
From measurements to decisions
Digitized operational data becomes valuable when it helps people make better decisions.
A trend of raw readings is not analytics. Analytics starts with data you can trust, calculates what the readings mean, and presents the result to the person who must act. For a plant manager, that may be a daily view of specific energy and availability. For an operator, a trend showing that a pressure is creeping. For a maintenance planner, a ranked list of assets that behave differently from the rest.
We organize and visualize process, water-quality, energy and equipment information so it can be compared across time, assets and sites. That begins with the unglamorous work: checking units, scaling, time synchronization, instrument drift and gaps, because analytics built on bad data produces confident mistakes.
From there, we define KPIs with the people who use them: for example, specific energy per cubic metre, pump availability, alarm rate per operator or, in RO systems, normalized permeate flow and differential pressure across stages. The goal is a small set of measures that are understood, owned and acted upon.
What we measure and analyze
- Flow
- Pressure
- Level
- Temperature
- pH
- ORP
- Conductivity
- TDS
- Residual chlorine
- Energy consumption
- Pump status
- Equipment performance
Analyses that support decisions
- KPI monitoring by site, process train and period
- Performance trends that show gradual change before a limit is reached
- Alarm analysis: most frequent, longest-standing and nuisance alarms
- Operational anomalies flagged for human review
- Maintenance decisions supported by run hours, trends and fault history
Illustrative dashboard
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Data of uncertain quality | Validation rules, instrument health checks and clear flags for suspect or missing values. |
| Dashboards full of charts and short of answers | KPIs defined with operators and managers, each with an owner and a clear threshold for action. |
| Maintenance on a fixed calendar, not on condition | Trends in run hours, current, vibration and performance that support condition-based planning. |
| No common basis to compare sites or process trains | Normalized indicators and a shared data model that make comparisons fair. |
Outcomes to expect
- Trusted numbers that teams use in daily decisions
- Earlier visibility of gradual performance loss
- Evidence for energy, chemical and maintenance planning
- Less time spent assembling reports, more spent acting on them
Moving from reactive to predictive operations
Artificial intelligence and analytics can add another layer of intelligence above conventional monitoring. The objective is not AI for its own sake: it is earlier detection, better decisions and improved reliability.
A fixed alarm limit tells you when something has already gone wrong. A model of normal behaviour can tell you when something is starting to change: a pump drawing slightly more power for the same flow, a membrane stage losing normalized permeate flow, a dosing pump whose response is slowing. That earlier warning is where predictive maintenance earns its place.
We apply AI where it adds something a threshold cannot, and start with simpler methods where they are enough. Baselines and statistical limits often catch the first set of problems. Machine-learning models then help with patterns across many signals, or with failure signatures that only appear in history. Every model is advisory: it explains which signals drove an alert, and operators and engineers decide what to do.
Good results depend on the foundation. Models need reliable sensors, sufficient history, and records of what happened and what was done. That is why AI sits above the data work described in the earlier sections, not in place of it.
Applications
- Equipment condition monitoring for pumps, motors, blowers and drives
- Pump performance analysis: deviation from the expected flow, head and power relationship
- Abnormal condition detection across multiple signals at once
- Failure pattern identification from maintenance and alarm history
- Energy optimization: scheduling and operating points that reduce kWh per m³
- Process optimization: dosing, aeration and RO operating strategies
- Maintenance prioritization that ranks work by risk and condition
- Operational trend analysis over weeks and seasons
Illustrative signal, not measured data
From monitoring to prediction
- Monitor
- Detect
- Diagnose
- Predict
- Optimize
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| AI proposed before the data foundation exists | We assess sensor coverage, data quality and event records first, and say plainly when more groundwork is needed. |
| Alerts without context | Alerts that show the contributing signals, recent history and suggested checks, so engineers can judge them quickly. |
| Reactive maintenance and unplanned downtime | Condition-based prioritization that uses trends and failure history to plan work before breakdown. |
| Distrust of black-box models | Transparent methods, human review of every recommendation, and a clear boundary between advice and control. |
Outcomes to expect
- Earlier detection of developing equipment and process problems
- Better-informed maintenance and operating decisions
- Improved reliability through planned, not forced, interventions
- A realistic AI roadmap tied to operational value
Protecting connected infrastructure
As operational systems become more connected, cybersecurity becomes more important. Digitalization must be matched by responsible protection of those systems and the critical infrastructure they serve.
Operational technology has different priorities from office IT. Availability and safety come first, equipment lives for decades, patching windows are narrow, and some devices cannot be updated at all. Connecting these systems for remote monitoring or analytics widens the exposure, so security has to be designed in from the start, not added after the first incident.
Our approach draws on established ideas from recognized frameworks, such as the zone-and-conduit model in the ISA/IEC 62443 series and NIST guidance for industrial control systems. FlowVexa does not claim certification against any standard. We apply the principles in a way that suits the facility's size, risk and resources: know what is connected, separate what does not need to talk, control who can get in, and make sure people understand the risks.
Remote access deserves special attention. Always-on vendor connections, shared passwords and flat networks are the weaknesses we meet most often, and they are also among the most practical to fix.
What we address
- SCADA environments and HMI workstations
- PLC and control networks with inventory and change control
- IIoT systems: gateways, sensors and platform connections
- Remote connectivity through controlled, logged and authenticated paths
- Data communications with encryption in transit where supported
- Access control: individual accounts, least privilege, multi-factor authentication for remote access
- Network segmentation between IT, DMZ, control and field zones
- Operational technology awareness for engineers and operators
- Data protection: backups, retention and restore testing
- Cybersecurity training for technical teams and management
Illustrative zone model
Core practices
- Segmentation
- Least privilege
- Multi-factor remote access
- Jump hosts
- Asset inventory
- Patch and backup plans
- Logging and monitoring
- Awareness training
Typical challenges and how FlowVexa helps
| Typical challenge | How FlowVexa helps |
|---|---|
| Flat networks where everything can reach everything | Practical segmentation into zones, with controlled conduits between them, planned around how the plant runs. |
| Shared passwords and always-on vendor access | Individual accounts, multi-factor authentication and time-limited, logged remote sessions through a gateway. |
| IIoT devices added without a security review | Secure-by-default gateway design: outbound connections, encrypted transport, minimal open ports. |
| A gap between IT and OT teams | Shared language and training that help both sides understand each other's priorities. |
Outcomes to expect
- Clearer knowledge of what is connected and who can reach it
- A smaller attack surface for remote monitoring
- Staff who recognize and report suspicious activity
- A security posture that grows with each new connection
Match the connectivity to the asset
No single network suits every site. This comparison gives general guidance; actual performance depends on terrain, buildings, carrier coverage, equipment and reporting needs, which is why we verify with a site assessment and pilot.
| Option | Range | Power | Data rate | Typical water use |
|---|---|---|---|---|
| LoRaWAN | Kilometres per gateway in open terrain; shorter in dense urban areas and indoors. | Very low; multi-year battery life is possible at modest reporting rates. | Low, with small payloads. | Meter reads, tank levels, pressure and leak sensors, status and alarms from remote sites. Complements SCADA. |
| Cellular IoT (LTE-M, NB-IoT) | Wherever the carrier provides coverage; no private radio network to build. | Low, with power-saving modes. Generally higher than LoRaWAN. | Low to moderate; LTE-M supports higher rates than NB-IoT. | Bulk and customer meters, isolated pumping stations, mobile or temporary assets, sites outside gateway range. |
| Wired SCADA and fieldbus | Set by the medium: RS-485 up to about 1,200 m, copper Ethernet 100 m per segment, fibre over much longer distances. | Powered from the site supply. | Moderate to very high. | Inside plants and pump stations, control panels and any application that needs deterministic, real-time control. |
| Wi-Fi | Tens of metres per access point; extendable with directional links and mesh. | Moderate to high; usually not suited to years on battery. | High. | Within plant buildings and yards: tablets for operators, local engineering access, cameras and mobile inspections. |
Other options such as licensed or private UHF radio and satellite links also have a place, particularly for critical sites and very remote locations. In Canada, cellular coverage thins out quickly away from highways and population centres, so remote sites often favour LoRaWAN or licensed radio. Frequency plans and radio rules vary by country, and cellular service differs between carriers, so we confirm both locally.
Start small, prove it, then scale
Digitalization projects succeed when they begin with a clear operational question and a limited scope. Our engagements follow four stages, and you can stop or pause after any of them.
Assessment
We review the process, equipment, control systems, communications and the operational problem to solve. The outcome is a clear scope, a recommended architecture and the risks to manage.
Pilot
A limited deployment on selected sites or assets tests the technology, the data quality and the way people use it. It answers specific questions before a wider commitment.
Scale
Proven designs are extended to further sites, instruments and users with standard naming, security and documentation, so growth does not mean starting over.
Support
Ongoing help with the platform, data quality, alarm tuning and analytics, along with training for the people who operate and maintain the system.
Practical answers
Do we need to replace our SCADA?
Usually not. If your SCADA and PLCs are supported and doing their job, we connect to them, read the data we need and extend what they can do. Replacement is worth considering when equipment is unsupported, spare parts are unobtainable or a safety function is at risk. In that case, we help plan a staged migration so the plant keeps running.
Can LoRaWAN work alongside our existing telemetry?
Yes, and that is how we position it. Existing telemetry and SCADA keep handling control and critical signals. LoRaWAN adds low-power sensors and meters at locations that were too costly to connect, and its data can be passed to your SCADA, historian or analytics platform through the network server.
Can you work with older PLCs and mixed equipment?
In most cases, yes. We start with the protocols and interfaces the equipment supports, such as Modbus, serial links or analog signals, and use gateways to expose the data in modern formats. For anything we cannot read safely, we may add independent sensors rather than modify the existing control system.
Where is the data hosted?
That depends on your requirements. Options include on-premises servers, a cloud environment under your own account or a hosted platform, and data can be hosted in Canada where residency matters to you. We discuss data ownership, residency, retention, access, provincial reporting needs and your internal policies before recommending an arrangement, and the choice is documented as part of the architecture.
How do you approach cybersecurity?
We design security in from the start. That means an asset inventory, network segmentation, individual accounts with least privilege, multi-factor authentication and logging for remote access, encrypted communications where supported, and awareness training. We refer to concepts from recognized frameworks such as ISA/IEC 62443, without claiming certification.
Do we need a lot of data before AI is useful?
Models do need reliable history and records of past events, but you can start with less than many expect. We often begin with data-quality checks, baselines and rules, which deliver value quickly, and introduce machine learning where the history and the problem justify it. If the foundation is not ready, we will say so.
How long does a pilot take?
It depends on scope, site access, the equipment involved and how long we need to observe real operating conditions. During the assessment, we define the pilot's duration, its success criteria and the decision that follows, so everyone knows what is being tested and when it ends.
Can you train our team as part of the project?
Yes. FlowVexa Academy offers training and technical workshops on digital water, IIoT, LoRaWAN, SCADA, analytics, AI and industrial cybersecurity, and programs can be customized for your team. Technology is more valuable when the people who run it understand it. See the Academy tracks.
Digitize the infrastructure you already trust
Whether you run a municipal system, an industrial or energy facility or a remote community network, tell us about your site and the problem you want to solve. We will suggest a practical path to digitalization, starting with what you already have.