Emerging

Monitoring & IoT

Sensors, IoT gateways and dashboards for DO, pH, temperature, salinity, biomass.

Section 1

Overview

Modern monitoring platforms combine field-proven sensors, wireless gateways and cloud dashboards with alarms — the nervous system of any modern farm.

Where it is used

  • Ponds
  • Tanks & RAS
  • Cages

Typical applications

  • 24/7 DO and pH monitoring
  • Early alarm on power or water quality events
  • Data for FCR and growth analysis
  • Regulatory logging

Benefits

  • Reduces catastrophic loss risk
  • Improves FCR and growth
  • Enables remote operation

Limitations

  • Sensor drift requires calibration
  • Connectivity in remote sites can be weak
  • Cloud costs recurring

Typical project sizes: From single-pond starter kits to enterprise-wide platforms.

Section 2

Standalone Loggers vs IoT Gateway vs Full Platform

ParameterStandalone loggersIoT gateway + probesFull platform (multi-site)
CAPEX / pointLowMediumHigher
Alarm channelsLocalSMS / appSMS + app + escalation
Data retentionLocal memoryCloudCloud + BI
Best forSmall farmsSingle-site commercialMulti-site groups
Section 3

Buying guide

How to evaluate suppliers

  • Prefer open APIs — avoid vendor lock-in
  • Look for redundant power and cellular fallback
  • Verify sensor calibration protocols

Common purchasing mistakes

  • Believing sensors are maintenance-free
  • Skipping alarm-escalation design
  • Ignoring cybersecurity

Technical questions to ask

  • What is the mean time between calibrations?
  • Are alarms delivered through independent channels?
  • Do you provide API access to raw data?

Warranty considerations

  • 12 months hardware
  • SLA on cloud availability

Maintenance

  • Weekly probe check
  • Monthly calibration
  • Annual sensor renewal reserve

Expansion capability

  • Reserve gateway I/O
  • Cloud plan should scale by point count

Energy efficiency

  • Low; typically < 100 W per gateway

Lifecycle

  • 3–5 years probes
  • 7–10 years gateways
Section 4

Technical specification checklist

Line-by-line items you should include in a vendor-neutral technical specification. Download as CSV to hand to your engineer or drop straight into the RFQ Builder.

Section 5

Budget guide

Project sizeIndicative CAPEXIndicative OPEX
Starter (1–5 points)USD 2–10kUSD 300–800/yr cloud
Single-site (10–40 points)USD 20–80kUSD 3–10k/yr
Multi-site enterpriseUSD 100k+USD 20k+/yr

Indicative ranges only. Real budgets depend on site, regulations, redundancy and scope. Use for internal planning — always validate with an engineering study.

Major cost drivers

  • Point count
  • Cellular vs LoRa vs Wi-Fi
  • Cloud tier

Optional equipment

  • Biomass camera
  • Weather station
  • Underwater camera

Installation notes

  • Cable trays, IP66 enclosures

Operating cost notes

  • Cloud subscription
  • Calibration solutions

Maintenance reserve

  • 10–15% of CAPEX/yr including probes
Section 6

Procurement checklist

  1. 1Define parameters and alarm thresholds
  2. 2Confirm connectivity at each point
  3. 3Confirm integration scope
  4. 4Draft specification with SLA and API requirements
  5. 5Independent commissioning test
Section 7

Supplier evaluation matrix

Score each supplier from 0 to 10 on each factor. Weights are pre-set with defensible defaults — override if your context differs.

FactorWeight

Open API / no lock-in

20

Alarm reliability & channels

20

Sensor accuracy & drift

20

Local support

15

Cybersecurity

15

Total 5-year cost

10
Weighted total1000.00.00.0
Section 8

Decision wizard

Section 9

Frequently asked questions

Planning a project?

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