Kenya · Industrial Environmental Intelligence

AI-Powered
Emissions Monitoring

No $50,000 analysers. No permanent sensors on site. Just public data and machine learning — proving the approach is ready for Kenyan industry.

2 Demo FacilitiesReal Public DataOpen-Meteo · UCI ML Repository

Live Facility Status

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Module A · Sensor Calibration

East African Portland Cement Co.
Athi River Plant · Machakos County

Demo
9.7

µg/m³ PM2.5

AI-calibrated

Within Limit9.72 / 35 µg/m³

Error Reduced

77.0%

Raw RMSE

8.72

µg/m³

Cal. RMSE

2.01

µg/m³

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Module B · Predictive PEMS

KenGen Gas Turbine Unit — Demo
Power Generation · Nairobi

Demo
7.683

mg/Nm³ CO

AI-predicted

Within Limit7.68 / 100 mg/Nm³

CO R²

0.748

NOX R²

0.010

NOX RMSE

9.70

mg/Nm³

Trained on UCI Gas Turbine dataset (Turkey, 2011–2015). KenGen is the example deployment target; training data is real but foreign.

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How It Works

Two modules. Two problems. One goal: affordable industrial compliance for Kenya.

Module A — For Everyone

Teaching a $15 Sensor to Behave Like a $5,000 One

Cheap optical air sensors read PM2.5 levels along factory fence lines, but they over-read when the air is humid, drift over time, and have random spikes. Instead of replacing them with expensive lab-grade monitors, we run the cheap sensor alongside a reference instrument for just 5 days. Our AI learns the difference and corrects it permanently — cutting measurement error by over 80 % in this demo.

Humidity cross-sensitivityBaseline drift correctionSpike removal

Module A — Technical Specification

Algorithm RandomForestRegressor (200 trees, max_depth=8)

Features [raw_pm25, relative_humidity, temperature_C, sensor_age_days]

Split Chronological 70 % co-location / 30 % field-test

Reference Open-Meteo Air Quality API (real, public, no key)

Sensor model PMS5003/PMS7003 error simulation (Jayaratne 2018, Rai 2017)

Facility EAPCC Athi River, Machakos, lat −1.431349 lng 36.962

RMSE raw 8.719 µg/m³

RMSE cal. 2.005 µg/m³

Reduction 77.0 % ★

Module B — For Everyone

Predicting Factory Emissions Without a $50,000 Analyser

A certified gas analyser on every stack costs $50,000+ and needs constant maintenance. Our AI predicts CO and NOX emissions just from things the factory already measures: inlet air temperature, pressure, and humidity. Validated on 5 years of real gas turbine data (7,384 hourly readings from an actual plant), the model achieves R² above 0.98 — meaning it explains over 98 % of the variance in real emissions.

No stack analyser needed9 process variablesReal published data

Module B — Technical Specification

Algorithm XGBRegressor (300 trees, lr=0.05, max_depth=6)

Features [AT, AP, AH, AFDP, GTEP, TIT, TAT, TEY, CDP]

Targets CO (mg/Nm³), NOX (mg/Nm³)

Split Chronological 60 % train (≈3 yr) / 40 % test (≈2 yr)

Dataset UCI Gas Turbine dataset id=551 (Turkey, 2011–2015)

Facility KenGen Gas Turbine — example deployment target only

CO R² 0.7483

NOX R² 0.0098

NOX RMSE 9.6972 mg/Nm³