Modern biofuel refinery processing plant

Technology & Process

A detailed look at the MorFuels integrated biorefinery — from moringa cultivation to premium biodiesel production.

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Seed Yield per Hectare (tonnes/yr)

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Oil Content by Weight

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Biodiesel Conversion Rate

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Cetane Number

Feedstock

Moringa Cultivation

Moringa oleifera is ideally suited to Northern Australia's tropical and semi-arid climate, requiring minimal irrigation and no prime agricultural land.

Rapid growth — harvestable within 12 months of planting

Low water requirements — 250mm annual rainfall sufficient

Thrives on marginal and degraded land

Natural nitrogen-fixing capability improves soil

Year-round harvesting in tropical climates

Vibrant green moringa leaves on branch
Close-up of moringa seeds

Production

Biorefinery Process

Our six-stage integrated process converts moringa into premium biodiesel and high-value co-products.

STEP 01

Harvest & Separation

Mechanical harvesting separates seeds, leaves, and woody biomass for parallel processing streams.

STEP 02

Oil Extraction

Cold-press mechanical extraction followed by solvent extraction achieves 95%+ oil recovery.

STEP 03

Transesterification

Two-stage acid-base catalyzed transesterification converts moringa oil to FAME biodiesel.

STEP 04

Biodiesel Refining

Water washing, drying, and filtration produce EN 14214 / ASTM D6751 compliant biodiesel.

STEP 05

Co-Product Processing

Leaves are dried and pelletized for stock food; press cake is processed into organic fertilizer.

STEP 06

Quality Assurance

Continuous laboratory testing ensures all products meet international quality standards.

Mass Balance per Hectare

Annual yield breakdown from one hectare of moringa plantation.

3,000 kg

Seeds Input

1,200 kg

Crude Oil

1,200 kg

Biodiesel

120 kg

Glycerol

1,800 kg

Press Cake (Fertilizer)

12+ tonnes

Dry Leaf Matter (Stock Food)

Golden amber biodiesel fuel sample

Fuel Quality

Superior Fuel Quality

Moringa biodiesel delivers exceptional fuel properties, outperforming many competing biodiesels.

Cetane Number~67

Significantly higher than conventional diesel (~52) and other biodiesels

Oleic Acid Content~70%

Excellent oxidative and thermal stability for long-term storage

Emission ReductionSignificant

Reduced CO and unburned hydrocarbons vs fossil diesel

Engine CompatibilityDrop-in

Compatible with standard diesel engines, especially in B20 blends