The Programme's strategic value is best read at the level of specific imported commodities — what fraction of each does the Programme realistically address at full deployment. The numbers are deliberately conservative; the headline message is that the Programme makes meaningful contributions across multiple imported commodities simultaneously, not that it replaces any one of them outright.
All figures are indicative; assumes the Programme's three pillars deployed at the indicative scales described in Section 7. Substitution is calculated as a percentage of the recent (2023) import baseline for each commodity; effective substitution rises with sustained operation.
| Commodity | Source pillar | Year-10 substitution range | Notes |
|---|---|---|---|
| Nitrogen fertilizer (urea-equivalent) | I | 5–15 % | Direct biofertilizer + digestate; closes part of the urea import gap |
| Liquefied petroleum gas (LPG) | I | 3–10 % | CBM substitution in cooking, transport, industrial-heat applications |
| Animal-feed protein | I | 2–6 % | Azolla-based feed supplement (17–25 % crude protein) |
| Methanol & light-chemical feedstock | I | ~ 100 % opportunity | The country has no commercial methanol production at scale; full domestic methanol becomes feasible |
| Crude oil (refinery feedstock) | II (HTL biocrude) | 1–3 % | Co-processing in existing complex refinery; low-CAPEX intermediate route |
| Diesel (road, marine, industrial) | II + III | 1–3 % | FT diesel co-product + HTL diesel cut + ATJ diesel co-product |
| Gasoline (motor) | II + III | 1–3 % | FT naphtha + ATJ light fraction + closing of E10 mandate gap |
| Jet fuel (aviation) | I + II + III | 2–6 % (early); 6–15 % (full deployment) | ATJ-SPK + FT-SPK + (when qualified) MTJ-SPK; aligned with credible early-mandate SAF blending requirements |
| Imported solid fuels for cogeneration | II + III | avoided incremental import | Bagasse cogen + falcata residue cogen; reduces additional coal-import demand |
The single largest substitution — in absolute fiscal terms — is the methanol opportunity. The Republic does not currently produce methanol at commercial scale and imports its requirement. A domestic methanol capability anchored on Pillar I CBM, with the option to feed marine fuel (in line with the IMO's MARPOL Annex VI tightening) and chemical-industry markets in addition to the contingent MTJ-SPK route, is structurally significant on its own merits.
Lifecycle carbon intensity (CI) is the metric used in ICAO CORSIA, EU ReFuelEU, UK SAF Mandate, and US 45Z eligibility frameworks. Indicative ranges, expressed as gCO2e per MJ of finished fuel:
| Pathway | Indicative CI (gCO2e/MJ) | Reference baseline |
|---|---|---|
| Conventional Jet A-1 (fossil) | ~ 89 | CORSIA reference baseline |
| Conventional gasoline (fossil) | ~ 94 | Standard reference |
| Conventional diesel (fossil) | ~ 90 | Standard reference |
| ATJ-SPK from sugarcane ethanol (Pillar III) | ~ 25–45 | Subject to detailed lifecycle assessment; bagasse cogen offset; tropical sugarcane reference |
| FT-SPK from biomass gasification (Pillar II Route A) | ~ 10–30 | Subject to LCA; higher when biomass supply is from sustainably managed plantations |
| HTL biocrude upgraded via refinery co-processing (Pillar II Route B) | ~ 30–55 | Range reflects co-processing fraction; co-processing rules vary by jurisdiction |
| MTJ-SPK from azolla-derived methanol (Pillar I, contingent) | ~ 15–40 | Subject to LCA; depends heavily on AD efficiency and digestate utilization |
| CBM (compressed biomethane) for LPG substitution | ~ 5–25 | Lower bound when methane leakage is well-controlled; methane abatement co-benefit material |
All CI ranges are illustrative and subject to formal lifecycle assessment in the Programme's feasibility-study phase, conducted to ICAO CORSIA / ISO 14040-44 methodologies, with explicit treatment of indirect land-use change (ILUC).
Aviation's climate impact is approximately equally split between CO2 and a basket of non-CO2 effects — principally contrail formation, water-vapour effects, and aerosol-cloud interactions — though the exact ratio remains an active area of scientific work. Contrail formation, in particular, is driven by the soot and particulate-precursor content of conventional jet fuel, which is in turn driven by aromatic hydrocarbon content.
All three of the Programme's SAF pathways — ATJ-SPK, FT-SPK, MTJ-SPK — produce synthetic paraffinic kerosene, which is essentially aromatic-free by chemistry. This translates directly into substantially lower soot mass, lower particle-number emissions, and consequently materially reduced contrail-formation potential. The chemistry is the same chemistry that underpins the DM-XTech Group's tLCAF product line, which has been independently validated by the Translational Energy Research Centre at the University of Sheffield, with reported reductions of approximately 98 % in soot mass and 95 % in particle number relative to baseline Jet A-1.
Each pillar generates direct rural employment through cultivation, harvesting, aggregation, processing, transport, and operations. Indicative direct + indirect employment at full deployment: tens of thousands of FTE-year positions, geographically distributed across Mindanao, the Visayas, and Luzon.
At indicative full-deployment substitution levels, the Programme retains a meaningful share of the country's combined petroleum and fertilizer import bill in domestic value-added. This translates into improved current-account position, reduced FX volatility exposure, and lower fiscal pressure during external shocks.
Programme cultivation deliberately targets degraded grasslands (cogon), abandoned farmland, and post-mining areas. The cumulative Programme footprint is structurally a land-restoration programme as well as a fuels programme.
Anaerobic digestion of organic waste streams (vinasse, agricultural residues, manures) captures methane that would otherwise be released, generating direct climate co-benefit measurable under CORSIA and the country's NDC framework.
Pillar II HTL biochar and the recycled digestate stream from Pillars I and III together build a sustained soil-carbon-storage layer in agricultural soils — an additional, monitorable carbon-credit revenue stream alongside the direct fuel-substitution attributes.
Mill-cluster cogeneration (Pillar III bagasse) and biomass-fired cogeneration at regional hubs (Pillar II) provide distributed grid-export capacity in regions historically exposed to electricity-supply disruptions during typhoons and grid stress events.