Philippine Energy Efficiency and Clean Energy Programs

1994 Greenhouse Gas (GHG) Inventory

As a country Party to the UNFCCC, the Philippines prepared and submitted its Initial National Communication on Climate Change. The National Communication contains a national inventory of anthropogenic emissions by sources and removals by sinks of greenhouse gases, a description of steps taken or envisaged by the country to implement its commitment and other information to the achievement of the objective of the Convention. In 1994, the Philippines released a total equivalent amount of 100,738 ktons of CO2 into the atmosphere (Table 1).

This is due to the combined effect of greenhouse gas (GHG) emissions from the four sectors of energy, industry, agriculture, and wastes, and the net uptake (sink) of GHGs from the land use/change forestry (LUCF) sector. This amount, however, is still minimal relative to the GHG emissions of other nations, especially those of developed country parties to the UNFCCC.

Of the four sectors, energy accounted for about 49% of the national total followed by agriculture (33%), industry (11%), and wastes (7%) (Table 2).

It will be noted, however, that energy is grouped with the transport sector, which accounts for half of the emissions with power generation accounting for the other half. In the agricultural sector, rice paddy cultivation and domestic livestock are the primary sources of GHG release. For industry, sources are found mainly in the cement and metal processing industries (86%) while CH4 emissions are largely from solid wastes. The GHG emissions in the energy sector (which is largely CO2) come mainly from fuel combustion (Table 3).

A significant portion of these emissions (about 82%) is from the three major end users of fuel: the power generating industry, transportation, and manufacturing. The main fuel types used in these subsectors are conventional fuels such as oil and coal, which are contributing significantly to GHG emissions.

Introduction

As a developing country, the Philippines endeavors to be stable and self-reliant in its energy needs within the context of current state policies. One such policy is ensuring an energy supply not only to fuel the country’s economic growth but also to ensure sustainable development. The energy sector is recognized as a major contributor to the adverse effects of global climate change. Thus it is now placing greater emphasis on the utilization of clean fuels and energy technologies, and energy efficiency to address or mitigate the same. While it has no mitigation commitments under the United Nations Framework Convention on Climate Change (UNFCCC), the Philippines is implementing sustainable energy policies domestically to address the adverse effects of climate change, consistent with the principles of the Convention.

 
 
 

Energy Supply and Demand Outlook

The energy-economy interaction of PEP 2000 followed almost the same trend of the PEP 1999 with the minimal differences attributed to the revision in economic targets due to the lower-than expected performance in 1998. The PEP 1999 forecasts a 5.1% average growth in energy consumption in the medium term, 1998-2004, and a slightly higher figure of 5.7% during the entire planning period, 1999-2008 (Table 4). If one is to appreciate these figures, it is important to put them in the context of past interaction between the planning parameters.

Energy Demand Outlook

Between 1983 and 1997, the Philippines registered a robust energy consumption growth of 7% corresponding to a 5% annual growth in GDP, translating to an energy-to-GDP growth ratio or elasticity of 1.5. From 1997 to 1999 wherein for the most part the Philippines was affected by the Asian financial crisis, a much lower energy-to-GDP elasticity was seen, largely due to the negative growth in petroleum consumption, which is attributed to the slowdown in industrial production. Growth in electricity generation was high relative to GDP, but the residential or the consumptive rather than the productive industrial sectors drove most of the consumption growth.

On the other hand, during the period 1989-1993 when the Philippines experienced severe power outages, petroleum consumption was very high relative to GDP growth, but this was because of the over-dependence on diesel-fired gas turbines at the time.

As mentioned earlier, the above forecasts have been revised with GDP targets slightly scaled down as actual 1998 growth was lower than expected and recovery from the Asian financial crisis may not be faster than earlier predicted. Oil prices have also soared dramatically compared to the previous assumptions. At the same time, the peso has significantly devalued relative to the dollar and other major international currencies. However, as seen during the 1993-1997 era, high oil prices or large forex devaluation did not dampen energy demand in a robust economic situation. Thus, under normal circumstances, energy consumption trends should be higher than what are currently projected.

Total Primary Energy Supply

To meet the demand projection, the country’s total primary energy supply (TPES) is projected to grow at an annual average rate of 6.3% or to almost double from about 245 million barrels of fuel-oil-equivalent (MMBFOE) in 1999 to about 444 MMBFOE by 2009 (Table 5).

Primary Energy Mix

Of the TPES, imported oil share will significantly decline to 43% mainly due to the increased contributions from natural gas and geothermal resources. The natural gas component is expected to reach 25.4 MMBFOE or 5.7 % by 2009 from almost nil at present.

The share of indigenous energy resources in the energy mix is seen to rise from 42.2% in 2000 to 49.4% in 2004 with the bulk of the increase contributed by natural gas from offshore Palawan Island (Malampaya). In the second period (2005-2009), however, energy demand is seen to grow more rapidly than the rate of indigenous energy production. Thus, and unless development of indigenous energy is hastened, the share of indigenous resources may decline to 39.5% by the end of the planning period.

New and renewable energy sources (NRES), mostly traditional fuels such as fuelwood, agriwastes and bagasse, account for a major share of indigenous energy production, i.e., 29% in 1999 and going down to 21% by 2009 because of the growth in other domestic sources. NRES applications are mainly confined to providing energy resources in remote villages that are inaccessible to electricity and petroleum distribution networks.

Power Supply and Demand Profile

The power expansion program targets a massive displacement of oil-based power plants with their share in the power generation mix declining to 19% in 1999 and to only 7% by 2009 (Table 6).

Power Generation Mix

With the coming on-stream of natural gas from the Malampaya natural gas field starting 2002, gas share in the power generation mix will be at a maximum of 26% in 2005 from its very minimal contribution of 0.08% in 1999. These figures represent only the generation in the areas connected to the main grid. The Department foresees substantial capacity additions from NRES to provide distributed power systems in areas that cannot be economically connected to the main electricity grid.

Conclusion

We join people from the whole world in the clamor for far-reaching and enduring actions to reverse the deepening environmental crisis. Although the above-cited policies and programs remain anchored mainly on self-sufficiency/energy security objective, there is already an increasing emphasis placed by the Government on clean fuels/technology and energy efficiency to support sustainable development goals.

 

 

GHG Reduction and Energy Savings Potential

Given the different programs on clean energy and energy efficiency, the Philippines will considerably reduce its GHG emissions. Although these programs are yet to be quantified in terms of the amount of GHG emissions reduced, avoided or mitigated, the same represent the energy sector’s resolve to pursue its energy objectives without sacrificing the environment.

On the other hand, the cumulative energy savings from the energy efficiency programs is about 3 MMBFOE in 1999 and is expected to increase to 47 MMBFOE in 2005 and 88 MMBFOE in 2009 (Table 10). These programs will result in lower oil importation and consequently increase foreign exchange savings that can be used for other basic socio-economic infrastructures as well as a cleaner and safer environment. 

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