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The Lisbon Declaration on CO2 Reductions

Submission of the Insulation Industry to the Conference of Contracting Parties of the UN International Framework Convention on Climate Change

Kyoto, December 1997

13 June 1997

Since the Second Assessment Report of the International Panel on Climate Change (IPPC) there can no longer be any real doubt about the impact of greenhouse gas emissions on the global environment. The greenhouse effect, in particular from CO2 emissions, requires urgent action. Space heating and cooling of buildings in both Western Europe and North America are major contributors to CO2 emissions.

One of the most efficient and quickly achievable means of cutting CO2 emissions is to reduce energy use. In the residential and commercial building sector, the most effective energy saving can be accomplished through the use of a readily available energy efficiency technology and thermal insulation. Thermal insulation simply reduces the transfer of heat (and cold) through building structures or envelopes. Thermal insulation not only reduces energy use and therefore CO2 emissions, (see tables hereafter) but in addition, the right insulation products also provide thermal comfort, acoustic insulation and fire protection. The same benefits hold true for the industrial/manufacturing sector.

The following tables give an indication of the massive use of energy for space heating and of its corollary, i.e. the massive potential for savings.

Table 1 summarizes the energy savings already realized in the United States.

Energy Use (Million GJ1 & Quadrillion Btu)
No insulation Baseline (existing) Savings % Savings
Residential GJ 21,532 10,550 10,982 51%
Btu 20.41 10.00 10.41 51%

Commercial GJ 8,662 7,069 1,593 18%
Btu 8.21 6.70 1.51 18%

Residential & GJ 30,194 17,619 12,575 42%
Commercial Btu 28.62 16.70 11.91 42%

(Source: "Green and Competitive: The Energy, Environmental, and Economic Benefits of Fiberglass and Mineral Wool Insulation Products" by Energy Conservation Management, Inc., et al, June 1996.)

 

Table 2 illustrates the potential for reducing carbon dioxide emissions (CO2) if all American homes were to be insulated to the Council of American Building Official's 1992 Model Energy Code, a recognized minimum energy efficiency code in the United States.

Carbon Dioxide (Million Tons & Billion Pounds)
Existing Additional Potential
Residential Million Tons 612 113
Billion Pounds 1,347 249.2

Commercial Million Tons 96 16.4
Billion Pounds 211 36.1

Industrial Million Tons Not calculated 3.7
Billion Pounds Not calculated 8.2

TOTAL Million Tons 708 133
Billion Pounds 1,558 293.5

(Source: "Green and Competitive: The Energy, Environmental, and Economic Benefits of Fiberglass and Mineral Wool Insulation Products" by Energy Conservation Management, Inc., et al, June 1996.)

 

Similarly for Europe, households account for a quarter of the CO2 emissions; with space heating accounting for 60-80% of these emissions. As illustrated in Table 3, there is an annual saving potential of approximately 310 million tons of heating-related CO2 emissions in Europe which could be realized by the application of state-of-the-art thermal insulation.

Possible reduction of CO2 emissions caused by heating by means of better building insulation
EURIMA Countries Actual emissions million t Possible reduction
Total Heating Million t % Total % Heating

Austria - 21 10 - 48

Belgium 112 33 22 20 67

Denmark 64 12 3 5 25

Finland 65 12 1 2 8

France 280 55 36 13 65

Germany 743 150 100 13 67

Ireland 27 7 5 18 71

Italy 360 36 18 5 50

Netherlands 167 40 27 16 68

Norway 35 3 1 3 33

Spain 186 27 13 7 50

Sweden 93 20 2 2 10

Switzerland 42 17 11 26 65

Turkey 186 69 17 9 25

UK 542 75 37 7 49

TOTAL (~3,000) (~600) (~310) (~10) (~50)

(Source: "Thermal Insulation Means Environmental Protection", Study by the European Insulation Manufacturers Association (EURIMA), 1990.)

 

If one calculates the potential for improved insulation in the buildings sector alone in Europe and the United States, a reduction of 450 million tons of CO2 is attainable on an annual basis.

Additional emissions reductions can also be realized through the use of thermal insulation in Mexico. According to an assessment of industrial savings from insulation conducted by the Mexican Petroleum Institute, the equivalent of 8 million barrels of oil could be saved annually if Mexican industrial plants were insulated according to the existing Industrial Insulation Code. The net result of effective use of thermal insulation in Mexican industrial facilities would be a 2.6% reduction in the usage of fossil fuels; in turn, reducing emissions of contaminant gases by 2 million tons per year.

Further significant savings are also evident in the residential and commercial sectors. The Mexican Federation of Engineering Colleges estimated savings in fuel consumption between 5.3 and 13.2 million barrels of oil equivalent, if residential and commercial buildings were insulated as specified in each code as applicable to each building type. This will have the effect of eliminating between 2 and 5 million tons of CO2 emissions into the atmosphere.

Table 4 illustrates projected yearly savings based on recommended energy codes in Mexico.

Projected yearly savings in energy and CO2 emissions (Insulating as per codes recommended practices)
Barrels of Oil Eq. Tons of CO2
Industry1 8,080,471 2,000,000

Buildings (Best Case)2 13,230,288 5,000,000

Buildings (Worst Case)2 5,267,201 2,000,000

(Source: 1 Industrial Insulation Code based on an assessment by the Mexican Petroleum Institute; 2 Commercial and Residential Codes as proposed and supported by an assessment by the Federation of Engineering Colleges.)

 

In Australia, households account for 16% of all CO2 emissions with space heating/cooling accounting for 25% of these emissions. As detailed in Table 5, there exists an annual saving potential of approximately 3 million tons of heating/cooling related CO2 emissions in Australia which could be realized by introducing thermal insulation.

Potential reduction of CO2 emissions via increased domestic building insulation: Australia
Actual emissions million t Possible reduction
Total
Heating/Cooling Million t % Total % Heating/Cooling

32
8 3 11 40

(Source: University of New South Wales, Cost/Benefit Study of Insulation of Residential Buildings in NSW: Options Paper, November 1993 ISBN 16279/02. Energy & Housing Conference and Exhibition, 3-5 March 1994, Page 210, Table 1, ANZEC 1990, End Use Energy CO2 Residential Appliances, Alan Pears)

Justification for Use of Thermal Insulation

One main advantage of thermal insulation is that it represents proven technology combined with a well established manufacturing base and sound installation techniques. The use of thermal insulation represents good business practice; and is a prime example of a "no regrets" policy which employs a technology that pays for itself in terms of reduced energy costs and increased environmental benefits. In addition, the benefits from insulation far outweigh the cost of production with a ratio of energy savings to energy investment of 12 to 1 per year. This means that for every Joule or Btu invested in the manufacture of thermal insulation, 12 Joules or Btus in energy saving are realized in every year of service.

Despite the many and considerable benefits that accrue, there are a number of challenges in providing adequate levels of thermal insulation, none of them however, are of a technical nature. First, many decision makers are poorly informed about the benefits of improved insulation and are thus often short of immediately available funds for capital investment. Second, in many countries, building energy codes or regulations are not efficient and often only apply to new construction or, in some cases, there are no energy codes at all. Third, building codes are frequently poorly enforced. Finally, most homes represent existing house stock, and insufficient attention is paid to thermal insulation needs when renovating the dwellings.

All of these challenges can be remedied by the application of available insulation technology, the implementation of good standards, economic analyses and incentives. The Kyoto Conference can agree on binding commitments by industrialized countries in the following areas:

  • quantitative CO2 reductions for the next decade in respect of space heating and cooling;
  • the establishment of ongoing education campaigns for purchasers of new and existing homes, as well as for the financial community;
  • the implementation of appropriate building energy codes which recognize the environmental benefits of energy reduction for both new construction and renovation work;
  • the enforcement of building energy codes;
  • the provision of tax incentives for energy efficiency capital investment directed towards first-time home buyers.

Feasibility

The manufacturing and installation processes of insulation are well known, and at once require no expensive research. More intensive use of thermal insulation can begin today, giving immediate and long-lasting results for the entire lifetime of a building. The use of thermal insulation has no negative impact on the competitiveness of national industry. In fact, insulation has a positive effect on the balance of payment.

Financial Implications

The proper use of thermal insulation for new buildings as well as the retro-fitting of existing buildings increases their value. As such, thermal insulation represents a capital gain for the home or building owner. As for public costs, little is required from the public purse other than tax incentives, which will obviously be limited.

Joint Implementation

High on the agenda for the Kyoto negotiations is the joint implementation of the Treaty. In this respect, the Kyoto Conference presents a valuable opportunity for thermal insulation. The quality of building stock in Central and Eastern Europe is poor, much of which is in need of improvement and considerable renovation. Joint implementation by the EU together with Central and Eastern Europe can be targeted towards thermal insulation with relative ease. Similarly, the opportunity exists for joint implementation by the United States and other nations.

Insulation Industry Associations

EURIMA European Insulation Manufacturers Association
375 Avenue Louise
Bte. 4
1050 Brussels Tel.: +32.2.626.20.90
BELGIUM Fax: +32.2.626.20.99

NAIMA North American Insulation Manufacturers Association
44 Canal Center Plaza, Suite 310
Alexandria VA 22314 Tel.: +703.684.00.84
USA Fax: +703.684.04.27

FARIMA Fibre glass and Rockwool Insulation Manufacturers
Association of Australia Inc.
Level 16, 124 Walker Street
North Sydney NSW 2060 Tel.: +61.299.56.53.33
AUSTRALIA Fax: +61.299.59.47.86

AMFATAFM Association Mexicana de Fabricantes de Aislamientos
Termicos y Acœsticos de Fibras Minerales, A.C.
Descartes #104
Nueva Anzures 11590, D.F Tel.: +525.255.08.22
MEXICO Fax: +525.203.47.39

CAMMVFM Canadian Association of Man Made Vitreous
Fibre Manufacturers
1 Yonge Street, Suite 1801
Toronto, Ontario M5E 1W7 Tel.: +416.363.7845
CANADA Fax: +416.369.0515

GFA Glass Fibre Association of Japan
Kitamura Building
17-15 Nishi Shimbashi 1-Chome
Minato Ku-Tokyo 105 Tel.: +81.3.3591.5406
JAPAN Fax: +81.3.3591.5408

RWA Rock Wool Industrial Association of Japan
Tanpei-Nihonbashi Building
7-10 Nihonbashi 3-Chome
Cho-Ku-Tokyo 103 Tel.: +81.3.5202.1471
JAPAN Fax: +81.3.5202.1473