At PFB Corporation, we are concerned with the future of the planet and the effects that modern life styles may be having on climate change. PFB Corporation is committed to conducting its operations responsibly, mindful of the economic, environmental and social impacts of its operations.

PFB reports the material impacts our activity has on the environment. We tabulate and report our emissions, energy usage and waste generated. In 2013 PFB established a Sustainability Committee with members from all areas and specialties within our company. The Committee’s mandate is to work with our management group and employees to facilitate continuous improvement of our sustainability performance. Our focus continues to be on improving our performance through a process of continuous improvement.

Green House Gas (GHG) – greenhouse gases are those gases which contribute to global warming. According to the Kyoto protocol significant greenhouse gases, emitted by human activity, include carbon dioxide (C02), methane (CH4), nitrous oxide (N20), hydrofluorocarbons (HFCs), perfluorocarbons (PFCs), and sulphur hexafluoride (SF6).

Ozone Depleting Substance (ODS) – A chemical compound that reaches the stratosphere and is capable of reacting with stratospheric ozone causing it to be depleted. Stratospheric ozone protects the earth from harmful UV radiation. PFB does not emit harmful ozone depleting substances from our manufacturing processes.

Volatile Organic Compounds (VOC) – any organic compound that can become vaporized under normal atmospheric conditions. VOC can contribute to the creation of ground level smog around urban centers. PFB releases VOC’s as part of our foam insulation production processes and we are sensitive to this issue and are actively working towards reductions in the amount of VOC’s we emit.


Waste is a significant issue for manufacturers like PFB both from a cost perspective and its environmental impact. PFB is continually looking for ways to reduce the generation of waste and, wherever possible, reuse and recycle. Total waste to landfill increased by 25% in 2018 over the previous year. This change was caused by increased production levels, introduction of new products and processes and loss of some outlets for some waste materials previously sent to recycling.

Efforts are underway to determine ways to optimize these processes and take action to reduce waste by diverting scrap materials to alternate recycling streams and by improving production yields. Even though the overall amount of waste increased significantly (25%), the waste per unit output rose only 10% in comparison. This is still cause of concern and the need for continued efforts to continuously improve our waste footprint.


Direct electricity and natural gas consumption in our operations increased slightly over the previous year. Energy consumption has been a significant focus of our individual facilities as we work toward improving efficiencies through installation of energy efficient lighting, equipment and implementing administrative controls for managing equipment operation schedules.

In 2018 PFB experienced an increase in both electricity and natural gas usage due to increased production levels and market demand for our products. Additionally, PFB converted one of our facilities from biomass fuel to natural gas resulting in a reduction of GHG emissions (see emissions section) but an increase in overall natural gas usage.

Energy Used in Making PFB Products vs. Energy Saved by Consumers

The energy savings potential from using PFB’s insulating products over the expected lifetime of those products (assumed to be 50 years) exceeds the amount of energy consumed in the manufacturing process by a ratio of approximately 120:1.

(1) Estimated energy savings due to the installation of PFB foam insulation products per unit mass. Estimates based on data in “Energy and Greenhouse Gas Savings for EPS Foam Insulation Applied to Exterior Walls of Single Family Residential Housing In the U.S. and Canada”, Franklin Associates Ltd. February 2009. Energy savings based on reduction in heating when insulation installed as per assumptions in the Franklin report. Note that other insulation materials will provide equivalent reduction in energy and GHG savings if installed to the same level of thermal performance.

(2) Production energy includes embodied energy in raw materials as per “Energy and Environmental Profile of the US Chemical Industry” (May 2000 by Energetics Inc. for US Department of Energy) and direct production energy to manufacture in process raw materials and finished products.

Direct Energy

We measure and monitor the total amount of electricity, natural gas and biomass fuel consumed by our operations. Increases in both electricity and combustion fuels in 2018 were due mainly to increased production levels in several geographical regions.

Electrical Notes - Electricity (green bars) read off right vertical axis, fuel consumption (blue bars) refer to left vertical axis. Fuel refers to use of natural gas and biomass to create steam for production process and heat for general building heat and process heat.

Water Consumption

Water consumption increased slightly in 2018 over 2017 due mainly to increase in production levels. Although the overall water usage increased, the water consumption as a ratio of output (m3/tonne foam) decreased by approximately 8%. Water conservation projects completed over the past 2 years continue to provide water saving benefits.


Our focus for the past several years has been to reduce greenhouse-gas emissions by using fossil fuels more efficiently. Additionally, PFB has an initiative underway to substitute raw material inputs with materials that contain less VOC expanding agent.

PFB Emissions Intensity

The key emissions that we track are GHG’s, VOCs, NOx and SOx. We monitor emissions as a ratio of tonnes emitted to tonnes of EPS foam produced. Reductions in the ratios indicate better performance.

Since 2008 we have reduced VOC emissions intensity due to efforts to introduce raw materials with lower VOC content. PFB’s long term plan is to continue converting applications and manufacturing facilities over to the lower VOC raw materials to continuously improve our impact on the environment. In 2008, 13% of our raw materials consumed contained reduced levels of VOCs. In 2010 we successfully increased the usage of low VOC alternative raw material to 59% of the total input. In 2018 the use of low VOC raw material was 82% of total raw material (resin) usage. This effort has resulted in an average annual VOC emissions reduction of over 100 tonnes and a total reduction of 700 tonnes over the past 7 years (compared to estimated emissions had higher VOC raw material been consumed).

Chart Note – A tabulation error we discovered which exaggerated the reported VOC emissions for 2014 through 2017 in previous sustainability reports; this error has been corrected in the data displayed in this 2018 report.

GHG Emissions vs. Savings Potential

Carbon dioxide, the principal greenhouse gas (GHG) emitted from PFB operations, arises from burning natural gas and other fuels in our production operations. We calculate and report GHG emissions in metric tonnes CO2 equivalents.

Our insulating products provide customers with the means to reduce their energy consumption and, consequently, their GHG emissions. The estimated GHG reductions that could be achieved if all of the EPS insulation products made by PFB in 2018 were applied to exterior walls of single family residential housing in Canada would be approximately 45,000 metric tonne. A ratio of 5 to 1. Through improvements in the energy-efficiency of our processes we intend to focus on reducing our GHG emissions to further improve the net benefits provided by our products.

(1) Estimated GHG emissions reductions potential due to the installation of PFB foam insulation products sold during the reporting year - estimates based on data in “Energy and Greenhouse Gas Savings for EPS Foam Insulation Applied to Exterior Walls of Single Family Residential Housing In The U.S. and Canada”, Franklin Associates Ltd. February 2009. GHG savings is based on reduction in heating when insulation installed as per assumptions in the Franklin report. Note that other insulation materials will provide equivalent reduction in energy and GHG savings if installed to the same level of thermal performance.

(2) In 2016 GHG emissions was under reported by about 200 tonnes due to some biomass fuel being excluded from the summation in error. The 2016 value has been corrected in this year’s report to allow accurate comparison to 2017 data.

Total GHG emissions decreased in 2018 as a result of converting a biomass (wood) burning steam boiler to a high efficiency natural gas unit. The GHG intensity, GHG emissions per tonne of product output was subsequently reduced significantly due both to the fuel type change and because increased production rates provided operational efficiency improvements.