Making Strides Toward a Sustainable Life Sciences Industry | Sustainability Initiatives and Pillars | Corning

The United Nations has an ambitious goal of reducing net carbon dioxide emissions to zero by the year 2050. Many pharmaceutical and biotechnology companies worldwide have adopted the U.N.'s goals for sustainable development, spurring efforts to create a more sustainable life sciences industry.

Sustainability Initiatives and Pillars in the Life Sciences Industry

According to the U.S. Environmental Protection Agency, laboratories consume 5 to 10 times more energy per square foot than office buildings, and in some specialized laboratories, that number can rise to 100 times more. In addition, a study by the University of Exeter estimated that life sciences laboratories worldwide use 5.5 million tons of plastic, which amounts to 1.8% of global plastic waste each year.

On a mission to minimize ecological impact, life sciences institutions are working to reduce greenhouse gas emissions, use of freshwater and other resources, and production of hazardous waste.

Building a sustainable life sciences industry means adopting sustainability initiatives at every stage, from research to manufacturing and beyond. As a leader in the laboratory supply industry, Corning is committed to addressing sustainability challenges through innovation in multiple areas. Corning Life Science's efforts to reduce environmental impact can be grouped into three main sustainability pillars: developing proactive measures to minimize emissions, integrating sustainable attributes in product design, and responsible use of resources with stewardship in mind.

Environmental Initiatives: Science-Based Targets

One industry trend is setting science-based targets for emissions. As established by the Greenhouse Gas Protocol and the Science Based Targets initiative, direct and indirect emissions targets are categorized into Scope 1, Scope 2, and Scope 3.

Scope 1 focuses on the reduction of greenhouse gas emissions that are a direct result of a company's activity, such as its facilities and vehicles, while Scope 2 focuses on indirect emissions associated with the electricity, steam, heating, and cooling a company purchases.

Scope 3 focuses on indirect emissions associated with supply chains and transportation—according to McKinsey & Company estimates, about three-quarters of emissions by the pharmaceutical industry fall under Scope 3.

"Scope 3 emissions are often out of the direct control of a business, such as emissions at suppliers," according to Sarah Dowdall, Program Director of Sustainability at Corning Life Sciences. "To reduce Scope 3 emissions, labs need to work with vendors that prioritize sustainability."

Corning has committed to emissions reduction and is tackling Scope 1, 2, and 3 emissions through energy efficiency at manufacturing plants, renewable energy installation, and vendors to reduce emissions in Corning's supply chain.

Design for Sustainability: Integration of Sustainable Attributes in Product Design

To achieve true sustainability, innovations are needed across the life sciences industry. Many life sciences vendors are developing and using alternative materials and products that incorporate sustainability in their designs.

Sustainable-by-design principles include the use of reusable products, reduction in packaging use and hazardous material use, minimization of resource use, and easy-to-recycle products. For example, Corning has designed flasks that use less plastic, laboratory cooling racks that use less energy, and cell culture intensification products that reduce the per-unit use of media and plastic.

Stewardship: The Importance of Responsible Resource Management

Considering the high energy and plastic consumption of many laboratories, reduce, reuse, and recycle are the three basic principles that the sustainable life sciences industry needs to apply throughout the stages of research operations, product development, product design, and manufacturing.

Some life science companies, including Corning, are now offering take-back programs that help laboratories reduce their packaging waste by allowing them to return plastic packaging, tip racks, styrofoam, and film paper to the manufacturer. An advanced sustainability goal is to move toward a circular model, which involves designing products that can be recycled easily or that are made of recycled materials.

Additionally, Dowdall recommends, "Consider seeking outside expertise on how your lab can be more sustainable. For example, My Green Lab can help you find actionable ways to improve the footprint of your lab."

Meeting Sustainability Goals with Corning

The importance of working toward a truly sustainable life sciences industry should not be understated. Laboratories everywhere need to work with both internal stakeholders and external vendors to support their progress toward sustainability. Learn more about how Corning can support your sustainability goals.