Did you ever stop to think about how much energy it takes to run a western blot, or how much energy that -20°C, -80°C or domestic freezer is using in your lab? I think for most of us these kinds of things just add to the white noise surrounding us as we are working at the bench. That, however, does not mean this issue is not important. Energy production is responsible for 26% of Greenhouse Gas Emissions worldwide, and laboratories are among the most energy intensive building types. In fact, labs use five times more energy per square foot compared to a typical office building. It is not uncommon to see just one large lab facility use as much energy as a small residential neighborhood!
The reason labs use so much energy is because like humans, they need to breathe. Typical labs require between 6-12 air changes an hour; every 5-10 minutes the building is ejecting its entire volume of air and replacing it with new air. Heating and cooling this amount of air so often consumes a tremendous amount of energy, anywhere from 60% -80% of the total building energy budget. Lighting, equipment, computers, servers and other plug loads constitute the remaining 20%-40%. With energy prices rising sharply across the globe, company executives are taking note of the effect of energy consumption on their bottom-line and putting company resources into reducing energy use.
Despite so much energy use, energy management opportunities are plentiful in laboratories and there are a myriad of ways to reduce energy consumption. Entire industries have sprung up around facility energy management needs from LED technology to smart HVAC optimization. In my next post we will take a deeper look into the lab space and identify energy intensive equipment and methods for reduction.
Biologists often collaborate with non-scientists to improve environmental footprints. Events and spaces that remind us of our place in nature are a great way to connect everyone in a school or workplace to sustainability goals. Megan Williams, was a Research and Core Team Technician in the School of Cardiovascular and Metabolic Medicine & Sciences at Kings College London, when she saw an empty outdoor space on her urban campus and envisioned a community garden for fellow biologists, students, staff, and campus workers.
You might be skeptical looking at plastic recycling in the lab and you probably should be. The expectation is that carefully sorted non-contaminated recycling collections will be remanufactured into products that will lower the demand for fossil fuel-based plastic. Unfortunately, according to the report, The Real Truth About the U.S. Plastics Recycling Rate, the conversion of plastic recycling collections into new materials, known as source reduction, has failed. Mixed plastic collections are especially at risk.
Good science can go further with lab changes that drive down costs. The problem is that biologists asked to cut overhead costs in biotech or pharma lab work may not know where to begin. A nice overview of universal approaches to improving lab sustainability was shared with Labconscious by Steve Miller from Lab ReNew.
Solutions for changing climates are in demand for agriculture, carbon dioxide removal, methane abatement, health impacts, and many more areas. There is funding available. What’s holding biotech back? Talented scientists often don’t know where to find funding and how to communicate their projects to investors in a compelling way.
Drosophila is strongly associated with scientific discovery, but this model organism also represents practical advantages for sustainability from research to industry. When you look at the field you can’t help being impressed by the resources conserved by the approach.
Biologists should be aware of two trends related to this update from My Green Lab. First, lab sustainability accreditations have emerged as requirements in research grant funding policies, and second, government regulators have raised the bar across the board for green claims and certifications to overcome a loss in public trust.
It’s always exciting when a maverick hits the mark. The first polylactic acid (PLA) Petri dish product is a one-to-one replacement for labs using fossil fuel-based plastic plates for cell culture. The maker, a small privately owned company called Diversified Biotech, Inc., collaborated with researchers from Brandeis University to develop it. Fostering eco-justice with a simple swap sounds good, but could this specialized PLA material even improve cell culture?
If ultraviolet light decontamination is not supported for class II biosafety cabinets in BSL-2 labs, and UV bulbs consume so much energy, why are most new BSC cabinets still ordered with UV lamps? Spoiler alert: some burgeoning bioscience applications require it, and fortunately, there are some options to improve its sustainability.
Often, the validation work involved in establishing new protocols holds us back from improving the sustainability of lab work. Patrick Penndorf, a cofounder of the Re-Advance initiative, explains their efforts to overcome barriers to sustainable science and gives scientists a chance to join their Innovator Team.
Over the past year, Célia Algros took part in a project to discover microbial enzymes that could metabolize nucleosides in an internship at NEB. In an offshoot of this project, she also surveyed energy consumption, consumables, and waste generated to estimate the carbon cost of her E. coli transformations. The effort gave her a new appreciation for both the complexity of calculating carbon footprints and the sizable environmental impact of experiments.