Money isn’t everything. But when it comes to measuring the success of a nation, it is pretty much the only thing. GDP (gross domestic product), the monetary value of a country’s economic output, is the supreme economic indicator. A growing GDP can enhance a country’s reputation and therefore its strength and power.
This powerful indicator that now influences elections, policy decisions and manufacturing strategies did not exist a century ago. Nobel Prize-winning economist Simon Kuznets is credited with developing the concept of GDP (originally formulated as GNP or gross national product) in the mid-20th century as policymakers struggled to understand and respond to the Great Depression.
At the time, it was understood that the national accounts and GDP were limited in their scope: They were designed to assess prosperity while realizing that other contributing aspects to well-being were not being fully valued. Kuznets understood this and cautioned that “the valuable capacity of the human mind to simplify a complex situation … becomes dangerous when not controlled in terms of definitely stated criteria.”
But as policymakers grabbed hold of the numbers and began using them as the benchmark of success, the complexities were obscured.
GDP lacking
Calvin professors Matt Heun (engineering) and Becky Haney (economics) have teamed with Clemson University professor Michael
“GDP is simply not a good enough measure of what makes an economy go and what brings
The result, their recently released book, Beyond GDP: National Accounting in the Age of Resource Depletion (Springer, 2015), bolsters the conversation that is currently gaining some traction among economists, though less so among policymakers.
“Once you start taking stock of our natural resources and then try to put a value on them, it becomes very obvious that we are using up resources, that the economy faces clear constraints, and that the decisions that we make today impact future generations. That becomes crystal clear,” said Haney.
Valuing resources not new
The idea of valuing natural resources is not new. “One of the first calls for the integrated and comprehensive reporting of environmental-economic data, including natural and manufactured capital, came from the Brundtland Commission (1983–1987), which recognized the need to devise rigorous methods for integrating environmental assets into national balance sheets and income statements,” the authors write.
To rally countries to work and pursue sustainable development together, the U.N. established the World Commission on Environment and Development or the Brundtland Commission, named after chairperson Gro Harlem Brundtland, the former Prime Minister of Norway in the mid-80s.
In response to the commission’s report, “Our Common Future,” the U.N. developed the System for Environmental and Economic Accounting (SEEA), publishing a handbook in 1993. Many European Union member states adopted this method of integrating environmental accounts with their national accounting.
In 1994, the U.S. Bureau of Economic Analysis (BEA) also began developing a system that would integrate environmental costs into national accounting, but once initial reports were released, the U.S. Congress forbade further study.
Haney believes there were two main reasons for the ban on future research. “Right now, the numbers available to us in national accounts are all profits; they’re all on the positive side and show gains. However, the costs are ambiguous. Once we put a cost on what’s hidden and have a more balanced picture, the negative aspect of the economy becomes very concrete,” she said.
“Second, because the BEA was using a set of valuation techniques that require judgment calls or ‘educated guesses,’ there is a range of values on our resources, not a pinpointed number. People aren’t used to seeing that. A barrel of oil traded for a price decided on by the market feels real, solid, a number I can trust. Valuing goods or services that exist outside the market, such as resources in the ground, is the first step towards valuing pollution, and that is the greatest fear.
“We need to start owning the cost we’re putting on the environment, and no politician can easily do that on their watch,” she said.
A green GDP
So what would a biophysical approach to economics or “green GDP” include? It would account for the depreciation of natural capital in appraising wealth. Natural capital includes natural resources, such as minerals, fossil fuels, forests and fresh water. But a green GDP would also account for the degradation of ecosystems, which provide important goods and services to the economy and well-being.
For example, a tree might be valued at a certain dollar figure, but a whole forest provides much more in value than the cumulative total of the trees’ dollar value. Forests provide recreation, habitat and carbon sequestration.
“And the story needs to include the fact that natural resources are now constrained,” said Carbajales-Dale. “The way we currently look at economics was built for the 20th century, when we were still on the upside of resource extraction.
“That used to mean that things like capital and labor is where we needed to make our investment: The number of boats and fishermen is what would constrain your catch,” he continued. “Now it’s the number of fish that are available that affects your catch.”
What also would be accounted for is the amount of energy required to generate the product and the output in terms of pollution.
“When I think, write and speak about this, I think there are so many advantages to having good information and making policies and judgments based on that information, especially with politically charged topics like energy and climate changes,” said Heun.
“In my opinion, information contained in the ‘green GDP’ or other international efforts are a good starting place for getting
Information for wise decisions
After making this point in their book, Haney, Heun and Carbajales-Dale suggest more technical formulas that could be used to better equip scientists and policymakers to make wise decisions.
In simpler terms, Heun uses the metaphor of a metabolism to better understand the economy: “Living organisms take in materials and energy from the biosphere and expel wastes. You need to consider all of the ways the economy is tied to the biosphere and how the economy is really a metabolism that uses energy to process natural resources to make products, some of which provide a better life for us all.”
The book then provides a technical framework by which to do accounting that is “new and necessary,” according to Carbajales-Dale.
“Our framework takes into account flows of materials,” he said. “For instance, iron ore comes out of the environment, so that includes the mining industry, but then it goes into steel production and finally to construction. The way materials are stockpiled in certain sectors of the economy changes the picture.
“What drives our interest in this is that transforming the energy sector from fossil fuels to renewable resources like solar, wind and hydro takes a tremendous amount of investment in terms of natural resources and energy. In order to provide solar energy, we first need to build factories to produce the solar panels and likewise for the other options. All of these investments come at a cost that needs to be accounted for. It’s a mammoth investment.
“But so is every coal-fired station and gas-powered station that we build every year,” he said. “We have to realize that each time we invest in old fossil fuel technology, materials and energy are locked into that purpose rather than building out a renewable energy infrastructure.”
As a mechanical concentration engineering professor, Heun believes that what he says in the book is critical for students to understand. “I teach courses that deal with the design of systems that consume fossil fuels: power plants, air conditioners, heat pumps, internal combustion engines. These are the topics in my classroom, and I think it’s important to ask the questions, ‘Where does the energy come from to run your refrigerator and air conditioning? What is the generation rate of CO2?’ Even if the textbook doesn’t ask these questions, I feel compelled to.”
Connections matter
Even more urgent for Heun, though, is to share his view as a Christian. “The list of things that Reformed Christians think are important includes the well-being of other humans, and it includes the well-being of the natural world, that part of Creation that we hold as general revelation,” he said. “The route to sustainable energy depends upon the economy but so does human well-being.
“Because I am a Christian, because I value human well-being and because I see the natural world as revelation, these connections matter. The challenge for me in communicating this to students is that those connections are terribly difficult to unravel. The story of those connections is not simple to tell, but I feel absolutely compelled to pursue this because of those important things that I hold true as a Reformed Christian.”
For Haney, too, she sees her calling “to be a voice of transformation to protect the ways in which humankind impacts creation. What’s so lovely about being involved in this book is that it has exposed me to the incredible wealth of concrete data that is compelling and undeniable.
“The big, giant takeaway for me is that we are making decisions today in how we invest in capital with the idea that investment of any kind is good for the economy. But, those decisions affect our energy demands and locks us into energy paths that will be followed long into the future,” she said.
“This is so central to where we’re headed, and people just don’t know about these connections and that these issues are out there,” added Heun. “I’ve committed myself to telling the story, and this book is part of that.”
Another part is Heun’s continuation of educating students on this: “My greatest hope is that by exposing hundreds of young, fantastically intelligent minds to these issues that they will someday be in a position to make important decisions regarding energy and the environment that make the world into a better place.”
Lynn Rosendale is managing editor of Spark.