By John Kemp LONDON, Sept 15 (Reuters) – Like other technology shifts, energy transitions provoke strong responses because they involve changes in lives and livelihoods, that go far beyond narrow technical questions about the source and delivery of energy.
Transitions disrupt employment and incomes, imposing substantial and concentrated costs on particular households, industries and communities. They create big losers as well as winners.
And because energy supply is among the largest employers and most basic of all industries, providing input for every other sector of the economy, transitions are among the most disruptive of all technology changes.
Even if a transition is a Pareto improvement from the perspective of society as a whole, where the winners could theoretically compensate the losers, significant compensating transfers rarely happen in practice.
More often, the losers from a change in energy system or other technology are expected to find new employment, changing industry and sometimes location, with limited financial assistance.
So transitions are usually discussed in fairly technical terms: comparative costs, reliability, supply security, visual impact, air pollution and carbon emissions.
But they arouse strong political, emotional and moral passions because behind every technical discussion lies a deeper, often hidden, debate about reallocation of incomes and opportunities.
Transitions are never just about cost, convenience and security; they are always about individual lives and communities too. They are inherently political as well as technical.
WORKING LIFETIMES
Most energy and technology transitions play out slowly, over periods ranging from a couple of decades to half a century. But that is still relatively fast compared with an average working lifetime.
In the advanced economies, the average working lifetime is a little over 40 years for both men and women (“Ageing and employment policies”, Organization for Economic Cooperation and Development, 2020).
In the United States, someone who started working in a world dominated by horse-drawn transport and railroads in the 1890s would have retired in a world dominated by automobiles and trucks in the 1930s.
Someone who started working in the 1890s without electricity at home, telephone service, water and sewerage, radio and refrigeration would have retired when these things were common, at least in urban areas.
In Britain, someone who started working in a world dominated by coal in the 1940s would have retired in a world dominated by oil in the 1980s.
In China, the economic transformation over the 40 years from the early 1980s to the early 2020s has been even more profound in every dimension.
Looking forward, someone who started work in the 2010s in a world dominated by oil, coal and gas could retire in a world dominated by renewables in the 2050s.
PRODUCTIVITY
Over the last two centuries, changes in energy systems and other technologies have eliminated tens of millions of jobs, first in agriculture, then mining, and more recently manufacturing.
While the changes have increased productivity and incomes overall, they have inflicted substantial distress on individuals, companies and communities.
Entire occupations have disappeared: weavers, stokers, lamplighters, elevator operators, cinema musicians, typists and laundresses.
Other major occupations have “released” enormous volumes of labor as they increased output per hour and became more productive: farming, coal mining, railroads, shipping, stevedoring, and steelmaking.
In the long run, energy system and technology changes have increased economy-wide productivity and made everyone better off. But the long run can exceed the remainder of any one individual’s lifetime.
In the short and medium term, energy and technology changes have often made large groups of once-comfortable workers worse off (“The technology trap: capital, labor and power in the age of automation”, Frey, 2019).
INFLEXIBILITY
In theory, workers displaced from an industry where employment is declining, either as a result of falling consumption of the product or an increase in labor-saving automation, can seek employment elsewhere.
In practice, workers are often tied to specific occupations and even more to geographical locations, and show a marked reluctance to change careers or migrate in search of new work.
Occupational mobility is most often to new jobs in closely linked or adjacent industries – which is not much help when employment in a whole complex of related industries goes into decline.
Workers show even less mobility geographically. Social ties to communities make long-distance permanent migration in search of work comparatively rare for workers above the age of 30 or 40.
In Britain, willingness to move to a new region for work peaked in the 25-29 age group and declined thereafter, according to a UK government report published in 1966 (“Regional development”, Fisk and Jones, 1972).
The same locational stickiness is still evident today in the United States. In 2018/19, some 3.5% of 25-29 year-olds moved to a different state, compared to just 1.5% of 35-39 year olds and 0.9% of 45-49 year olds.
In the United States, which was once characterized by relatively high levels of geographical mobility compared with Europe, inter-state and inter-regional movements have declined over the last 50 years.
Less than 1.5% of residents of all ages moved state in 2018/19 down from more than 3% per year throughout the 1950s and 1960s (https://tmsnrt.rs/3kia05i).
Occupational and geographical immobility matters because heavy industries, including energy industries, are often concentrated in a small number of communities, where they provide a large share of total employment.
Decline of an industry and its employment is therefore often synonymous with a deterioration of the local economy and an increase in deprivation.
AGE-RELATED RISK
The individuals most at risk from energy transitions and other shifts in technology are those aged over 35 and especially those over 45 and 55 years old.
Some 15-35 years after they first entered an industry after graduating from school or university, slowly accumulating technical changes are very likely to be remaking the industry and its employment.
But by that stage in their working lifetime, those people will have invested significantly in industry-specific skills and experience that may not readily transfer at the same income to another industry.
And their geographical mobility also declines progressively above the age of 35, compounding the difficulty of switching from an area dominated by declining industries to one characterized by expanding sectors.
Like other technology changes, the risks associated with energy transitions are borne disproportionately by older, more experienced workers at mid-career or a little beyond.
Younger workers are more likely to switch industry. Older workers are more likely to take early retirement or try to cling on for a few more years.
The vulnerability of specific groups of workers, often concentrated in particular communities and regions, is what has always made energy transitions politically sensitive.
But political sensitivity has rarely been enough to stop an energy or technology transition, though it may slow the process by a few years, buying a bit of extra time for a section of the workforce.
Damen Shipyards, Windcat, and CMB.TECH have unveiled the first of six cutting-edge Commissioning Service Operation Vessels (CSOVs). The landmark launch, which took place on October 12th at Ha Long Shipyard...
Norway’s world-leading test center, METCentre, has signed contracts with three companies to test innovative floating offshore wind technology, hoping to reduce costs and advance the development in the nascent renewables...
Exxon Mobil Corporation (NYSE: XOM) has securing the largest offshore carbon dioxide (CO2) storage lease in U.S. history. The Texas General Land Office (GLO) awarded ExxonMobil the lease covering approximately...
October 10, 2024
Total Views: 416
Why Join the gCaptain Club?
Access exclusive insights, engage in vibrant discussions, and gain perspectives from our CEO.
This website uses cookies to improve your experience while you navigate through the website. Out of these, the cookies that are categorized as necessary are stored on your browser as they are essential for the working of basic functionalities of the website. We also use third-party cookies that help us analyze and understand how you use this website. These cookies will be stored in your browser only with your consent. You also have the option to opt-out of these cookies. But opting out of some of these cookies may affect your browsing experience.
Necessary cookies are absolutely essential for the website to function properly. This category only includes cookies that ensures basic functionalities and security features of the website. These cookies do not store any personal information.
Any cookies that may not be particularly necessary for the website to function and is used specifically to collect user personal data via analytics, ads, other embedded contents are termed as non-necessary cookies. It is mandatory to procure user consent prior to running these cookies on your website.