Edward Conard

Top Ten New York Times Bestselling Author

  • “…a comprehensive explanation of the modern economy.” - Julian Robertson, Founder, Tiger Management
  • “…a fresh argument for the productive value of inequality.” - David Autor, Professor of Economics, Massachusetts Institute of Technology
  • “…a very valuable contribution.” - Larry Summers, former Secretary of the Treasury and director of the National Economic Council, president emeritus, Harvard University
  • “…a comprehensive explanation of the modern economy.” - Julian Robertson, Founder, Tiger Management
  • “…a fresh argument for the productive value of inequality.” - David Autor, Professor of Economics, Massachusetts Institute of Technology
  • “…reminds us that inequality sends a signal of what society lacks most, in America’s case, entrepreneurship and risk taking.” - Lawrence Lindsey, CEO, The Lindsey Group, former Director of the National Economic Council
  • “…reminds us that inequality sends a signal of what society lacks most, in America’s case, entrepreneurship and risk taking.” - Lawrence Lindsey, CEO, The Lindsey Group, former Director of the National Economic Council
  • “Unintended Consequences provides a provocative interpretation of the causes of the global financial crisis and the policies needed to return to rapid growth. Whether you agree or not, this analysis is well worth reading.” - Nouriel Roubini, New York University; Chairman, Roubini Global Economics
  • “Unintended Consequences represents the most cogent and persuasive analysis of the Financial Crisis to date.” - Andrei Shleifer, 1999 John Bates Clark Medal Winner
  • “…a very valuable contribution.” - Larry Summers, former Secretary of the Treasury and director of the National Economic Council, president emeritus, Harvard University
  • “A full-throated defense of economic dynamism.” - The Wall Street Journal
  • “…a must-read for serious students of economic policy.” - Glenn Hubbard, Dean, Columbia Business School, and former Chairman of the Council of Economic Advisers
Upside of Inequality Oxford Unintended Consequences
Buy the Books
  • Macro Roundup
  • About Roundup
  • About Ed Conard
  • Highlights
  • Topics
  • Subscribe
Edward Conard
  • twitter
  • facebook
  • linkedin
  • youtube
  • Email
  • Text Message (SMS)
  • Twitter/X
  • LinkedIn
  • Facebook
  • WhatsApp Message
Subscribe to Macro Roundup Emails
  • Mentions 26
  • Primary focus 21
Showing 21 database articles primarily about Financial Crisis
Currently filtering by:
  • Remove Financial Crisis
  • Remove "primary topics only" restriction
  • Remove 'Database'
Show all 7,212 articles
For whatever topics you select (currently: Financial Crisis):
Choose search scope

Your importance filter 'Database' shows fewer articles.

Remove filters to see full article counts

The 2000s housing bubble was greatly exaggerated

Tim Lee Full Stack Economics
Date Posted:
November 12, 2021
Is Database:
Database

New homes accounted for only 1.8% of housing inventory in 2005, far below the late 1970s’ rates. Housing prices have surpassed 2006 levels after adjusting for inflation @TimLee

The perception of a massive housing bubble in the 2000s is challenged by data showing that total housing production in 2005 was slightly below the 1978 peak of 2.3m units, and new homes accounted for only 1.8% of housing inventory, far below the late 1970s' rates. Population growth remained steady at just under 1% from the mid-1970s to mid-2000s, indicating that the slowdown in housing construction wasn't due to demographic changes. Furthermore, housing prices have surpassed 2006 levels after adjusting for inflation, suggesting that the boom was driven by fundamental factors like low interest rates and regulatory constraints rather than speculative excess. The misdiagnosis of the boom as a bubble led to policy errors, exacerbating the recession and contributing to prolonged housing shortages.

Tim Lee on how he misunderstood the so called housing "bubble""...What if the big problem in the early 2000s wasn’t an excess of houses but a shortage of them?...The idea that the 2000s housing boom reflected a housing shortage probably sounds wrong to you. After all, “everyone knows” that the mid-2000s saw an unprecedented building boom. Here’s a chart of single-family housing starts between 1974 and 2006: This chart shows a clear upward trend from 1980 through 2005, with housing starts reaching an all-time record in 2005. However, single-family houses aren’t the only types of home! People also live in multi-family apartment buildings and in manufactured homes. When you factor in those additional housing types, things look different: Here I’ve stacked up the three types of housing to show the total number of homes constructed each year. Over the 30 years between 1975 and 2005, there was a consistent pattern where homebuilding peaked around 2 million units during each economic boom. Total housing production in 2005 was actually slightly below the all-time high of almost 2.3 million units reached in 1978. And even this chart makes the 2005 housing boom look more impressive than it actually was, because it doesn’t factor in population growth. A better way to judge the pace of homebuilding is to compare the growth of homes to the growth of people: Here I took the top line from the previous chart and divided it by the total number of housing units to get a growth rate of homes in red. I compare this to the growth rate of people in blue. As you can see, it used to be common for the housing stock to grow more than 2 percent in a year. But after the growth rate of homes fell below 2 percent in 1987, it never reached that level again. New homes in 2005 accounted for 1.8 percent of housing inventory, an 18-year high, but far below the peak construction rates of the late 1970s and early 1980s. And this slowdown in housing construction can’t be explained by a slowdown in population growth. The nation’s population was growing at around the same rate—just under 1 percent—in the mid-1970s and the mid-2000s...."

Tim Lee, "The 2000s housing bubble was greatly exaggerated," Full Stack Economics, November 5, 2021, https://fullstackeconomics.com/the-2000s-housing-bubble-was-greatly-exaggerated/

The 2000s housing bubble was greatly exaggerated

In 2006, the New York Times published a chart that I consider the defining image of the housing crisis. Based on data from the economist Robert Shiller, it showed how American home prices have changed over more than a century.

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 1


I remember being astonished by this chart when I first saw it, and I remember seeing it over and over as the crisis unfolded. It seemed to prove that something had gone seriously wrong with the housing market, and that it was only a matter of time before prices returned to normal levels.

For a few years after 2006, that forecast seemed to come true. Housing prices fell rapidly between 2007 and 2012. But then something surprising happened.

Today you can download the same data set from Robert Shiller’s website, updated to the present day. And it shows that housing prices are now above the supposedly unsustainable levels of 2006. And that’s after adjusting for inflation.

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 2


And yet not very many people think we’re in the middle of a second housing bubble. Rather, most experts believe that today’s housing prices reflect “fundamental” factors. Interest rates are at all-time lows, giving homebuyers more spending power. And regulatory restrictions have created housing shortages in many metropolitan areas.

But that leads to a question that at first glance might seem crazy: what if those same explanations largely explain the housing boom that peaked in 2006? What if the big problem in the early 2000s wasn’t an excess of houses but a shortage of them?

An alternative view of the housing crisis

That’s the thesis of Shut Out, a 2019 book by Kevin Erdmann, a scholar at the Mercatus Center. Erdmann’s book attracted little notice at the time it was published. But his thesis has gotten more plausible as housing prices have zoomed upwards over the last two years.

Erdmann argues that policymakers misdiagnosed the causes of the housing boom, and that led to catastrophic policy errors. In particular, because the Federal Reserve thought housing was overvalued in 2007, it didn’t cut rates fast enough in response to the housing crash. That helped turn what might have been only a mild, industry-specific downturn into a severe, economy-wide recession. And that recession, in turn, made the housing crisis bigger than it needed to be, since many previously solvent homeowners lost their jobs or saw their mortgages go under water.

This view is shared by Gregor Schubert, a UCLA professor who recently earned his economics PhD studying the housing crisis at Harvard.

“To me, the strongest piece of evidence in favor of the recession causing the housing crisis rather than the housing crisis causing the recession is the fact that prices snapped back up, in similar geographic configuration, after the economy has recovered,” Schubert told me.

Schubert points out that the places with the highest 2006 prices, like Los Angeles, did relatively well during the Great Recession and “took off like a rocket ship afterwards.” In contrast, cities that didn’t experience much of a bubble, like Atlanta, suffered big home price declines in the crash. That, he said, suggests that the housing crash was driven by broader macroeconomic factors more than an oversupply of homes in any particular part of the country.

If Erdmann and Schubert are right, we’re still living with the consequences of misdiagnosing the housing boom as a speculative bubble. After the crash, housing construction fell to its lowest level in decades, and remained depressed for several years. That under-production contributed to the housing shortages that now plague much of the country.

There was never a national housing glut

The idea that the 2000s housing boom reflected a housing shortage probably sounds wrong to you. After all, “everyone knows” that the mid-2000s saw an unprecedented building boom. Here’s a chart of single-family housing starts between 1974 and 2006:

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 3


This chart shows a clear upward trend from 1980 through 2005, with housing starts reaching an all-time record in 2005. However, single-family houses aren’t the only types of home! People also live in multi-family apartment buildings and in manufactured homes. When you factor in those additional housing types, things look different:

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 4


Here I’ve stacked up the three types of housing to show the total number of homes constructed each year. Over the 30 years between 1975 and 2005, there was a consistent pattern where homebuilding peaked around 2 million units during each economic boom. Total housing production in 2005 was actually slightly below the all-time high of almost 2.3 million units reached in 1978.

And even this chart makes the 2005 housing boom look more impressive than it actually was, because it doesn’t factor in population growth. A better way to judge the pace of homebuilding is to compare the growth of homes to the growth of people:

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 5


Here I took the top line from the previous chart and divided it by the total number of housing units to get a growth rate of homes in red. I compare this to the growth rate of people in blue.

As you can see, it used to be common for the housing stock to grow more than 2 percent in a year. But after the growth rate of homes fell below 2 percent in 1987, it never reached that level again. New homes in 2005 accounted for 1.8 percent of housing inventory, an 18-year high, but far below the peak construction rates of the late 1970s and early 1980s.

And this slowdown in housing construction can’t be explained by a slowdown in population growth. The nation’s population was growing at around the same rate—just under 1 percent—in the mid-1970s and the mid-2000s.

Metros with limited housing supply had higher prices

Of course, even if there wasn’t a national housing glut, there still might have been oversupply in particular cities. So let’s get more granular.

When people think of the housing boom, they think of two things: a boom in home prices and a boom in building construction. You can find examples of both things happening in the early 2000s. But to a large extent, they happened in different places.

Superstar cities like San Francisco, Los Angeles, New York, and Boston saw home prices soar to record levels, but these cities were building homes at rates far below the national average. Strict regulations prevented the construction of new homes, so rising demand drove big increases in home prices.

On the other hand, cities like Atlanta, Dallas, and Minneapolis had strong economies and significant housing demand in the 2000s, but they coped with it by building a lot of housing. So prices rose only modestly.

If every American city fell into one of these two categories, it might have been obvious that what was happening in the 2000s was not a “housing bubble” but simply an object lesson in the importance of adequate housing supply. Cities with ample housing supply maintained moderate home prices. Cities that didn’t, didn’t.

What made the 2000s confusing was that there was a third category of cities that had rapid housing growth and rapidly rising home prices. These included Phoenix, Las Vegas, Miami, Tampa, and California’s Inland Empire. If you wanted to make the case that the US was in the throes of an irrational housing bubble, these were the cities to focus on.

In Phoenix, for example, home prices doubled between 2001 and 2006, even though the Phoenix metro area was building homes at a record pace. New housing permits in the Phoenix area rose from 41,000 in 2001 to 63,000 in 2004—far more than the 37,000 housing permits in the much larger Los Angeles area. Yet home prices in Phoenix still rose by 17 percent between those three years—and then another 54 percent between 2004 and 2006.

The combination of rapid building and soaring prices in cities like Phoenix led many people to conclude that this was an irrational and unsustainable housing bubble. You couldn’t say the high prices were the result of limited housing supply because Phoenix was building homes at a brisk pace.

But Erdmann has a different interpretation—one that’s backed up by Schubert’s empirical work: the housing booms in these cities were largely driven by underbuilding in the superstar cities.

The spillover hypothesis

In the 1990s and early 2000s, a lot of college-educated people moved to Silicon Valley for high-paying jobs at technology companies. Housing was scarce, but the new workers made enough money to outbid locals for market-rate apartments. As rents and home prices rose, middle- and working-class locals found it harder and harder to afford housing. Every year, thousands of them fled the San Francisco Bay Area for more affordable housing elsewhere.

These lower-earning workers didn’t disperse randomly across the country. Many moved to Phoenix, which was also getting a lot of inbound migrants from Los Angeles. The overall scale of California-to-Arizona migration was massive. In 2005, for example, Arizona welcomed about 90,000 new residents from California—1.5 percent of Arizona’s population.

Many of these people weren’t wealthy enough to afford a home in Los Angeles or San Francisco, but they weren’t necessarily poor either. Many could comfortably afford to buy a house in a less expensive housing market like Phoenix.

Erdmann has lived in Phoenix since the 1990s, so he got to see this process first-hand. “You can go around and talk to people at neighborhood parties here and a good portion of them will say ‘we were in San Francisco and couldn't afford it any more,’” he told me.

A similar story applies to most of the other cities we think of as typifying the housing bubble. Around 50,000 people moved from California to Nevada in 2005, with many settling in booming Las Vegas. Other Angelenos were moving to the Inland Empire, which the Census Bureau considers a separate metropolitan area from Los Angeles but is only about an hour’s drive away.

On the East Coast, hundreds of thousands of New Yorkers and Bostonians moved to Florida in the early 2000s, driving housing booms in Orlando, Tampa, and Miami.

In effect, superstar cities were outsourcing their housing development problems. In the early 2000s, the Phoenix area was expanding its housing stock quickly to accommodate the flood of California refugees. But there’s an inherent limit to how quickly a region can build new houses. So even with the high rate of housing production in Phoenix, prices still rose.

In a empirical paper published earlier this year, Schubert found a causal connection between inter-city migration and home price spillovers. The more people who move between two cities, the more home prices will “spill over” from one city to the other. When San Francisco housing gets more expensive, people move to Phoenix and Phoenix housing gets more expensive too.

The conventional view holds that rising home prices in Phoenix and Las Vegas were driven by speculators hoping to find a “greater fool” who would pay an even higher price—or by gullible consumers, likely financed by subprime loans, who didn’t realize they were getting a bad deal. But the migration story suggests another possibility: middle-class homebuyers were coming from Los Angeles or San Francisco and simply saw Phoenix homes as a bargain.

I ran this theory by Mark Calabria, a Cato Institute scholar who ran the Federal Housing Finance Agency under President Trump.

“Migration trends very clearly show growth into Phoenix from places like California,” Calabria acknowledged. “A lot of the supply response in Phoenix was demand by people not being able to live in San Francisco. But I would still argue that we overbuilt in Phoenix at the time.”

Rents weren’t rising

Dean Baker is a left-leaning economist at the Center for Economic and Policy Research. He’s known as one of the first experts to “call” the housing bubble. Way back in 2002, he wrote an article bluntly concluding that “there is a housing bubble” that “must eventually come to an end.” Two years later, he put his money where his mouth was, selling his condo in Washington DC and renting a home while he waited for the bubble to pop. It turned out to be a smart move, as he was able to buy back into the market near its low point in 2009.

Baker has continued to defend the bubble thesis, most recently in a 2018 paper. So I thought he’d be the perfect person to poke holes in Erdmann’s arguments.

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 6


One of Baker’s strongest points is that vacancy rates were high throughout the housing boom. “The vacancy rate grew rapidly in the decade of the 2000s, peaking around 2008,” Baker told me. “That’s not consistent with the story of a housing shortage.”

As you can see above, almost 11 percent of housing units were vacant in 2000. That was near the highest level in decades, and the vacancy rate rose even more during the early 2000s. If the nation were suffering from an acute housing shortage during this period, we should have expected vacancy rates to move in the other direction.

This is a good point as far as it goes. But I find it striking that vacancies never really decline during the 1980 to 2010 period. If vacancies had been low in the 1990s and then shot up during the 2000s, that would be strong evidence that there was an over-supply of housing. But the gradual rise makes me wonder whether there were longer-term forces pushing up the vacancy rate.

I’m not sure what that might be. Maybe people were buying more vacation homes. Maybe people were moving away from rust-belt cities and leaving vacant homes behind. Maybe the Census Bureau was getting better at counting vacant properties. Without knowing where these vacancies occurred and why, it’s hard to know if they are bubble-related or not.

Baker also points out that home prices rose much faster than rents during the early 2000s. The chart below compares inflation-adjusted rents to inflation-adjusted home prices—with both indexed to be equal in 2000.

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 7


As you can see, rents have only marginally outpaced inflation over the last 30 years, while home prices have been much more volatile. Baker argues that if housing shortages had been the primary force pushing up home prices in the 2000s, we should have seen rents rising at the same time.

This is a great point, and it convinces me that the 2000s housing boom wasn’t entirely driven by housing shortages in a few coastal cities. At the same time, I don’t think it comes close to proving that the run-up in prices in the early 2000s was entirely a speculative bubble.

Much of the divergence between home prices and rents during the early 2000s can be explained by falling interest rates. Suppose a family can afford to pay $1,000 per month on a mortgage. In 2000, they would have gotten a mortgage at around 8 percent; that would have enabled them to borrow around $135,000. By 2004, interest rates had fallen to 5.8 percent, so they could have borrowed $170,000 with the same $1,000 monthly payment.

So falling interest rates enabled families to buy roughly 25 percent more house in 2004 than they could buy in 2000 with the same monthly payment. That means falling interest rates can explain almost all of the 28 percent increase in the ratio of home prices and rents between 2000 and 2004.

If you had taken a snapshot of the housing market in early 2004, things would have looked pretty normal. Home prices in San Francisco and Los Angeles were soaring because of local housing shortages. In most other places, prices had risen modestly thanks to falling interest rates. There were a few places where prices seemed to be going crazy—especially Las Vegas and Miami. But this wasn’t the first time in American history that a few local housing markets had dramatic boom-and-bust cycles.

But the last two years of the housing boom are harder to explain. Between January 2004 and January 2006, national home prices rose an additional 20 percent, adjusted for inflation, at a time when rents were trending down and mortgage rates were trending up. Home prices got especially crazy in Las Vegas (up another 48 percent, inflation adjusted, in two years), Phoenix (up 64 percent), and Miami (up 52 percent).

So I think it would go too far to say there was no housing bubble at all during the 2000s. Things clearly got frothy near the end. The high prices of 2005 were probably not sustainable. Some correction was probably inevitable, at least in a few cities.

However, people wrongly concluded that the entire national housing boom of the 2000s was a speculative bubble. They came to believe that prices were far above levels that could be justified by fundamentals, and that there were millions of excess homes.

The Fed botched the housing downturn

This mistake had profound consequences because the perceived size of the housing bubble influenced decision-making by the Federal Reserve. The Fed started raising its benchmark interest rate in 2004, reaching a peak of 5.25 percent in mid-2006. Part of the Fed’s goal was to raise mortgage rates and thereby cool a housing market it viewed as overheated.

The policy worked—too well, as it turned out. New housing starts peaked in early 2006 and began to fall. By June 2007, new home starts were at their lowest level in a decade, and home prices were falling.

At this point, the Fed faced a crucial choice: when and how quickly to cut interest rates. Cutting earlier and more aggressively would have provided a cushion for the housing market by pushing down mortgage rates and luring new buyers into the market. An early rate cut also would have sent a signal that the Fed wasn’t going let the bottom fall out of the housing market. That would have boosted the confidence of homebuilders and might have limited job losses in the construction sector. This would have been a no-brainer if the Fed had believed that the housing boom had been mostly healthy with a bit of froth at the end.

But things looked different if you believed that a massive housing bubble had bequeathed the country with millions of extra housing units that needed to be “worked off.” In that scenario, aggressive rate cutting would have merely been delaying an inevitable reckoning. Even worse, it might have allowed the bubble to get even bigger, leading to an even bigger crisis a few years down the line. In this view, keeping rates high at 5.25 percent was tough but necessary medicine.

Unfortunately, the Fed took this latter approach. The central bank held rates at 5.25 percent at its June 2007 meeting and maintained the same rate in August. New housing starts plunged another 20 percent between June and September, and the decline of home prices accelerated.

Meanwhile, the employment situation was deteriorating, if subtly at first. The summer of 2007 had a couple months of negative job growth, though this was not apparent until later data revisions. Even in the good months, job growth was slower than population growth. By the time the Fed cut rates in September, it was too late to prevent the onset of the Great Recession in December 2007.

Today, many people believe that the severity of the 2007 housing crisis was made inevitable by the size of the housing bubble. But Erdmann and Schubert’s analysis convinced me that that’s not true.

A large portion of the housing boom between 2000 and 2006 was driven by the fundamentals. If there was over-building in 2004 and 2005, it was modest in scale and limited to a handful of metropolitan areas. If homes were overpriced at the end of 2005, it was probably by 10 or 15 percent nationally, not 30 percent.

If the Fed had understood this at the time and acted accordingly, it could have averted a lot of human misery. Home prices would not have fallen so much, and fewer people would have lost their jobs. That, in turn, would have limited the losses of banks that bet on the mortgage market, and might have prevented the 2008 financial crisis.

Other countries had big booms without big busts

You’re probably still skeptical of the claim that the post-bubble crash didn’t need to be so severe. So I’ll close with this chart, which compares US housing prices to some of our peer countries:

The 2000s housing bubble was greatly exaggerated: Extended Excerpt Image 8


In the first half of the 2000s, Canada, the United Kingdom, and France all had housing booms that looked a lot like ours. The shape of the French bubble was eerily similar to our own, while British home prices rose even faster.

But starting in 2006, our housing market diverged from theirs. US housing prices fell by more than 30 percent. Home prices in the UK, France, and Canada zoomed upward for another year or two, then fell by 18, 8, and 7 percent, respectively. Prices then rebounded more quickly in all three countries.

It’s hard to look at this chart and maintain that the depths of the 2008 housing crash was foreordained. Canada, France, and the UK have economies similar to our own, and they all experienced housing booms like ours. But none of them suffered crashes that were anywhere close to ours. Perhaps with better policies, we could have had a smaller, gentler housing bust too.

His bottom line, “…So I think it would go too far to say there was no housing bubble at all during the 2000s. Things clearly got frothy near the end. The high prices of 2005 were probably not sustainable. Some correction was probably inevitable, at least in a few cities. However, people wrongly concluded that the entire national housing boom of the 2000s was a speculative bubble.They came to believe that prices were far above levels that could be justified by fundamentals, and that there were millions of excess homes….”

  • Financial Crisis
  • Comparisons
    • Cross-country
    • Historical
  • GDP
    • Business Cycle
    • Growth
    • Housing
Previous articleNovember 12, 2021Winner Takes All? Tech Clusters, Population Centers, and the Spatial Transformation of U.S. InventionTech clusters now account for 34.2% of US patents, up from 11.3% in 1975-1979. Activity has reallocated from larger population centers.Next articleNovember 12, 2021Revised Build Back Better: CliffnotesThe revised Build Back Better bill creates work disincentives by replacing the childcare income phaseout with a cliff, raising marginal tax rates. Medicaid expansions are reduced, affordable housing funding is cut by half to $150B, and Obamacare shifts costs to taxpayers. Green energy provisions add to labor costs, and penalties for unvaccinated employees soar to $1.37M/year.
Showing 20 database articles primarily about Financial Crisis

Why the world is saving too much money for its own good

Economist Staff The Economist
Date Posted:
February 4, 2022
Is Database:
Database

Global wealth held by households, firms, and governments has surged from $160tn to $510tn since 2000, increasing from 460% to 610% of global GDP.

Since 2000, global wealth held by households, firms, and governments has surged from $160tn to $510tn, increasing from 460% to 610% of global GDP. This growth in savings has been driven by factors such as rising foreign-exchange reserves, which jumped from 5.2% of global GDP in 1998 to 15.2% in 2013, and increased corporate savings, which rose from less than 10% to nearly 15% of world GDP between 1980 and 2015. Additionally, demographic shifts have contributed to this trend, with the share of the global population over age 50 rising from 15% in the 1950s to 25% today, expected to reach 40% by 2100. These dynamics have pushed asset prices up and interest rates down, creating macroeconomic challenges and potentially leading to a future resembling Japan's current economic state, characterized by low growth and interest rates.

"...In 1999, Mr Bernanke had chided the Bank of Japan for failing to rekindle Japanese growth after a bubble burst, despite reducing interest rates to zero. Yet in the 15 years after he christened the saving glut, finance ministries and central bankers around the world became familiar with the struggle to maintain steady growth in the context of zealous saving. Since 2000 alone, the value of global wealth held by households, firms and governments has roughly tripled, from $160trn to $510trn, or from about 460% of global gdp to 610%, according to McKinsey Global Institute, a think-tank…The contribution of growth in reserves to savings was most pronounced around the time Mr Bernanke sounded his warning. From 1998 to 2008, official foreign-exchange reserves jumped from 5.2% of global gdp to 11.5%, powered by a steady rise in oil prices and reserve accumulation by China. During this period, reserve growth probablydominated other sources of saving; research by Francis Warnock and Veronica Cacdac Warnock of the University of Virginia suggests that reserve-accumulation in the year to May 2005 alone reduced the yield on ten-year Treasury bonds by 0.8 percentage points.Reserve growth paused during the global financial crisis, then resumed in the years after, reaching a peak of 15.2% of global gdp in 2013(see chart 2).... Work by Lukasz Rachel, of the London School of Economics, and Larry Summers, of Harvard University, reckons that over the past half century, rising government debt across rich economies pushed up interest rates by about 1.5 percentage points.This effect was more than balanced out by other factors in the past, but might not be in the decades ahead....Increased inequality accounts for about 0.6 percentage points of the decline in rich-world interest rates since the 1970s, say Messrs Rachel and Summers...High-rolling households have not been alone in stockpiling savings. For decades, corporations have been hoarding money as well, retaining a large share of their hefty net profits. According to Peter Chen, of the Analysis Group, an economic consultancy, and Brent Neiman, of the University of Chicago, and Loukas Karabarbounis, of the University of Minnesota, annual global corporate saving rose from less than 10% of world gdp to nearly 15% between 1980 and 2015. The corporate sector has been acting as a net lender to the global economy, rather than as a net borrower from it...Corporate saving, in contrast, rose relatively slowly before 2000, then much faster thereafter, as firms salted away cash from increased profits. In America, for instance, corporate profits have hovered above 10% of gdp for most of the period since 2006, after never rising above 8% over the prior quarter century....In a recent paper examining the effects of demographic change on saving,Etienne Gagnon, Benjamin Johannsen and David López-Salido of the Federal Reserve Board suggest that ageing in America may account for about one percentage point of the drop in interest rates since the 1980s.(Other recent work finds still larger effects, of as much as three percentage points.) If past is prologue, rates seem sure to remain low. Barring a surge in procreation, or the embrace of a dystopian “Logan’s Run” approach to the aged, the world’s population will continue to get older. The share of global population over the age of 50 rose from 15% in the 1950s to 25% today, say Adrien Auclert and Frédéric Martenet, of Stanford University, Hannes Malmberg, of the University of Minnesota, and Matthew Rognlie, of Northwestern University. It is expected to rise to 40% by 2100(see chart 3). That may well turn out to be an underestimate, if recent fertility trends are anything to go by. In 2021, India’s birth rate declined to just 2.0 children per woman—below the rate at which births and deaths are in rough balance. Indeed, a growing number of emerging markets have flipped to the slow population growth common in rich countries. Recent research by Matthew Delventhal of Claremont McKenna College, Jesús Fernández-Villaverde of the University of Pennsylvania and Nezih Guner of the Universitat Autònoma de Barcelona concludes that such transitions—the switch from high mortality and fertility rates to low ones which accompanies economic development—are happening faster over time. The transition took a half century or more 100 years ago, but now tends to be compressed into just two or three decades. Some 80 countries have completed this transition, and in virtually all the rest it is under way....Recent work by Noëmie Lisack, of the Banque du France, Rana Sajedi, of the Bank of England, and Gregory Thwaites, of the University of Nottingham, estimates that this habit of leaving behind savings will by mid-century depress interest rates by nearly half a percentage point relative to current levels. With neither inequality nor the level of reserves showing signs of sustained fall, the ineluctable force of demography should continue to drive savings growth. The world, in other words, may come to look ever more like Japan. There, the median age is 48, more than a quarter of the population is over 65, and the yield on a 30-year government bond is a cool 0.8%, despite a government debt load of 259% of gdp. A generation ago, Mr Bernanke reckoned that Japan’s lacklustre growth and subterranean rates of inflation and interest were the consequence of “self-induced paralysis” by the central bank. Today, such realities seem more like the dull fate of a world with more savings than it quite knows what to do with...."

Economist Staff, "Why the world is saving too much money for its own good," The Economist, February 5, 2022, https://www.economist.com/briefing/2022/02/05/why-the-world-is-saving-too-much-money-for-its-own-good

Why the world is saving too much money for its own good

In 2005, ben bernanke, then a member of the Federal Reserve’s Board of Governors, wondered at a tide of money washing over American shores—and worried about its consequences. Grasping in a speech for a way to describe the phenomenon, he coined a phrase. “Over the past decade,” he noted, “a combination of diverse forces has created a significant increase in the global supply of saving—a global saving glut.” Savers of all sorts—from older Americans preparing for retirement to oil-exporting countries accumulating sovereign-wealth funds—were shoving more money into stocks and bonds than could be put to use by those looking to invest in plants and equipment.

Why the world is saving too much money for its own good: Extended Excerpt Image 1


In 1999, Mr Bernanke had chided the Bank of Japan for failing to rekindle Japanese growth after a bubble burst, despite reducing interest rates to zero. Yet in the 15 years after he christened the saving glut, finance ministries and central bankers around the world became familiar with the struggle to maintain steady growth in the context of zealous saving. Since 2000 alone, the value of global wealth held by households, firms and governments has roughly tripled, from $160trn to $510trn, or from about 460% of global gdp to 610%, according to McKinsey Global Institute, a think-tank (see chart 1). Many of them have borrowed from each other to acquire assets, taking debts to worryingly high levels. But in aggregate they are prudent ants rather than spendthrift grasshoppers. This savings growth helped push asset prices ever upward and interest rates ever lower, creating macroeconomic headaches worldwide.

Now the pandemic has shaken pillars of the global economy in ways which could fundamentally alter saving patterns. Tight labour markets are shifting money to workers who are eager to spend, contributing to the highest inflation in a generation. Central banks which had found themselves unable to push interest rates down enough to keep inflation from falling below their targets are beginning to push rates up to keep inflation from soaring. Yet while new enthusiasm for government borrowing or a retreat from globalisation could help to drain savings and establish a new normal, it seems more probable that Mr Bernanke’s glut will persist, thanks to old habits and old people, who are a growing share of the world’s population.

The rising reservoir of global savings, most of which is held in bank deposits, bonds, corporate equity and property, has been fed by three main tributaries: governments hungry for foreign-exchange reserves, penny-pinching households and firms, and workers nearing retirement age. It was the first flow, saving by governments, which preoccupied Mr Bernanke. Governments’ accumulation of foreign-exchange reserves adds to saving in two ways. Resource-exporting economies save part of the windfall earned from their exports and plough it into stocks and bonds. Some of these piles are held as official reserves; the Russian government has reserves, excluding gold, valued at $460bn, while Saudi Arabia’s are worth $440bn. Windfalls have also been shifted into sovereign-wealth funds; that of Abu Dhabi is worth almost $700bn, while Norway’s is valued at more than $1.3trn.

Other economies pile up foreign-exchange reserves as they intervene in markets to reduce the value of their currencies, to boost exports or to build up a hoard of safe assets which can be drawn upon in times of financial stress. In effect, these interventions squeeze consumption in their home economies, reducing spending relative to production and thus contributing to current-account surpluses which must be absorbed by the rest of the global economy. Reserves held by South Korea, Singapore, Taiwan and India have grown into the hundreds of billions. No country has engaged in such practices to more disruptive global effect than China, which holds some $3.2trn in foreign-exchange reserves.

Why the world is saving too much money for its own good: Extended Excerpt Image 2


The contribution of growth in reserves to savings was most pronounced around the time Mr Bernanke sounded his warning. From 1998 to 2008, official foreign-exchange reserves jumped from 5.2% of global gdp to 11.5%, powered by a steady rise in oil prices and reserve accumulation by China. During this period, reserve growth probably dominated other sources of saving; research by Francis Warnock and Veronica Cacdac Warnock of the University of Virginia suggests that reserve-accumulation in the year to May 2005 alone reduced the yield on ten-year Treasury bonds by 0.8 percentage points. Reserve growth paused during the global financial crisis, then resumed in the years after, reaching a peak of 15.2% of global gdp in 2013 (see chart 2).

Reserves plateaued thereafter (and indeed fell slightly as a share of gdp), and a decline in the years ahead cannot be ruled out. A protracted period of post-pandemic financial stress could force some emerging economies to deplete their reserves. If economic strains and geopolitical tensions force Russia and China to draw down their hoards, that might place upward pressure on interest rates.

Yet it is also possible that the pandemic will lead to a new surge in reserves. Yes, a shift to zero-carbon energy may eventually doom fossil-fuel windfalls, but the transition might well mean high prices for oil and gas, since new production is likely to stagnate. Meanwhile, the pandemic and its aftermath will probably reinvigorate the appeal of defensive foreign-exchange reserves. During the financial panic of March 2020 and again in recent months, as straitened global conditions squeezed emerging markets, the economies which weathered stresses best were those with ample foreign-exchange reserves. This lesson has already been put to use. By the autumn of 2021, reserves were roughly $1trn higher than they were before covid-19.

The effects of reserve accumulation could also be offset by increased government borrowing. Government debt loads, already high pre-pandemic, have exploded over the past two years; in 2020 alone, public debt as a share of gdp surged by nearly 20 percentage points across advanced economies, to 123%, and nearly ten points across emerging economies, to 63%. Work by Lukasz Rachel, of the London School of Economics, and Larry Summers, of Harvard University, reckons that over the past half century, rising government debt across rich economies pushed up interest rates by about 1.5 percentage points. This effect was more than balanced out by other factors in the past, but might not be in the decades ahead.

A first-class problem

A second stream of saving has flowed from the households and firms which have done best over the past few decades. Since the 1970s, inequality has risen across many economies. Wealthier households have a higher propensity to save, so this shift in the distribution of income contributed to the saving glut, according to work by Atif Mian, of Princeton University, Ludwig Straub, of Harvard University, and Amir Sufi, of the University of Chicago. From 1983 to 2019, the share of American income going to the top 10% of the income distribution rose by 15 percentage points, they reckon. Because of this “saving glut of the rich”, average annual saving by the top 1% of American earners alone has outstripped annual average net domestic investment since 2000. Increased inequality accounts for about 0.6 percentage points of the decline in rich-world interest rates since the 1970s, say Messrs Rachel and Summers.

High-rolling households have not been alone in stockpiling savings. For decades, corporations have been hoarding money as well, retaining a large share of their hefty net profits. According to Peter Chen, of the Analysis Group, an economic consultancy, and Brent Neiman, of the University of Chicago, and Loukas Karabarbounis, of the University of Minnesota, annual global corporate saving rose from less than 10% of world gdp to nearly 15% between 1980 and 2015. The corporate sector has been acting as a net lender to the global economy, rather than as a net borrower from it.

As with reserve accumulation, the relative importance of such factors has waxed and waned. Income inequality rose sharply from around 1980 to 2000. In the years since, it has levelled off in some economies, like Britain’s, and increased at a slower pace in others, like America’s. Corporate saving, in contrast, rose relatively slowly before 2000, then much faster thereafter, as firms salted away cash from increased profits. In America, for instance, corporate profits have hovered above 10% of gdp for most of the period since 2006, after never rising above 8% over the prior quarter century.

Income inequality and corporate profitability cannot be forecast with any certainty. Both reflect the interaction of myriad forces, from the balance of corporate and labour power, to the state of technological progress and productivity growth, to government tax and regulatory policy. It is possible that the trends of the past half century might be upended by the pandemic and its aftermath. Over the past 18 months, tight labour markets helped push wages upward and strengthened workers’ leverage in bargaining with their employers. Slower growth in the labour forces of ageing societies could help to preserve these gains, and perhaps enable a resurgence by organised labour. Firms—especially big and profitable technology ones—are in the cross-hairs of regulators looking to boost competition. Better times for workers should also squeeze profits, in addition to reducing inequality.

A retreat from globalisation could amplify these trends. It would increase the earning power of the working masses in rich countries, while hitting the profits of multinational firms and the higher incomes of their white-collar workers. On the other hand, substantial reversals in inequality are relatively rare in recent economic history. The great compression in incomes that occurred from the 1910s into the post-war decades occurred as fortunes were hammered by the Depression and liquidated to fund wars, as taxes on the rich soared well above current levels. For now, such upheavals seem unlikely.

What is more, as Mr Mian and co-authors write, the effects of inequality on saving can feed on themselves. As high saving by the rich pushes down interest rates, they argue, poorer households increase their borrowing to sustain their consumption. But as debt piles up, they find themselves forced to reduce spending to pay back loans. Their debt payments, furthermore, represent a transfer of more money to rich households whose purchases of assets (like mortgage-backed securities) effectively finances the borrowing of the non-rich. The trap which results—of perpetually high inequality, low interest rates, and high debt among poorer households—could prove difficult to escape, sustaining the savings of the rich as a potent macroeconomic force.

Far more certain is the third great river of savings, whose flow, which has grown in importance, might well swamp other post-pandemic changes in behaviour. The world is not getting any younger, and in coming decades the savings of the old stand to apply relentless pressure on the macroeconomy. Across time and countries, household saving follows a reliable pattern. When workers are young, they save little or even take on debt. Their savings rise through their 30s and 40s before peaking a decade or so before retirement. As populations have grown older over the past half century, in the rich world especially, the share of workers in their prime saving years has risen as well, leading to ever more money in nest-eggs and ever lower yields on the assets therein.

Why the world is saving too much money for its own good: Extended Excerpt Image 3


In a recent paper examining the effects of demographic change on saving, Etienne Gagnon, Benjamin Johannsen and David López-Salido of the Federal Reserve Board suggest that ageing in America may account for about one percentage point of the drop in interest rates since the 1980s. (Other recent work finds still larger effects, of as much as three percentage points.) If past is prologue, rates seem sure to remain low. Barring a surge in procreation, or the embrace of a dystopian “Logan’s Run” approach to the aged, the world’s population will continue to get older. The share of global population over the age of 50 rose from 15% in the 1950s to 25% today, say Adrien Auclert and Frédéric Martenet, of Stanford University, Hannes Malmberg, of the University of Minnesota, and Matthew Rognlie, of Northwestern University. It is expected to rise to 40% by 2100 (see chart 3).

That may well turn out to be an underestimate, if recent fertility trends are anything to go by. In 2021, India’s birth rate declined to just 2.0 children per woman—below the rate at which births and deaths are in rough balance. Indeed, a growing number of emerging markets have flipped to the slow population growth common in rich countries. Recent research by Matthew Delventhal of Claremont McKenna College, Jesús Fernández-Villaverde of the University of Pennsylvania and Nezih Guner of the Universitat Autònoma de Barcelona concludes that such transitions—the switch from high mortality and fertility rates to low ones which accompanies economic development—are happening faster over time. The transition took a half century or more 100 years ago, but now tends to be compressed into just two or three decades. Some 80 countries have completed this transition, and in virtually all the rest it is under way.

What is more, the pandemic further depressed birth rates in many countries. China’s birth rate touched a record low in 2021, potentially bringing forward the era of declining Chinese population. America experienced a baby bust too, which in combination with falling immigration depressed the population growth rate to just 0.1% in 2021—the smallest annual increase on records going back to 1900. The end of the pandemic could bring a rebound in birth rates. But there is no mistaking the broader trend: the world is greying, fast.

Innumerable shades of grey

Will the effect of ageing on saving necessarily remain the same in future as it was over the past half century? In an influential book, Charles Goodhart, of the London School of Economics, and Manoj Pradhan, of Talking Heads Macroeconomics, a research firm, argue that the greying of the population will depress interest rates only up to a certain point, after which there will be a “great demographic reversal”. Their view rests in part on the observation that while workers on the verge of retirement save heavily, those already retired begin to spend down their stores of stocks and bonds. An increase in the share of the population above retirement age, then, could mean that the proportion of workers in their high-saving years will peak and then decline, dragging down saving and pushing up interest rates.

A great demographic reversal seems intuitive, particularly in places like America where an oversize cohort—the baby-boomers—is easing into retirement. But other economists say there are reasons to expect ageing to continue to depress interest rates. They note, for example, that it is the age profile of a population as a whole which matters. Even as more people retire, the age of the typical working person will continue to rise toward those prime saving years. There are boomers aplenty, but the median age in America is still just 38. Another reason is that, in the emerging world, a larger share of workers have their prime saving years still ahead of them. The median age in India is only 28, for instance. So long as financial markets remain reasonably integrated around the world, higher saving anywhere helps to depress interest rates everywhere.

Perhaps most important, people in retirement do not tend to spend everything. Rather, for a number of motives—to avoid outliving their savings, or to provide for heirs, among others—they tend to maintain large stocks of wealth well into retirement. In Britain, for instance, as of 2018, people 80 or older held more wealth than those aged 45 to 49. Recent work by Noëmie Lisack, of the Banque du France, Rana Sajedi, of the Bank of England, and Gregory Thwaites, of the University of Nottingham, estimates that this habit of leaving behind savings will by mid-century depress interest rates by nearly half a percentage point relative to current levels. With neither inequality nor the level of reserves showing signs of sustained fall, the ineluctable force of demography should continue to drive savings growth.

The world, in other words, may come to look ever more like Japan. There, the median age is 48, more than a quarter of the population is over 65, and the yield on a 30-year government bond is a cool 0.8%, despite a government debt load of 259% of gdp. A generation ago, Mr Bernanke reckoned that Japan’s lacklustre growth and subterranean rates of inflation and interest were the consequence of “self-induced paralysis” by the central bank. Today, such realities seem more like the dull fate of a world with more savings than it quite knows what to do with.

  • Financial Crisis
  • Comparisons
    • Cross-country
    • Historical
  • GDP
    • Growth
    • Savings Glut/Trade Deficit

The Term Spread as a Predictor of Financial Instability

Dean Parker and Moritz Schularick Liberty Street Economics
Date Posted:
December 7, 2021
Is Database:
Database

The term spread, a key indicator of financial stability, is significantly lower in the run-up to financial crises, with a 2pp lower average in the US.

The term spread, the difference between short- and long-term interest rates, is a significant predictor of financial crises, with its predictive power evident both internationally and in the U.S. Historically, the term spread is about 1 percentage point lower on average in the two years before a crisis, and in the U.S., this effect nearly doubles to 2 percentage points lower. For instance, prior to the 2007-08 financial crisis, the term spread fell by 3 percentage points. This narrowing is often driven by rising short-term rates, indicating increased risk-taking by financial intermediaries. Such changes suggest declining interest margins and heightened financial risk, making the term spread a valuable tool for forecasting financial instability.

The FRBNY's Dean Parker and Moritz Schularick find that term spread is a useful indicator of financial crisis both domestically and overseas The effect is grounded in an uptick at the short end of the yield curve likely driven by higher risk taking by financial intermediaries in the run up to a crisis, "...It is clear that theterm spread is significantly lower in the years before a financial crisis, both in the international sample and in the U.S. case. When all countries are considered, the term spread is approximately one percentage point lower on average in the two years before the onset of a crisis. For the United States specifically, this effect is almost doubled in the year before an onset, reaching 2 percentage points lower than usual on average.For a concrete example, in the run-up to 2007-08 financial crisis in the United States, long-term rates declined despite increasingly tight monetary policy, giving rise to Alan Greenspan’s famous description of the development as a “conundrum.” As a result, the term spread fell by 3 percentage points at the time. Similarly, though not as widely discussed contemporarily, the term spread declined a total of 3.3 percentage points in the United States between 1924 and 1928 in the lead-up to the 1929 crash and Great Depression. In the run-up to normal recessions, however, we observe only limited movement.... There are various possible explanations for the predictive ability that depend on whether the decrease of the term spread is driven by the short-term rate rising or the long-term rate falling. As seen in the panel chart below, when taken in isolation, rising short-term rates seem to play the dominant role for the narrowing of the term spread. This is because the long-term rate does not seem to behave differently in the run-up to a crisis. Such an increase in short-term funding rates relative to the yield on long-term investments is indicative of declining interest margins and higher risk taking by financial intermediaries. Our findings hence echo the evidence for rising financial risk taking in financial markets before financial crises that is reflected both in quantities of credit growth and a depressed price of risk..."

Dean Parker and Moritz Schularick, "The Term Spread as a Predictor of Financial Instability," Liberty Street Economics, November 24, 2021,
https://libertystreeteconomics.newyorkfed.org/2021/11/the-term-spread-as-a-predictor-of-financial-instability/

The Term Spread as a Predictor of Financial Instability

The term spread is the difference between interest rates on short- and long-dated government securities. It is often referred to as a predictor of the business cycle. In particular, inversions of the yield curve—a negative term spread—are considered an early warning sign. Such inversions typically receive a lot of attention in policy debates when they occur. In this post, we point to another property of the term spread, namely its predictive ability for financial crisis events, both internationally and in historical U.S. data. We study the predictive power of the term spread for financial instability events in the United States and internationally over the past 150 years.

The Term Spread as a Crisis Predictor

The behavior and slope of the yield curve are longstanding tools for predicting the onset of economic recessions within the next year, or future employment growth. Consideration of the yield curve as a predictor for recessions rose to prominence with Estrella and Mishkin’s (1996) paper. Rudebusch and Williams (2008) also highlighted the power of the term spread in predicting aggregate economic downturns. While there are many academic studies and other articles on the efficacy of the term spread and its inversion for predicting the onset of normal recessions, little is known about its forecasting performance for financial crises. Our study aims to close this gap.

In normal times, a bond with a longer maturity fetches a higher rate on the market due to increased duration risk. However, in the lead up to an economic downturn, various factors can alter the shape of the yield curve. Changes in risk attitudes and search for yield, central bank policy actions, and international demand for safe assets can all influence the term spread and drive the yield for short-term debt closer to or even above the yield for long-term debt. Are such changes in the term spread predictive of a higher risk of financial instability?

The Behavior of the Term Spread around Financial Crises

For our analysis, we use the Macrohistory Database compiled by Jordà, Schularick, and Taylor (2017). The data cover eighteen advanced economies around the world from 1870 to 2017 and contains country specific short- and long-term rates. For the United States specifically, these are the three-month Treasury bill and ten-year Treasury bond rates, respectively. The main benefit of the Macrohistory Database is that it enables examining financial crises in a variety of economic and temporal contexts. Our international sample consists of eight-three crises out of 2,304 total observations, or approximately four percent of the sample. The United States has six years marked as crisis years over the past 128 years: 1873, 1893, 1907, 1930, 1984, and 2007. A financial crisis is defined by Jordà, Schularick, and Taylor as a period of banking distress characterized by major bank failures, exceptional losses in the banking sector, and/or significant government intervention. Briefly, the 1873 and 1893 crises were bank runs precipitated by railroad failures, 1907 was brought on by the collapse of Knickerbocker Trust, 1984 marks the beginning of the Savings & Loan crisis, and 1930 and 2007 saw the Great Depression and Global Financial Crisis, respectively. We also corroborate our results using a different definition of financial instability, namely large declines in the market value of bank equity (Baron, Verner, and Xiong 2020).

The chart below plots the term spreads in the five years before and after a financial crisis or recession. We test, using regression analysis, whether the level of the term spread is above or below normal levels in these windows. The blue dots and bars in the chart represent point estimates and confidence intervals, respectively. They can be read as the average levels of the term spread in the lead-up to and aftermath of an event compared to periods where no event occurred. Positive values imply a higher level of the term spread than usual and negative values imply a lower level than usual.

The Term Spread as a Predictor of Financial Instability: Extended Excerpt Image 1


It is clear that the term spread is significantly lower in the years before a financial crisis, both in the international sample and in the U.S. case. When all countries are considered, the term spread is approximately one percentage point lower on average in the two years before the onset of a crisis. For the United States specifically, this effect is almost doubled in the year before an onset, reaching 2 percentage points lower than usual on average. For a concrete example, in the run-up to 2007-08 financial crisis in the United States, long-term rates declined despite increasingly tight monetary policy, giving rise to Alan Greenspan’s famous description of the development as a “conundrum.” As a result, the term spread fell by 3 percentage points at the time. Similarly, though not as widely discussed contemporarily, the term spread declined a total of 3.3 percentage points in the United States between 1924 and 1928 in the lead-up to the 1929 crash and Great Depression. In the run-up to normal recessions, however, we observe only limited movement.

Using the Term Spread as a Forecasting Tool

With the knowledge that something abnormal occurs in the term spread in the years preceding a financial crisis, the natural next step is to examine its efficacy as a predictive tool and how it functions when used as part of a larger model including other known predictors of crises. Schularick and Taylor (2012) show that real bank-loan growth is a strong predictor of impending crisis and that model serves as the base for our later models. As for definitions of financial crises, we use both the Jordà-Schularick-Taylor narrative and the bank equity declines from Baron, Verner, and Xiong (2020).

We run logistic regressions to predict the two types of crises and compare models using real bank-loan growth and term spread as predictors. We also test the inclusion of an inverted yield curve (a negative term spread). The results are reported in the table below with each column reporting a separate regression.

The Term Spread as a Predictor of Financial Instability: Extended Excerpt Image 2


The crucial statistic for the performance of the model as a forecasting tool is the “area under curve,” which gives a metric for comparing the performance of classifiers in terms of the trade-off between false positives and true positives. It offers a test if the model performs better than a coin toss in predicting a crisis.

Our main finding is that, for both crisis definitions, including the term spread alongside standard predictors yields a significant improvement in forecasting power. A smaller term spread increases the risk of a financial crisis. Using the inverted yield curve as a predictor results in a slightly worse predictive ability of the model.

There are various possible explanations for the predictive ability that depend on whether the decrease of the term spread is driven by the short-term rate rising or the long-term rate falling. As seen in the panel chart below, when taken in isolation, rising short-term rates seem to play the dominant role for the narrowing of the term spread. This is because the long-term rate does not seem to behave differently in the run-up to a crisis. Such an increase in short-term funding rates relative to the yield on long-term investments is indicative of declining interest margins and higher risk taking by financial intermediaries. Our findings hence echo the evidence for rising financial risk taking in financial markets before financial crises that is reflected both in quantities of credit growth and a depressed price of risk (Krishnamurty and Muir 2017; Baron and Xiong 2017).

The Term Spread as a Predictor of Financial Instability: Extended Excerpt Image 3


Conclusion

The term spread is often used as an early warning indicator for recessions. In this post, we showed that it performs well as a predictor of financial crises, both internationally and in the United States alone. There is a significant benefit to including the term spread as a predictor for two separate crisis definitions. We identified that this effect is driven by the short end of the yield curve rising and offered a potential explanation based in higher risk taking by financial intermediaries in the time before a crisis.

  • Financial Crisis
  • GDP
    • Financial Markets

U.S. Housing as a Global Safe Asset: Evidence from China Shocks

William Barcelona Federal Reserve Board
Date Posted:
November 29, 2021
Is Database:
Database

Chinese capital outflows significantly impacted U.S. real estate btw 2010-2016, with $1bn in net money and deposit outflows from China correlating to a $0.7bn increase in inflows to the U.S.

Between 2010-2016, Chinese capital outflows significantly impacted U.S. real estate, with $1bn in net money and deposit outflows from China correlating to a $0.7bn increase in inflows to the U.S. This influx contributed to house prices in major U.S. cities exposed to Chinese demand growing 7% faster than less exposed areas. The correlation between Chinese deposit outflows and U.S. inflows was notably strong, peaking during periods of economic stress in China, such as 2011-2013 and 2014-2016. These inflows were largely unrecorded in official statistics, reflected in the U.S. balance of payments as a statistical discrepancy. The data suggests that U.S. residential real estate served as a safe haven for Chinese investors, with inflows reaching $70bn during periods of concern about China's economic stability, explaining up to 90% of the widening gap in house price growth between China-exposed and non-exposed areas.

Research from the Fed finds evidence of risk adverse savings flowing out of the PRC into the United States having a significant impact on real estate prices in impacted area“…We find evidence of an impact of foreign capital inflows on the evolution of house prices in major U.S. cities. The magnitude of the premium in price growth in China-exposed over non- exposed areas averages about 2 percent in the two years following each of the two episodes of China shocks in the last decade. Then, using local projections, we find that Chinese capital inflows to the United States explain the majority of the widening in price growth differentials after Chinese stress episodes. Overall, the evidence we present is consistent with U.S. residential real estate serving as a safe haven asset for foreign Chinese households….”

William Barcelona, Nathan Converse, and Anna Wong, "U.S. Housing as a Global Safe Asset: Evidence from China Shocks," Federal Reserve Board, November 2021, https://www.federalreserve.gov/econres/ifdp/us-housing-as-a-global-safe-asset-evidence-from-china-shocks.htm

Relationship Between Excess Price Gaps and Capital Infows from China

".... Figure 12 plots the relationship between deposit inflows from China and Hong Kong along with the evolution of the gap in house price growth between China-exposed ZIP codes and the matched controls.10 Recall that in Section 2 we presented evidence that funds brought to the U.S. via the banking system were being used for house purchases with a lag. The relationship between inflows and the estimated treatment effect also exhibits this behavior: the contemporaneous correlation is only 0.06, but rises to 0.36 with a three-quarter lag. This is why Figure 12 plots the treatment effect three quarters ahead. The degree of comovement between the two series is striking, and we see that peaks in capital infows from China and Hong Kong coincide with peaks in the treatment effect three quarters ahead. It is also notable that there was essentially no relationship between the two series prior to 2010, the year in which China liberalized some controls on capital outflows...”

U.S. Housing as a Global Safe Asset: Evidence from China Shocks: Extended Excerpt Image 1


"...To control for the state of the U.S. economy as it relates to the housing market, we include as controls the month-on month growth in seasonally adjusted U.S. non-farm payrolls as well as the average 30-year mortgage rate in the U.S. The matrix contains lagged values of the dependent variable, the shock, and the controls, with our specification containing nine lags. We experiment with alternative lag structures and differencing (e.g.year-on-year rather than month-on-month changes); the results are qualitatively similar to those presented below. The results of the estimation are presented in Figure 13. We find a significant and positive relationship between deposit flows from China to the U.S. and the gap in house price growth between exposed and non-exposed ZIP codes. The effect peaks at around eight months. Recall that in Section 2 we showed that deposit out flows from China showed a strong correlation with the U.S. statistical discrepancy with a lag of three quarters and noted that this pattern is consistent with Chinese residents moving money into U.S. banks and using it to purchase real estate on average three quarters later. It is therefore striking that the impulse response in Figure 13 is also consistent with such timing. As the China deposit inflows variable enters our specification in logs, the estimates in Figure 13 imply that a one percentage point increase inflows generates an 0.008 percentage point widening in the gap in price growth between China-exposed and non-exposed areas in the U.S. This effect may seem small at first glance, but recall from Figure 12 above that inflows reached roughly $70 billion during periods of concern about a China hard landing in 2012 and 2015. Taking a concrete example, banking inflows from China were $10.1 billion in July of 2015 and $32.2 in August of that year. Our estimates imply this increase explains 90 percent of the widening gap in house price growth between China-exposed areas and those not exposed...."

The Effect of Chinese Demand on U.S. House Prices

"..The difference in the mean growth rates of the two distributions provides the average treatment effect on the treated (ATET) of exposure to foreign Chinese capital over the 6-year window. For treatment definition 1, the mean house prices over this period for the treatment grew 7 percent faster than for the control group, or 1.1 percent faster per year. For treatment definition 2, mean house price growth for the treatment group was 14 percent faster over the 6 year period, or 2.2 percent per year, compared to that of the control. Another way to visualize the cumulative impact is to look at the evolution of the house price index of the treatment and control group (Figure 9). Because of their differential growth rates, the house price level of the treatment group has diverged significantly from the control group in recent years. For the 20 cities included in the treatment definition 1, the divergence picked up after 2008, and for the 34 cities in the treatment group 2, the divergence picked up since 2010...."
U.S. Housing as a Global Safe Asset: Evidence from China Shocks: Extended Excerpt Image 2

Core of paper, "...Aggregate capital flows data from balance of payments (BOP) accounts offer additional clues to the size of foreign purchases of U.S. residential real estate. While the most recent IMF Balance of Payments Manual (BPM6) species that foreign purchases of residential real estate should be included in foreign direct investment, the U.S. and indeed many countries do not measure such flows. As a result, these flows are captured only in the residual statistical discrepancy line of the balance of payments, or as the difference between the U.S. measured current account deficit and the measured financial inflows from abroad that finance that deficit. When the measured current account deficit exceeds the recorded net financial inflows, a positive statistical discrepancy arises. In the U.S. case, the statistical discrepancy primarily reflect two missing assets: financial derivatives, and the object of interest for our study foreign purchases of U.S. residential real estate assets.Since 2008, the U.S. BOP statistical discrepancy experienced several episodes of turning positive, meaning that some U.S. capital inflows are not being captured in official statistics. In particular, since 2010 we note a striking increase in the comovement of private capital outfows from China and missing net capital in ows to the United States as captured by the statistical discrepancy line in the U.S. BOP. Figure 1 shows that the 12-quarter rolling correlation between the two variables went from being zero or negative to above 0.8 and remained elevated from 2012 to 2017. We next explore bilateral capital ows data between the U.S. and China at a more granular level...."

U.S. Housing as a Global Safe Asset: Evidence from China Shocks: Extended Excerpt Image 3


"...Large cross-border transactions, particularly for real estate purchases, oftentimes involve transactions between a foreign bank and a U.S. bank. So naturally, one might ask: how do recorded banking outflows from China comove with U.S. data on ows into U.S. banks from China? Panel (a) of Figure 2 plots gross out flows via money and deposits as reported in Chinese balance of payment statistics, along with recorded flows into deposits at U.S. financial institutions from China and Hong Kong, obtained from the U.S. Treasury International Capital (TIC) System.3 We include flows from Hong Kong because of the widely documented practice of Chinese households using banks in Hong Kong as a conduit when moving funds abroad. Panel (a) of Figure 2 shows a striking degree of comovement between total Chinese deposit out flows and the pattern of Chinese deposit in flows to the United States. Most notably, total bank out flows from China and bilateral bank in flows to the United States from China both spiked during the two recent periods of deteriorating economic conditions in the Chinese economy, first in 2011-2013 and again in 2014-2016. This comovement suggests that residents in China shifting money abroad place a substantial share into the U.S. banking system. At the peak of the first episode, in the fourth quarter of 2011, in flows to the United States accounted for 29 percent of total Chinese money and deposit out flows. And at the height of the second episode, when China unexpectedly devalued its currency in the third quarter of 2015, flows from China and Hong Kong into U.S. deposits accounted for 48 percent of total Chinese money and deposit out flows. To verify that the comovement observed in panel (a) of Figure 2 is not simply a reflection of a high degree of banking integration between the U.S. and China, we examined the correlation between foreign banking out flows from other countries and bilateral banking in flows to the U.S. from those same countries. The results of this exercise, which can be found in the Appendix (Figure A2-1 and also Table A21) confirm rm that the comovement we observe for Chinese flows is not the norm. Rather, from 2010 onward, we observe an unusually close relationship between bank flows out of China to the rest of the world and bank flows from China into the U.S...."

U.S. Housing as a Global Safe Asset: Evidence from China Shocks: Extended Excerpt Image 4


"...In normal times, the U.S. statistical discrepancy is small in size and has an average value of zero.6 But the discrepancy has historically registered sizeable positive values during bouts of international financial turmoil such as the Asian Financial Crisis and (as seen in panel (b) of Figure 2) the Global Financial Crisis, due to unrecorded safe haven flows into the United States (Flatness et al., 2009). It is therefore notable that not only do banking in flows from China (the green line in Figure 2) peak during the 2011-13 and 2014-16 periods of heightened concern about a hard landing in China, but the U.S. statistical discrepancy became large and positive as well, despite those not being periods of global financial stress. Panel (b) of Figure 2 shows inflows from China to the U.S. banking system along with the three-quarter-ahead value of the U.S. statistical discrepancy. Figure 2 makes clear that the U.S. statistical discrepancy peaked three quarters after bank in flows from China and Hong Kong during the two episodes of economic distress in China during the period we are studying. Conversely, the statistical discrepancy dropped to zero three quarters after banking inflows from China and Hong Kong dropped to their lowest level ever, in the third quarter of 2016. In Appendix Figure A2-2, we show that the correlation between the two series demonstrate a strong positive value starting at a lag of two quarters, peaking at a lag of three quarters. What is the significance of the three quarter lag in the strong relationship between banking inflows from China and the U.S. statistical discrepancy? In fact, it is further suggestive of substantial in flows of Chinese capital to the U.S. residential real estate market. This is because bank transactions involving foreigners are measured in the U.S. balance of payments while real estate transactions are not. Consider an example in which a resident based in China moves money into a U.S. bank to purchase a house in the United States: When the Chinese resident deposits money in a U.S. bank, the bank reports an increase in its liabilities to China, which shows up as capital inflow from China. Six to nine months later, when the same foreign resident takes the money out to purchase a house, the bank reports a drop in its liabilities to China, generating a capital outflow to China in official statistics. The earlier capital inflow from China and subsequent out flow to China exactly nets out to zero, a neutral impact on the U.S. net investment position vis-a-vis China. Even though the foreigner has purchased a claim on a U.S. asset (the house), which is technically an inflow of direct investment from abroad, in practice it is not recorded in the balance of payments. This unrecorded FDI inflow adds to the U.S. statistical discrepancy, pushing it upwards. The three quarter lag in the relationship is consistent with foreign residents depositing funds in U.S. banks and then taking between six and nine months to find a house to buy and settle the resulting real estate transaction, a very plausible time frame. A larger implication of this idiosyncrasy in the U.S. balance of payments is that over time, the missing real estate in flows would lead to an understatement of the gross U.S. liabilities to China in the U.S. net international investment position accounts. To more formally establish the connection between U.S. missing in flows and Chinese capital outflows, we regress the four quarter moving average of U.S. statistical discrepancy and three China-specific variables that proxy for shocks: Chinese FX reserve sales, net Chinese money and deposits out flows, and changes in the Chinese macro conditions, measured by the coincident macro climate index published by the Chinese National Bureau of Statistics (NBS). Taking into account the lagged relationship evident in Figures 1 and 2, we lag these explanatory variables by three quarters.

U.S. Housing as a Global Safe Asset: Evidence from China Shocks: Extended Excerpt Image 5


"..Because Figure 1 indicates that the relationship between Chinese outflows and U.S. inflows changed dramatically in 2010, in the regressions we allow the coefficient on the Chinese variables to vary over time. Specifically, we create dummy variables for pre- and post- 2010Q2 periods and interact them with each China variable. Additionally, in the post-2010Q2 period, we allow the coefficient on the China variables to vary depending on whether it represents a positive or negative signal regarding the outlook for the Chinese economy. Net foreign exchange reserve sales, for example, would be a negative signal, indicating that the authorities are intervening against currency depreciation pressure emanating from private market participants. Conversely, net foreign exchange reserve purchases would suggest intervention to dampen appreciation due to net capital inflows to China. Finally, we include the year-on-year log change in the VIX to control for global financial conditions more generally. The results, shown in Table 1, further confirm that negative (positive) shocks from China are associated with an increase (decrease) in U.S. statistical discrepancy net inflows since 2010Q2, with a three quarter lag. The pre-2010 China shocks are not important in explaining the safe haven flows, as none of these Chinese variables are significant when interacted with the pre-2010Q2 dummy. The VIX, our measure of global financial conditions, is insignificant across all specifications,suggesting that unrecorded capital inflows to the U.S. are better explained by Chinese factors than by global financial conditions more generally. Strikingly, the regressions using Chinese capital outflows variables have substantial explanatory power: the R-square is 0.42 for the net foreign reserves sales regressions, and 0.28 for the regressions with Chinese money and deposit outflows. A back of the envelope calculation based on these results suggests that each $1 billion in net reserves sales by the Chinese authorities since 2010Q2 is associated with a $0.3 billion increase in unrecorded capital inflows to the United States; for each $1 billion in net money and deposit out flows from China, there is a $0.7 billion increase..."

Specifically, “…house prices in major U.S. cities that are highly exposed to demand from China have on average grown 7 percentage points faster than similar neighborhoods with low exposure over the period 2010-2016….”

What this looks like in terms of an impact on American real estate, “.. , the estimates in Figure 13 imply that a one percentage point increase inflows generates an 0.008 percentage point widening in the gap in price growth between China-exposed and non-exposed areas in the U.S. This effect may seem small at first glance, but recall from Figure 12 above that inflows reached roughly $70 billion during periods of concern about a China hard landing in 2012 and 2015. Taking a concrete example, banking inflows from China were $10.1 billion in July of 2015 and $32.2 in August of that year. Our estimates imply this increase explains 90 percent of the widening gap in house price growth between China-exposed areas and those not exposed...."

Their bottom line, The results, shown in Table 1, further confirm that negative (positive) shocks from China are associated with an increase (decrease) in U.S. statistical discrepancy net inflows since 2010Q2, with a three quarter lag. The pre-2010 China shocks are not important in explaining the safe haven flows, as none of these Chinese variables are significant when interacted with the pre-2010Q2 dummy. The VIX, our measure of global financial conditions, is insignificant across all specifications,suggesting that unrecorded capital inflows to the U.S. are better explained by Chinese factors than by global financial conditions more generally. Strikingly, the regressions using Chinese capital outflows variables have substantial explanatory power: the R-square is 0.42 for the net foreign reserves sales regressions, and 0.28 for the regressions with Chinese money and deposit outflows. A back of the envelope calculation based on these results suggests that each $1 billion in net reserves sales by the Chinese authorities since 2010Q2 is associated with a $0.3 billion increase in unrecorded capital inflows to the United States; for each $1 billion in net money and deposit out flows from China, there is a $0.7 billion increase..."

  • Financial Crisis
  • GDP
    • Business Cycle
    • Financial Markets
    • Savings Glut/Trade Deficit
  • Monetary Policy
    • Banking

Financial crises: A survey

Amir Sufi National Bureau of Economic Research
Date Posted:
September 13, 2021
Is Database:
Database

Financial crises often result from a combination of the crisis itself & pre-existing imbalances in credit & asset prices. Credit-to-GDP ratios often exceed 150% & asset prices can inflate beyond historical norms, creating bubbles that are vulnerable to bursts.

Financial crises often result from a combination of the crisis itself and pre-existing imbalances in credit and asset prices. Prior to a crisis, rapid credit expansion can lead to unsustainable debt levels, with credit-to-GDP ratios often exceeding 150%. Asset prices, particularly in real estate and equities, may inflate beyond historical norms, creating bubbles that are vulnerable to bursts. When these bubbles burst, the resulting financial instability can lead to sharp declines in GDP, with contractions averaging 9% in severe cases. Unemployment rates can surge by 5-10 percentage points, exacerbating economic distress. Policymakers must address these imbalances proactively to mitigate the severity of future crises. The data underscores the importance of monitoring credit growth and asset price inflation as early warning indicators of potential financial instability.

Financial crises: A survey: Extended Excerpt Image 1


Amir Sufi and Alan Taylor, "Financial crises: A survey," National Bureau Of Economic Research, August 2021, https://www.nber.org/papers/w29155

Ed Comment: I LOVE to see Main finally admitting my chief criticism of their work -- criticism I published that surely they read: "The negative consequences of a crisis are due to both the crisis itself but also to the imbalances that precede a crisis." As you (Steve) recall, those were imbalances their proposed solution stupidly advocated perpetrating after the crisis as a solution to the crisis. Failing to see that allocations prior to the crisis were onetime and could not continue growing forever was a preposterously stupid oversight on their part. Ironically, I was also the one who recognized it might not be a misallocation, just a one time expansion of an allocation that could not continue to expand at the same rate forever, much less expanded in the face of the crisis as they initially proposed. It showed an utter lack of understanding of what caused the crisis--an expansion of risk-averse (offshore ) savings that destabilized an inherently unstable banking system (that costs more than it was worth to stabilized privately rather than publicly--hence the slowest recovery since ww2).

Amir Sufi and Alan Taylor argue that financial crises are predictable and foreshadowed by credit and elevated asset prices. The negative consequences are a function of both to the crisis itself but also preceding imbalances, “…Financial crises have large deleterious effects on economic activity, and as such have been the focus of a large body of research. This study surveys the existing literature on financial crises, exploring how crises are measured, whether they are predictable, and why they are associated with economic contractions. Historical narrative techniques continue to form the backbone for measuring crises, but there have been exciting developments in using quantitative data as well. Crises are predictable with growth in credit and elevated asset prices playing an especially important role; recent research points convincingly to the importance of behavioral biases in explaining such predictability. The negative consequences of a crisis are due to both the crisis itself but also to the imbalances that precede a crisis. Crises do not occur randomly, and, as a result, an understanding of financial crises requires an investigation into the booms that precede them…”

“…For financial crises to be seen as a distinct, important, and disastrous type of event, we might first ask: how damaging are they? and how frequent?The associated downturns are much more adverse than a typical normal recession. We present a headline summary in Table 1. Using local projections (LPs, see Jorda`, 2005), the deviation of real GDP per capita y is estimated h years after a crisis event. In the first two panels, the event is a crisis year and the baseline is trend; in the last two panels the event is the peak of a financial recession (a crisis within ±2 years) and the baseline is a normal recession. To start, using the simpler crisis year definition, Table 1a shows that at a 6 year horizon, real GDP per capita is lower by about 5%-6% following crises, relative to trend. Table 1b shows the result is not driven by the great global crises, the synchronized distress in many countries seen in the interwar depression and the 2008 Global Financial Crisis. Next, aligning events using business cycle peaks as in Jorda, Schularick, and Taylor ` (2013), Table 1c shows that over 6 years, real GDP per capita is lower by about 4% after financial peaks, relative to normal peaks. Table 1d shows this is also not driven global crises, with a deviation of about 3% still seen…”

Financial crises: A survey: Comments Image 1


“…The raw event frequency summary for the onset of financial crises is given in Table 2, and it is also noteworthy that, despite the unusually calm period from 1946 to 1970, when no financial crisis events were seen in advanced economies and very few in emerging economies, the incidence of financial crisis recessions has been large in recent decades, and comparable to outcomes in the turbulent 1870 to 1939 period….”

Financial crises: A survey: Comments Image 2


“…The empirical evidence we survey supports the view that financial crises are indeed predictable, especially by credit and asset price growth. Support has also built up for the view that deviations from rational expectations are an important component in explaining this predictability. In general, the findings in the literature fit a broader trend in macroeconomics towards the study of the booms that precede economic downturns; or, as (Beaudry, Galizia, and Portier, 2020) put it, “putting the cycle back into business cycle analysis.”…”

“…We highlight two interesting findings in Baron, Verner, and Xiong (2021), notably: first, declines in real bank equity returns R B are the best coincident classifier of conventional narrative financial crisis binary events, compared to many macroeconomic and financial variables; second, bank equity returns are a strong predictor of subsequent growth slow downs and credit crunches, based on an LP analysis, even controlling for real nonfinancial equity returns R N, a result we discuss in more detail below. A third result also bears mentioning: banking panics (runs by depositors/creditors) on their own have small macro-financial consequences—it is the bank failures that matter most. Obviously, panics can happen without failures, and failures without panics, in theory and in the data. This finding is important since much debate centered on whether the key locus of the crisis problem is runnable funding outbreaks (roughly, liquidity), or systemic failures (roughly, solvency). The empirical record points to the latter as the more serious issue in terms of macroeconomic consequences, and justifies the central use of solvency and failure criteria in the traditional narrative definition of a financial crisis…”

“..In sum, both measures—bank equity crashes and the traditional narrative indicator— reflect emergent problems on bank balance sheets. They are not perfectly correlated, and the failure-based narrative indicator still provides the most discriminating information: BVX count 197 narrative failure events, and out of these 193 are called as crises (98%); but out of a count of 269 bank equity crashes, only 138 are called as crises (51%). This shows that the inclusion of data on bank equity declines complements the narrative approach with useful auxiliary information….”

“…To confront the issue of whether asset price booms also contribute meaningfully to elevated financial crisis risk, Jorda, Schularick, and Taylor (2015b) collate further data series on equity and housing prices for the long-panel of advanced economies. They develop a “bubble indicator” based on whether the asset price in a given year is more than one s.d. above its de-trended value (using a lowpass filter) and whether there is also a subsequent large correction. An illustration of this approach is in Figure 6c, where the sample is again restricted to recession peaks, and the logit estimation is augmented to include a bubble indicator for either asset price. When there is no bubble in either asset price, crisis risk is generally low. In contrast, when there is either kind of bubble, crisis risk is significantly elevated, by a factor of roughly 1.5 in the mid-range of credit growth

Financial crises: A survey: Comments Image 3


“…Some illustrative evidence is shown in Figure 7a using local projections. The outcome variable is private credit to GDP, denoted CREDGDPct, from the Jord`a, Schularick, and Taylor (2017) bank loan measure, and the sample is the long-panel of advanced economies. The shock is a change in the degree of financial liberalization, treated as exogenous, according to a set of indices constructed by Kaminsky and Schmukler (2008) for the period 1973-2005, a range of dates which closely encompasses the great era of financial liberalization in both advanced and emerging economies. The index used here is the standardized sum of three measures of the domestic financial sector, the stock market, and the capital account. The figure clearly shows that in the 5 years after a financial liberalization event, changes in credit to GDP, which were on a positive long-run postwar trend anyway, had a tendency to accelerate even more rapidly….”

Financial crises: A survey: Comments Image 4


“…Illustrative evidence on trends around financial crises are shown in Figure 8 for the JST long panel. Using an event-study approach, the average evolution of each variable is plotted relative to the peak year of the cycle. Averages are displayed separately for normal recessions (solid blue line) and financial crisis recessions (dashed red line). The first row of four charts shows the familiar timing of events and macro aggregates. Crisis probability is of course high in the ±2 year window around a financial crisis recession, by construction, given the JST peak classification; it is negligible in normal recessions, although it is not exactly zero except in year zero, since nearby financial crisis events may be associated with a different nearby cyclical peak in JST. Real GDP per capita growth decelerates after a recession peak, but much more so in a financial crisis recession as expected. Likewise, a recession is associated with the onset of a disinflationary period of several years, but the trend is much more pronounced in a financial crisis recession. Finally, the fourth chart shows that financial crisis recession peaks are preceded by credit booms and followed by credit crunches much more so than normal recessions. The second row of charts in Figure 8 shows some interesting financial market covariates using selected asset prices. The first chart shows the Krishnamurthy and Muir (2017) normalized credit spread, which is the percent difference of the credit spread from its country mean (so 0% means the spread is equal to this average), and clearly spreads are tighter than average (50% lower) before a financial crisis recession peak, and much wider immediately after (50%-100% higher), compared to the minimal variation seen in normal recession events. The next chart shows the Baron and Xiong (2017) real total return on bank equities, which is a little high before a normal recession peak and indistinguishable from zero after; but near a financial crisis recession peak, bank equities experience a very large run up before, and a large crash afterwards, with significant negative real returns (note that these are log×100 units). Finally, we can see that distress clearly spills over into broader aggregate asset prices, where the onset of a financial crisis recession event similarly implies much larger and predictable reversals for investors exposed to the stock market or housing market, as shown in the last two charts….”

  • Financial Crisis
  • Comparisons
    • Cross-country
    • Historical
  • GDP
    • Business Cycle
    • Financial Markets
    • Growth
    • Savings Glut/Trade Deficit

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View

Gabriel Chodorow-Reich National Bureau of Economic Research
Date Posted:
August 16, 2021
Is Database:
Database

National real house prices rose 80% from 1997 to 2006, lost 2/3 of their gain by 2012, then rebounded, illustrating a boom-bust-rebound cycle.

National real house prices rose 80% from 1997 to 2006, lost two-thirds of their gain by 2012, and then rebounded, illustrating a boom-bust-rebound cycle. Areas with the largest booms also experienced higher long-run price growth over the entire 1997-2019 period. The correlation between boom and bust phases shows each additional % point of house price appreciation in the boom is linked to a 0.51% decline in the bust. Post-2012, each % decline during 2006-2012 is associated with a 0.52% growth, indicating a strong rebound. The study suggests that long-run fundamentals, rather than speculative bubbles, played a significant role in this cycle, with a slope coefficient of 0.81 and R² of 0.62 for price growth during the boom correlating with growth over the entire period. This pattern reflects a larger role for fundamentals, as areas with higher fundamentals saw larger rent growth over the boom-bust-rebound cycle.

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 1


Gabriel Chodorow-Reich, Adam Guren and Timothy McQuade, "The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View," National Bureau Of Economic Research, August 2021, https://www.nber.org/papers/w29140

“…The model also reproduces the empirical pattern shown in Table 4 that higher price dividend growth during the boom forecasts higher future dividend growth and not large relative price declines. For this exercise, we collapse the model time series by year and regress the log changes in dividends and price between model years corresponding to 2006 and 2019 on the log change in the price-dividend ratio during the boom. An additional log point of growth in the price-dividend ratio in the boom predicts additional 0.41 log point of dividend growth in the bust-rebound (compared to 0.20 in column (3) of Table 4) and additional 0.03 log point of price growth (compared to 0.03 in column (6) of Table 4)….echo the result from Table 4 that price rent growth in the boom not associated with long-run fundamentals strongly predicts subsequent price decline. However, they also suggest that the role of investors was mostly or wholly orthogonal to the role of fundamentals and less important to explaining the entirety of the boom or the full 1997-2019 period, which are the focus of our paper…”

New NBER argues that there was no housing bubble, national real house prices rose 80% between 1997 and 2006, lost two-thirds of their gain by 2012, but then rose again. The episode isn't best characterized as a boom-bust, but a boom-bust-rebound, "...We reevaluate the 2000s housing cycle from the perspective of 2020.1National real house prices grew steadily between 2012 and 2019, with the largest price growth in the same areas that had the largest booms between 1997 and 2006 and busts between 2006 and 2012. As a result, the areas that had the largest booms also had higher long-run price growth over the entire 1997-2019 period. With “2020 hindsight,” the 2000s housing cycle is not a boom-bust but rather a boom-bust-rebound...."

"...We argue that this pattern reflects a larger role for fundamentals than previously thought. In a first step, we use a standard spatial equilibrium framework to motivate several determinants of house prices. We find that these explain cross-city variation in long-run house price growth in reduced-form and structural supply regressions as well as the amplitude of the boom-bust-rebound across cities and severity of the foreclosure crisis. In a second step, we introduce a “neo-Kindlbergererian” model of a fundamentally rooted house price cycle in which belief over-reaction amplifies the boom and a foreclosure spiral exacerbates the bust, and discipline the model with our empirical moments. The estimated model generates the boom-bust-rebound from a single fundamental shock and quantitatively matches the cross-city patterns...."

Their housing cycle dynamic, "...House prices clear a Walrasian market, with demand emanating from potential entrants and supply coming from the the construction of new homes and foreclosures. An endogenous boom-bust-rebound cycle occurs in response to a single change in the city’s fundamental, an increase in the growth rate of the income and amenities or “dividend” from living in the city...."

Evidence: "... Figure 1 shows the national Case-Shiller house price index, deflated using the GDP price index. After a period of zero real growth, the series begins to rise in the late 1990s, peaks in 2006Q2, reaches a local trough in 2012Q1, and then grows again through the end of our sample in 2019. In what follows, we measure the boom as house price growth between 1997 and 2006, the bust as price growth between 2006 and 2012, and the rebound as price growth between 2012 and 2019.We start the boom in 1997 because very few cities have booms that start before that year..."

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 2


"... Figure 2 shows the correlation of the boom, bust, and rebound at the local level, using ZIP Code house prices from FHFA. Each blue circle represents one ZIP Code. The overlaid red circles show the mean value of the y-axis variable in each of 50 quantiles of the x-axis variable (the so-called binned scatter plot). Panel (a) shows the correlation of price growth in the boom and the bust. Each additional percentage point of house price appreciation in the boom is associated with an additional decline of 0.51 percentage point in the bust and the R2 of this relationship is 0.38. Mayer (2011) refers to this boom-bust cycle at the local level as characteristic of a housing bubble. Panel (b) reveals an equally strong correlation between the magnitude of the bust and post-2012 price growth, with each additional percentage point decline during 2006-2012 associated with an additional 0.52 percentage point of growth during 2012-2019 and an R2 of 0.37. Putting the bust and rebound together in Panel (c), house price growth in the boom is nearly uncorrelated with total price growth after 2006. Panel (d) displays the corrollary of this result:House price growth during the boom correlates strongly with growth over the entire 1997-2019 period (BBR for short), with a slope coefficient of 0.81 and R2 of 0.62..."

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 3


Results:"....Table 1 reports first-stage-type regressions for each of the endogenous variables separately. For each variable, we show the explanatory power using only the excluded instruments motivated by that variable and also using the full set of uninteracted instruments. Let H,L, and M denote the sets of instruments heuristically assigned to population growth, land share, and WRLURI, respectively. The actual IV will also include H × L, H × M, and H × L × M, where × denotes element-wise cross-set multiplication. In that sense, Table 1 contains regressions useful for establishing the explanatory power of the instruments without broaching many instrument asymptotics, a subject we address in the robustness section Column (1) shows that more land unavailability and higher initial population density both predict higher land share, with an R2 of 0.37 and joint effective F-statistic of 64.5.8 Column (2) shows that their explanatory power persists after adding other excluded instruments. Columns (3) and (4) show predictors of population. Climate amenities — higher January temperature, higher January sunlight, and lower July humidity — all predict higher population growth, as do greater restaurant density and a higher college share of the population. Bartik-predicted employment and wage growth enter somewhat noisily, although in unreported results these variables have stronger predictive power in a specification without the amenity variables. Columns (5) and (6) show predictors of WRLURI. Consistent with the results in Saiz (2010), a higher share of Christians in nontraditional denominations negatively predicts regulation while a higher ratio of public expenditure on protective inspection to total tax revenue positively predicts regulation. The final column of Table 1 reports the reduced form for long-run house price growth, using all of the uninteracted instruments. The instruments jointly explain 59% of the variation in house price growth. This column illustrates that fundamental drivers of location choice, land share, and regulation, all measured prior to the start of the boom, explain a substantial amount of the variation in house price growth over the entire BBR...."

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 4


"... Figure 3 plots the fitted values from the reduced form regression in column 7 of Table 1 against actual house price growth in various sub-periods. Panel (a) shows a strong correlation with price growth over the full BBR, consistent with the high R2 in column(7). The figure labels in red CBSAs with more than 1 million persons in 1997; these larger CBSAs have a reduced form fit similar to the full sample. Panels (b)-(d) show the correlation with each sub-period. Higher predicted long-run growth correlates positively with higher growth during the boom, negatively with growth during the bust, and positively with growth during the rebound. Thus, the reduced-form evidence is consistent with long-run fundamental growth producing a boom-bust-rebound cycle..."

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 5


"...Table 2 presents the results from estimating equation (7). Column (1) shows OLS. CBSAs with higher land share and faster population growth have higher house price growth over the full BBR, and especially so in places with both high land share and high regulation. Evaluated at the (unweighted) mean land share and regulatory burden, the long-run inverse supply elasticity is 0.58 with a standard error of 0.06 using the delta method. Column (2) reports the IV specification using all of the excluded instruments shown in Table 1 as well as the interactions of each of the instrument groups. Several features merit comment. The impact of population growth and the average inverse elasticity are slightly larger in the IV specification, consistent with the expected bias of OLS due to area-specific cost shifters. The coefficient on the main effect on land share maps to the average excess secular (i.e. not driven by population growth) increase in land prices over construction costs, which causes house prices to rise faster in areas where land is a larger share of the overall price. The value of 107 log points over 1997-2019 reflects nationwide forces such as a secular decline in interest rates and an increase in the premia to living in the more expensive city center, the latter for example due to the widespread fall in crime rates in the mid-1990s. Column (3) is our preferred specification. Relative to column (2), it omits the land share × population growth and WRLURI × population growth variables. The remaining coefficients remain relatively unchanged, but with much smaller standard errors. Perhaps not surprisingly given the large number of interaction terms and instruments, the data appear unable to tightly identify each interaction in column (2). Imposing zero restrictions alleviates this difficulty. Importantly, the overall fit as measured by the IV R2 and the inverse supply elasticity both remain unchanged between columns (2) and (3), indicating that both specifications fit the data equally well. The coefficient on the surviving interaction term land share × WRLURI × population growth indicates a larger inverse elasticity (price growth more sensitive to population) in areas with both high land share and high regulation. The R2 value of 0.40 reveals strong explanatory power of land share, population growth, and WRLURI when imposing the IVcoefficients. Thus, this column again illustrates the central result that fundamentally-driven population growth, land share, and heterogeneous long-run supply elasticities explain a substantial amount of the variation in house price growth over the entire BBR…”

The 2000s Housing Cycle With 2020 Hindsight: A Neo-Kindlebergerian View: Extended Excerpt Image 6


Fundamentals, Rents, and Price-to-Rent Ratio

"... Here, we revisit the increase in price-rent ratios with the benefit of 2020 hindsight and show that the component associated with long-run fundamentals predicts subsequent rent growth and not future price decline, consistent with our interpretation of this component as fundamentally-based. We start by characterizing the behavior of rents. Panel (a) of Figure 5 plots the growth rate of real rents in each CBSA between the 2000 Census and the 2018 American Community Survey (ACS) against the long-run fundamental, again measured as the second stage fitted value from column (3) of Table 2. Areas with higher fundamentals experienced larger rent growth over the BBR, with the relationship especially strong for larger CBSAs. Panel (b) shows the timing of rent growth using BLS CPI rent data for the 22 CBSAs with annual data since 1987, grouped into population-weighted quartiles of the long-run fundamental. Rents rise fastest in areas with the highest fundamentals, and this growth appears to represent a break from the pre-boom period. Column (1) of Table 4 shows that CBSA-level price-rent increases in the boom correlate positively with the long-run fundamental. We measure the log growth in the price-rent ratio using 2000 Census and 2006 ACS mean rent and the same house price data as above. The bivariate relationship has an R2 of 0.29. Columns (2) and (5) report the correlation of price-rent growth in the boom with subsequent rent and price growth over the 2006-18 period. This user-cost decomposition (Poterba, 1984) closely resembles the Campbell and Shiller (1988b) exercise of decomposing variation in the price-dividend ratio of a stock into future dividend growth and returns with rents replacing dividends as the cash-flow measure.15 Larger price-rent growth during the boom forecasts both higher subsequent rent growth and future relative price declines. Columns (3) and (6) restrict the variation in the price-rent ratio in the boom to the part associated with the long-run fundamental. Specifically, these columns report regressions of subsequent rent and price growth on the fitted value of the growth of the price-rent ratio from column (1). Strikingly, the rise in price-rent ratios associated with long-run fundamental growth predicts even faster subsequent rent growth than in column (2) and no subsequent price decline, validating our labeling of this component as a fundamental. Columns (4) and (7) show that the part of price-rent growth not explained by long run fundamentals predicts no subsequent rent growth and large subsequent price declines. These columns make clear that our empirical evidence admits the possibility of aspects of the housing boom not associated with long-run fundamentals; in fact, the part of price rent increases not correlated with long-run fundamentals looks very bubble-like ex post…"

Ed Comment:At the time and afterwards as prices rose, I said there was less of a bubble than claimed at the time, although today may be a bubble. I large part of the fall was driven by a run on the banks. I would think that interest rates play a large role in the price of real estate. I would think real estate prices (land plus the replacement cost of structures) x the interest rate must be proportional to incomes. Prices can temporarily rise faster than income while interest rates fall. I’m doubtful that in 2007 markets anticipated today’s low interest rates. It’s mistaken to assume markets anticipated low rates today in 2007. The “proper” valuation at that time is the expected long term rate at that time, not today’s unexpectedly lower rate, which has pushed valuations higher. Covid may have too. And today’s rates could be artificially low given what the Fed is doing. So today might be a bubble. That said, ’07 seemed like less of a bubble than everyone claimed it was. That works against Shiller BTW, who claimed with 20:20 hindsight that the ’07 bubble was obvious. Score one for Fama’s efficient market. It’s not so “obvious” anymore.

  • Financial Crisis
  • Comparisons
    • Historical
  • GDP
    • Business Cycle
    • Growth
    • Housing

Are Financial Crises Predictable?

Greg Obenshain Verdad
Date Posted:
August 10, 2021
Is Database:
Database

The Shleifer model suggests financial crises are more predictable than traditionally believed, particularly when examining periods of rapid credit & asset price growth. The probability of a financial crisis within one year of entering the Red Zone is over 13%, compared to a 4% baseline.

The Shleifer model suggests that financial crises are more predictable than traditionally believed, particularly when examining periods of rapid credit and asset price growth. Defined as the "Red Zone," these periods occur when three-year debt growth is in the top 20% and asset price growth is in the top third of historical increases. The probability of a financial crisis within one year of entering the Red Zone is over 13%, compared to a 4% baseline. Over three years, this probability rises to 45%, and even 69% when both household and business Red Zones are breached. As of Q4 2020, the US has entered a Red Zone, driven by rising debt-to-GDP and equity market rallies, indicating a heightened risk of crisis. However, crises take time to develop, materializing only 36% of the time after entering a Red Zone, underscoring the importance of monitoring credit and asset cycles as potential precursors to financial instability.

Greg Obenshain and Eldar Safarov report on a Andrei Shleifer paper (attached) we previously highlighted that argues financial crisis are relatively predictable, "...The authors define periods when three-year debt growth has been in the top 20% of historical increases and three-year asset price growth has been in the top third of historical increases as the “Red Zone,” shown in the upper right-hand corner of the figure below... The probability of experiencing a financial crisis within one year of entering the Red Zone is over 13%, compared to a 4% probability in the entire dataset. Remarkably, the probability of entering a financial crisis within three years of entering the Business Red Zone is 45% and an astounding 69% in the rare instances when both the household and business Red Zones are breached. The authors note that crises do not immediately follow high debt and asset price growth, suggesting they take time to develop.... And most interestingly, we have just entered a Red Zone as of the end of 2020.This is driven by the rise of debt-to-GDP and the equity market rally. Even if debt-to-GDP is calculated using the pre-COVID GDP level, this result holds. So, if crises are by-products of credit and asset price growth cycles, as the authors’ evidence strongly suggests, then the US may have just entered the danger zone. This does not mean that we need to worry about the sky falling just yet. The authors show clearly that crises take time to develop, and only materialize 36% of the time after a Red Zone has been entered...."

Are Financial Crises Predictable?: Extended Excerpt Image 1


Greg Obenshain and Eldar Safarov, "Are Financial Crises Predictable?" Verdad, August 9, 2021, https://mailchi.mp/verdadcap/are-financial-crises-predictable

Are Financial Crises Predictable?

The consensus wisdom among academics and practitioners alike is that crises are inherently unpredictable. But Harvard’s famed behavioral economics group has recently produced a new paper suggesting the consensus wisdom on predicting crises might be wrong—at least on a time horizon of three years or longer. Instead, they argue that rapid expansions of credit can drive asset price booms, which are followed by credit busts.

Building off earlier academic research, the authors combine data from 42 countries between 1950 and 2016 to study financial crises in the context of business and household credit growth as well as equity and home price growth. They define crises as declines in bank equities by greater than 30% or banking panics, which capture events such as the Great Recession (2007) and the Savings and Loan Crisis (1990), but not the bust of the dot-com bubble. In line with the theories of Hyman Minsky and Charles Kindleberger, the authors find that financial crises tend to follow periods that feature both elevated debt and asset price growth. The authors define periods when three-year debt growth has been in the top 20% of historical increases and three-year asset price growth has been in the top third of historical increases as the “Red Zone,” shown in the upper right-hand corner of the figure below.

Are Financial Crises Predictable?: Extended Excerpt Image 2


Businesses and households are analyzed separately, meaning a country can enter the Red Zone either because household debt and equity prices have jointly risen or because business debt and equity prices have jointly risen. It turns out that businesses and households rarely overheat together. The few crises preceded by both high business and household debt growth tend to be notable, including Japan in 1988-89, Spain in 2005-07, and Iceland in 2005-07.

The table below shows the probability of entering a financial crisis once the Red Zone has been breached, broken down by the type of Red Zone event: business, household or both.

Are Financial Crises Predictable?: Extended Excerpt Image 3


The probability of experiencing a financial crisis within one year of entering the Red Zone is over 13%, compared to a 4% probability in the entire dataset. Remarkably, the probability of entering a financial crisis within three years of entering the Business Red Zone is 45% and an astounding 69% in the rare instances when both the household and business Red Zones are breached. The authors note that crises do not immediately follow high debt and asset price growth, suggesting they take time to develop.

As a leading indicator, the Red Zone would appear to be effective. 64% of crises were preceded by either the business or household Red Zone warning within the prior three years. When the authors expand their three-year debt growth to include the top 40% of historical increases and the three-year price growth to be in the top two-thirds of historical increases, the Yellow Zone precedes 82% of crises within the prior three years. But like most leading indicators, their presence does not necessarily result in the event. Red Zones and Yellow Zones were followed by crises only 36% and 20% of the time. To give a sense of what this data looks like, we show the Red and Yellow Zone indicators for the US housing sector along with the real housing price index.

Are Financial Crises Predictable?: Extended Excerpt Image 4


The data fit well. The Yellow and Red Zones precede subsequent falls in home prices, most notably in the late 1980s and ahead of the 2008 financial crisis.

Ideally, we’d show the same chart for US businesses debt and asset price growth. However, there were no business Red Zones in the United States in the authors’ dataset. But while the authors needed to study 42 countries across 60 years so that they could get statistically significant results, we are not similarly constrained. We can use their insights to see what happens if we use US data alone. Specifically, rather than global cut-off values for Red and Yellow Zones, we can use only the US data to define the Yellow and Red Zones. The results are shown below.

Are Financial Crises Predictable?: Extended Excerpt Image 5


The Yellow and Red Zones capture the late 1980’s leveraged buyout boom and the dot-com bust. And most interestingly, we have just entered a Red Zone as of the end of 2020. This is driven by the rise of debt-to-GDP and the equity market rally. Even if debt-to-GDP is calculated using the pre-COVID GDP level, this result holds. So, if crises are by-products of credit and asset price growth cycles, as the authors’ evidence strongly suggests, then the US may have just entered the danger zone. This does not mean that we need to worry about the sky falling just yet. The authors show clearly that crises take time to develop, and only materialize 36% of the time after a Red Zone has been entered.

Credit and asset booms are what predict busts. In part, the authors argue, because investors tend to extrapolate these booms into the future, taking more risks than they should. Investors feel an inevitable desire to “reach for yield” in low-yielding environments, spurring credit growth that drives asset growth until the inevitable reckoning when some portion of the assets and some portion of the debt go bad.

  • Financial Crisis
  • Comparisons
    • Historical
  • GDP
    • Business Cycle
    • Financial Markets
    • Growth
© Copyright 2026 Coherent Research Institute · All Rights Reserved · Privacy · Terms