Odd Lots - Why It's Still So Expensive to Build Homes in America
Episode Date: October 27, 2025Everyone has an opinion on why housing is so expensive in America -- and to be fair, there are probably a lot of reasons for it. But one simple factor is that homes are expensive to build. Unlike many... other physical objects, they haven't gotten cheaper over time. So why is this? And why haven't we found a way to bring down the cost curve by building modular housing in factories or on assembly lines? On this episode, we speak with Brian Potter the author of the new book The Origins of Efficiency. Potter also worked at a modular homes startup that failed, and is also the author of the excellent Construction Physics newsletter. So we talk about what he's learned about housing, as well as broader questions about how operational efficiency is achieved over time across a range of industries. Read more:Austin, Salt Lake City Top Global List of Most Affordable CitiesAffordable Housing Left Vulnerable After Trump Fires Building Inspectors Only Bloomberg - Business News, Stock Markets, Finance, Breaking & World News subscribers can get the Odd Lots newsletter in their inbox each week, plus unlimited access to the site and app. Subscribe at bloomberg.com/subscriptions/oddlotsSee omnystudio.com/listener for privacy information.
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Hello and welcome to another episode of the Oddlots podcast.
I'm Tracy Alloway.
And I'm Joe Wisenthall.
Joe, you're a homeowner now, right?
Yeah, it's very fun.
Tell me.
Tell me how fun it is.
I know you've had a few issues that cropped up
basically as soon as you bought your new place.
I don't want to talk about.
Let's move on.
No.
This is part of my carefully planned intro.
Yes, I know.
Yeah, it's annoying.
And you have to deal with stuff.
And I may have mentioned on the show one time.
Actually, I've been lucky by and large.
But, yes, it was very funny, you know, I think literally the day or two days after we closed on my apartment in the East Village, you know, it's like when there was something wrong before, you just, there's just a phone number of someone.
There's a super.
Yeah.
We still, the building still is a super, but, you know, the landlord just deals with replacing something.
And then I think literally the day after we closed, there was like a window leak.
And it's like, wait, is there no longer a number?
Do I have to pay for this myself?
So who did you find to fix the window?
That I don't remember.
There is still a super in the building, but we had to write a check.
Okay.
One of the things that has surprised me about being a homeowner is like how low tech a lot of
housing construction and fixing actually is, right?
So if there's a leak in your ceiling, in your roof or something, it's literally
either you or some guy that you hire going up on a ladder and like putting down a few more
shingles with a nail gun, right? It all seems very old-fashioned. What did you think was going to happen?
Well, I don't know. It's like some like unitary, like robots that like crawled up there.
Yeah. No, seriously. It's the year 2025 and we're still putting houses together with like, you know,
hammer and someone comes to the box and they look through the different school. They're like, no, this doesn't
fit. This doesn't fit. Oh, I got it. And then like one second, I don't have the right screw it and they go
around to a construction store. I'll go right back. I got this. I got, yeah. Yeah, it's still pretty,
probably the way it looked when we were kids.
Okay.
Well, anyway, I've been thinking about it because a couple months ago, the Richmond Fed put out
this paper and it was all about productivity in housing construction.
And the fact that construction labor productivity in housing has fallen by more than 30% from
1970 to 2020.
That's crazy.
So you think about the arc of economic development.
You know, normally there are productivity improvements as we invent new efficiencies and as we
invent new technology in ways of making things, that hasn't happened in housing. It's still the guy,
you know, showing up with a toolbox. This strikes me as a really important element of the housing
affordability conversation that I don't think gets enough attention, which is it's easy to talk
about zoning, and I'm sure there are issues there that need reform. It's easy to, you know,
permits and all that stuff. It's easy to talk about financing, et cetera. However, housing is a product
and things get built at a cost and then sold at some profit margin above the,
that. And if that underlying cost keeps going up, and it definitely has in, say, New York City and
other areas, if that underlying cost keeps going up, then that is going to push up the cost of
housing regardless of what you do on. Now, again, like maybe zoning can make help with productivity
gains, et cetera. Nonetheless, it continues to get more expensive for the actual construction of a home,
unlike many other built goods. Right. I mean, the issue is that we don't build homes in China,
unfortunately. If we did, that would solve the problem. We don't. And maybe we could talk a little bit
about why we don't, but maybe one day we will, but that would help a lot. Well, on that note,
I mean, there have been attempts through history to have prefab houses, right? And some of the old
prefab houses that you order from like the Sears catalog in the 1920s or 1930s, those are gorgeous.
And I would happily live in one of those today. But we should talk about why it seems difficult
to build houses or at least more expensive than some other things. And also why it seems that
manufacturing other products seems to get more efficient over time while housing seems to kind of stagnant.
All right. So we do, in fact, have the perfect guest. I'm very happy to say we have Brian Potter,
who is the author of the Construction Physics newsletter on Substack. I subscribe to this, and it's fantastic.
He is also the author of the new book, The Origins of Efficiency and a Senior Infrastructure Fellow at IFP.
So really the perfect guest. Brian, thank you so much for coming on the show.
Thanks for having me.
Congrats on the book, Origins of Efficiency. Are we right in thinking that housing hasn't become that much more efficient of a process?
You are correct. And, you know, the productivity metrics, those metrics are quite complicated and you can measure it in different ways and different things.
So slightly different trends. Some of them just show flat productivity rather than fall in productivity. But the general point is, yes, it is not improved unlike almost every sort of other like physical good has gotten, you know, cheaper.
and less expensive to make overtime. Housing is not like that at all. And you worked for several years
for a prefab housing company or something like that? Yeah, my background is as an engineer. I worked as a
structural engineer for about 15 years. That's what my training is. And just that is basically just
designing buildings. So I designed parking garages and water treatment plants and apartment buildings
and stuff like that. And I had worked at different facets of the industry. And as you say, it seemed
extremely inefficient to me. We're putting up these buildings. We're putting up these houses.
is, you know, on-site by hand with a guy with a hammer. You know, it doesn't look that different
than it did a hundred years ago. You know, on my side, it was like, we're designing these
buildings from scratch every single time instead of designing it once and then making, you know,
a million copies of it like you do with a car or something like that. So yeah, it seemed,
when I was, you know, much younger, it seemed like incredibly backward and inefficient to me.
And then in about 2018, I had a chance to join an extremely well-funded construction prefab startup.
called Katera that promised like, oh, we're going to come in. We've raised all this money. We're going to
change all that. We're going to build buildings in factories. And it's going to be so much more efficient.
We're going to be the Henry Ford of housing. And we're just going to sweep away these old methods of building.
And long story short, they did not work out at all. They had raised a very, very large amount of venture capital,
about like two or three billion dollars in VC. And they burned through it in a few years and declared bankruptcy.
Oh, dear.
And then in the aftermath of that, I wanted to understand why had it all gone so wrong beyond just, you know, startups are hard.
Right.
Startups have a high, you know, a naturally high failure rate, you know, and whatever operational missteps they may have made.
I kind of came to believe that there's sort of fundamental thesis that if you build these things in factories, like we build everything else, it will get cheaper.
I came to believe that was either sort of not quite correct or at least missing a very big piece.
such we didn't know specifically what we needed to do in these in these factories to make the
costs fall. So why are houses, I guess, so customized and not standardized to your point?
Yeah. So there's a lot of reasons. One is just, you know, to go back to your point about
permitting, there's a very larry large number of permitting jurisdictions in the U.S., something like
20,000 different jurisdictions, which each might have their own slightly different versions
of building codes that sort of need to be enforced. There's just, you know, different
building sites are different sizes and shapes and have different, you know, soils which require
different things, different environmental design factors, you know, different wind speeds.
If you're in California, you need to design for earthquakes. If you're need in Florida, you need
design for hurricanes. So there's all these factors that kind of conspire to make the sort of
housing market very kind of fragmented, and it's hard to build a very, very large number of
like a uniform product.
The builders do try to do that.
They have somewhat standardized designs.
They will plunk down in like different developments across the country.
But it's quite difficult to do in really, really large numbers.
Talk to us a little bit more about prefab housing specifically or housing in a factory.
There have been multiple attempts.
And as Tracy mentioned, you used to be able to buy a home from Sears.
Talk a little bit about the sort of recent trends in this area because you do over the last
several years, you've heard a lot of, maybe the last decade, you've heard a lot of excitement
about this idea. And as you mentioned, you worked for a well-funded startup. Why now, like, what's
the general thinking? And then maybe we could get into the sort of the gap between the theory and
then what happened in practice. Yeah, so prefab is like this perennially popular idea.
Yeah, it's always the next decade. Yeah, it's always the next big thing that's going to come
along. And so every, you know, decade or two, you will kind of see these trends, like some big
company will come along and like, oh, I'm going to revolutionize the building.
with the housing industry with prefab construction.
So, and yeah, these attempts stretch back a pretty long way.
You know, and I became something of a student of these companies that have tried and failed.
So right after World War II, you have this company called the Lustron Home Company,
which made these very interesting homes, many of which are still around.
You can actually go look at them.
But they're made these like steel panels covered in porcelain that turned out to be quite
well made and quite durable.
And they got government financing to sort of fund their operation.
They had set up shop in this big.
What was once one time the biggest factory in the world?
It was this repurposed aircraft engine factory.
But they look pretty cool.
Yeah, they're very neat.
I live in Atlanta, and there's some in Atlanta that you can go and look at.
But they went bankrupt after quite a few years in the 1960s.
There was this company called Sterling Homex that said, oh, we're going to be the next, you know, Henry Ford of Construction.
They went bankrupt in a few years.
I'm sensing a pattern.
Yeah, they were part of this government program called Operation Breakthrough, which was trying to fund the development of like mass
production housing techniques. That program basically failed. None of their companies that they funded
and there were quite a few of them ended up sort of succeeding and breaking through and creating
sort of these mass produced housing products. So you kind of see the same thing happening over and
over and over again where people are trying to use prefab to like dramatically reduce the cost
of construction. And there's ways that you can do that in kind of like a very limited sense.
And you can also like build a successful business off of prefab where you're not necessarily
trying to compete on low cost, but things like, oh, we can build much faster or stuff like that.
But nobody has managed to do what everybody is trying to do, which is like, you know, be the
Henry Ford of housing.
Okay.
What's the sticking point then?
I know you walk through some of the reasons that houses tend to be customized things like
soil types and zoning and regulation.
But is that just the story of why we can't have prefab houses that are like across America?
So there's, yeah, I kind of look at this in two ways.
I think of it as terms of it.
It's very hard to introduce some of these, like, improvements, these sort of strategies you have for improving efficiency into the construction process without accumulating, like, more costs elsewhere in the process.
And then so at the same time, the gains that we found in terms of, like, these strategies for efficiency improvement have historically been much more limited than you see in, like, if you're producing, you know, a car or a light bulb or something like that.
And at the same time, we've continually added, like, more regulations and more difficulty, you know, more administrative overhead and getting stuff built, which is slowly, like, driving up the cost, even as, like, you know, we're not sort of accumulating these productivity improvements.
What's an example of, okay, this on paper looks like a productivity gain that we get in a factory, but then you pay for it somewhere else?
Sure.
So, you know, a very simple example, you know, if you're building a car in a factory, you build the entire car, right?
It rolls out of the factory line and the car is complete.
A building is too big to come out of the factory all in one piece and get sent to the job site or whatever.
So what happens is you have to sort of build your building in chunks.
That's why prefab construction is often called modular construction because you build it in these modules.
And there's different strategies for like how you break a building into modules.
But you're always like breaking it into these pieces.
And what happens when you break it into pieces is that you have to add a bunch of extra.
stuff that you wouldn't have had to add if you were just building it on site. So transporting
it down the road, you have to sort of design that to be rigid enough to like not collapsed
under like the load of like being bounced along on a truck. I used to work at a company that
build concrete parking garages, which are built from prefabricated, you know, materials. They build these
like big concrete pieces and then drive them down the road. And that was like the controlling design
factor is designing to survive the loads that would concur during transportation. And then once you
have those pieces driven down and gotten to the job site, you have to, like, stitch them together.
And so you have all these extra connectors and this extra complexity and attaching them together
that, again, doesn't exist in sort of the conventional construction process.
It's kind of crazy to think that whether we're talking about a house or a parking garage
that's presumably designed to last for decades, that a very significant factor in engineering
is that few hours that it goes down the road. I mean, that's what it sounds like. Yeah, like that's
Like that that's going to last forever, but it has to be there just for that, like, that short
transport period.
In the case of parking garages, for sure.
I guess that's why we do have some prefab houses in the U.S.
and they're called trailers because you can actually move them.
Right.
How much of this is also maybe a liability question where if you were producing prefab houses,
presumably it's not the company that's putting them together on site.
It's usually contractors or someone you hire to do it.
And I imagine there's like a disconnect between the contractors on the ground who are putting this stuff
together and the company that's building the parts?
There is, to some extent, I think that specific liability is not necessarily the biggest
controlling factor.
What is a big controlling factor, and I've written an essay about this, is that the construction
cost, like the cost in developing and putting up a new building, the sort of distribution
of that is extremely fat-tailed and right-skewed.
So basically what that means is that a construction project that goes under budget that goes
really, really well, maybe you're like 10% over budget or under budget, maybe you're 15% under
budget. You know, you can't push down that cost very much, but a project that goes over budget can be
100 or 200 or 300 or 300% over budget. So what that means is that the risk involved in like
introducing some new system that you're not sure really how it works. It's just the payoff is so
asymmetrical. It's so much more likely to cause like a massive overrun than to sort of save a
relatively small amount that these sort of builders are like rationally incentivized to not
introduce some radically new technology that's going to dramatically change how things go
because the potential costs are so extremely high.
Sort of maybe dovetailing with Tracy's question, you know, or maybe in the case of Katara
or some of these others, it's like, okay, they have some vision, but because they're not doing
the entire thing all around the country, including presumably transport, et cetera, how much is
the issue like maybe scale on the...
those ends experience with that like in theory if you had a really big experienced on the ground
distribution and final assembly workforce or whatever it is like how much would that help and how much
is the issue that people who work on the ground etc just aren't doing this full time yeah that's
a part of it is like you know this modular construction is kind of a somewhat yeah niche aspect
of the construction industry there are quite a few experts in it that know how to do it and they do it
fairly regularly and you can usually find them in like any given market i would say a different point
that you kind of alluded to scale is like another definitely big issue where it's like it's not like a
semiconductor where you can make a million of them in a factory in Taiwan and ship them all over the
world right that's another big aspect that makes it hard to sort of gain efficiencies from factory
production and goes to what i was talking about where it's hard to do that without introducing
cost elsewhere in the system the cost of like moving these modules are
is so large that it's typically not economic to ship it like more than a day's drive because
then the cost just get so high.
And so what you have instead of like one giant factory that can like produce at really,
really large scales, even sort of these modular companies that are doing like large amounts
of business, they all tend to be like done in factories like that are spread across the US.
So like gigafactory.
Yeah.
So like, you talk about like trailers like manufactured homes, which is one area that you can actually
see some pretty substantial cost reductions due to various things. Partly, it's like they're targeting
a lower end of the market and stuff like that. So like the finishes and stuff aren't quite as nice. But if you look at like the way that their business is structured, they have like more than a dozen factories spread all across the US. And then each one is serving like a day's drive catchment area. So they're not building like 50,000 houses or whatever in one factory. It's more it's closer to like 500 or a thousand or something in one factory. And so the economies of scale,
you can capture in like a given operation are just fairly limited.
Joe, I have to mention here, we didn't tell Brian that we were going to be talking about
housing construction and trailers and all of that.
This is all just off the top of his head.
It's a pretty impressive.
He sat down and we're like, by the way, can we talk about this?
Okay, you kind of alluded to it in your previous answer, but if you were going to choose
a manufacturing process that was the polar opposite of housing, what would it be?
Oh, interesting.
probably something like chemical manufacturing, you know, or like, you know, raw material manufacturing,
something like steel or something like that. Because chemical manufacturing, it's, you know, the sort of
ultimate form of like a manufacturing process, which I kind of talk about in the book, is what's called
like a continuous flow process where it just like continuously transforms your group of inputs into
the output of what you're doing, just one, you know, continuously without any sort of waiting,
interrupting or batting or anything like that. It just all flows and is continuously transformed during the
process. And that's what like chemical manufacturing, you know, very efficient chemical manufacturing
is done. And most other like really efficient manufacturing processes, they ultimately tried to sort
converge on something that looks like that. So like the assembly line and like mass production is kind of a
way to like get something that approaches like a continuous flow process in these like very complex
manufactured goods with like thousands of parts. That was why it was such a huge transformative
thing is because now you could have this continuous flow process, which existed before for
much simpler things. But now you could adapt that to like these really, really complex
goods like cars. And that's why it was such a transformative thing when it was sort of invented
in the early 20th century. I'm curious, do the economics or the dis-economics of building houses
in this way, do they inform your perspective at all on the prospect for a small modular
nuclear reactors. I mean, there sounds like there are some similarities, especially when it comes to, like,
learning curves, et cetera. Or the soil of where you're building. Do you have any views on that in the
way? Do you think there's any parallels? So yeah. Because this is also something that it's always the
next decade away, right? Yeah, yeah. So yeah. So I talk about economies of scale in the book.
And we're talking about like nuclear stuff. There's like kind of two related economies of scale that in some
ways kind of pull in different directions. One is called, and you see this with like other sort
processing equipment, which is I call geometric scaling, which is basically as you build a piece of
equipment physically larger, it costs less per unit of whatever it is that you're producing,
basically because of like area volume relationships. As you double the volume of something,
you less than double the amount of like surface area required to enclose it and be that like
tanks or pipes or stuff like that. So like chemical processing equipment or like power plant
equipment tends to get cheaper per unit of what you're producing up to a certain point.
And eventually you run into difficulties in those scaling laws, stop working.
And this is one reason why power plants, you know, in electricity, got cheaper over sort of most
of the course of the 20th century is because we're building these power plants physically larger.
But with nuclear, you run into these very nasty dis-economies of scale around the same thing
was because as a nuclear plant gets bigger, the accidents they could have get more dangerous for
like a very small reactor, you can make it so you basically can't have a melt down.
There's just not enough heat in there to like melt through your container or whatever.
But for a very large one, the heat gets so large that the accidents become, the risk becomes
much, much larger.
And so you have to have these like very involved safety systems that maybe you don't need
to have on like a smaller reactor.
So that is something that maybe points to a reason why these maybe small modular reactors were better.
Plus, as you say, now you're getting, it's sort of the benefits of like getting, yeah,
series production and repeating it over and over and over again. But there is that tradeoff is that
you're not getting those geometric effects that traditionally like a lot of this like processing type
equipment has relied on to get cheaper. This actually reminds me of something I wanted to ask,
not necessarily about nuclear, but just manufacturing in general. When I think about efficiencies,
I think about stuff like reducing costs as much as possible, maybe just in time, inventory
management and stuff like that. The problem is that if something goes wrong,
wrong. There's very, very little cushion for protection. And I'm curious when it comes to efficiency,
how do people balance streamlining production with, I guess, building in redundancies in case the
worst happens? Yeah, that's really interesting. And the Toyota production system slash lean,
which is like a descendant of it, which I talk a lot about in the book, is kind of an interesting
balance of these two things. Because everybody thinks lean or Toyota production system, it's like,
oh, yeah, just in time. Get rid of it.
inventories, you don't have all the costs, you know, your factories can be smaller, blah, blah, blah.
But really what it is, it's sort of a balance of like for every factor that you can control,
try to like have like the flow be like as smooth as possible and eliminate all this like,
you know, slack and waste in the system.
But for the things that like you can't control, you should have your system adaptable to sort
of accommodate that and be have sort of a flexibility built into it.
So like one example is after the sort of, you know, to bring back to nuclear, after I believe
believe the sort of Fukushima nuclear accident in Japan, Toyota had a ran into like a shortage of
like automotive semiconductors for a while. And they realized that this was like a big like potential like
just bottleneck in their process. So after that, even though they're like so focused on, you know,
inventory minimization and whatever, after that accident, they basically decided they were going to
like stockpile certain critical things that maybe had difficult lead times or something like that.
And so they stockpiled like sort of automotive semiconductors.
And so during COVID, when all of a sudden, there was all of a sudden a huge like shortage
of like automotive semiconductors, Toyota for a while was like much less affected by some of these other
car manufacturers because they had learned the lesson that, oh, yeah, in sort of, you know, logistics
crunches, these semiconductors can be quite difficult to get.
And so basically people were saying, hey, I thought you were all about like inventory minimization
or whatever.
But then somebody, you know, some spokesman basically responds like, no.
this is basically a standard lean solution where it's, you try to minimize the sort of waste in the sort of areas that you can control.
But in the stuff that you can't control, you need to sort of adapt your system to accommodate it.
I want to talk more about housing, but I want to do a little detour.
America seems to have gotten, because I'm trying to understand sort of big picture the trajectories in this country for various things.
And I joked in the beginning, the problem with housing is that we haven't found a way to offshore it to China.
If we did, then probably housing would have gotten cheaper like everything else that we have manufactured there.
But I'm curious, do you have like a theory, because I have heard a satisfactory answer, why the U.S. seems to have gone backwards in plane construction?
Like, why does Boeing seem to be worse at the job of building an airplane than it was, say, 20 years ago?
Oh, yeah, that's interesting.
One point about your housing construction in China.
There actually are companies that, like, try to do this stuff in China.
They were like manufacture these modules.
But again, to my point about, you know, you incur all these extra costs.
You know, they have to break them into modules and put them on these boats and bring them over.
So it's, you know, it's a very sort of niche business.
In terms of Boeing, I mean, the standard, you know, story there is that they went into this merger with McDonald-Douglas, the finance people.
I don't like the standard story.
Yeah.
And here's why, because I love it so much, right?
And so it's like, oh, it's such a good story.
It's too perfect.
It's too perfect.
They brought in the finance people.
They care about the shareholders.
too much. Looking at the Boeing stock chart, you would not think this is a company that cares
a lot about shareholders, right? They care about shareholders too much. And if they had just stuck
with the engineers, I love that story. And because it feeds all of my biases, I'm like skeptical.
Yeah. And I mean, you know, a big part of it is just manufacturing commercial aircraft is like
extremely hard. There's like a reason that only like right now to maybe three, maybe four
companies in the entire world do it. Boeing Airbus, Embraer in Brazil of all.
places and then Comac is looks like it's going to be the big fourth one you know Japan tried for many
years to sort of break into the commercial aircraft manufacturing market and they were you know after
spending like billions of dollars they were basically gave up just because it was so difficult there
used to be many more competitors in the 1970s and they sort of got winnowed down one by one one or two
plane projects that don't pan out and you're basically out of business that's essentially what
happened to Lockheed and so it's just a very very difficult
business to sort of be in. And so Boeing is having a lot of struggles right now. But, you know,
earlier in the 21st century, you have Airbus having a lot of struggles. They had all sorts of
problems. I think on their A380 that they were rolling out. They had a lot of delays and stuff.
They had to fix on it as well. So a big part of it is just a very difficult business to be in.
There's very few people that can kind of really do it effectively.
Here's a question that I've wondered about, and maybe it relates to planes and maybe it relates to housing, maybe it relates to other things.
Like, when you see us going backwards or stalling out, like here's my question, could we have some sort of, I don't know if Dutch disease is the right answer, where it's like maybe in the middle of the 20th century that were people who were working on the floor or working in management at Boeing in a plant somewhere in Washington, who are really on the ball and really whatever.
And now in that same person in 2025 could make 10 times as much money working for a startup in Silicon Valley or Wall Street, et cetera, that there's some sort of like levels of, you know, awareness or skill or agenticness or whatever, et cetera.
And that because we have these other areas where there's so much money that there's like a type of individual who used to maybe work in a sort of construction related field that left that.
And then it's changed the talent distribution with it.
Yeah, I think that's definitely a part of it.
there's like a theory in certain circles that we've just,
we've gotten like, in a sense, too good at like allocating talent efficiently or whatever.
So like somebody extremely like talented and smart.
It's like, okay, we're going to send you to be a software developer or an AI programmer
or work in finance or whatever.
And the value that you contribute there is going to be very highly rewarded.
But what that means is like there's, you know, there's fewer people going into sort of these
other sort of, you know, engineering disciplines.
I worked as a structural engineer, which is, you know, it plays reasonably well,
but doesn't, you know, not Silicon Valley software developer salary.
And I used to sort of tell very young engineers or engineers thinking about in college or whatever,
I used to say, you know, if you're smart enough to be a structural engineer, you're smarter enough to, you know,
switch to like software development and make a lot more money and have a much less stressful job.
Yeah.
There's like, this is, I think, one part of the reason why, you know, Bell Labs, very famous AT&D, R&D lab,
the U.S. invention factory for most of the 20th century, why it would be very hard.
to have a sort of organization like that today is because the quality of talent that you could,
a place like that demanded would be so much more rewarding somewhere else.
Somewhere else.
Just quickly on aircraft, it's not like the U.S. doesn't have a history of producing like
large scale amounts of planes.
And the example that everyone tends to turn to is in World War II, right?
We produce, I think, hundreds and thousands of aircraft very, very quickly.
What were the conditions that existed back then that allowed us to ramp up that kind of production so fast?
Yeah, I've written about aircraft manufacturing during World War II.
The U.S. actually built more airplanes during World War II that have actually been built for commercial purposes for the entire history of aviation.
That's stunning.
It's because we built, you know, so many of them and not that many commercial aircraft get built.
I think a big part of it is just the U.S. was just such a huge manufacturing power.
at like the mid-20th century, you know, we weren't building very large amounts of airplanes,
but we were building more cars than anybody else.
We were building more machine tools, anybody else who were making more steel than anybody else.
The U.S. was like, you know, the China of today.
It was like by far the largest manufacturing country in the world.
And so we just had the ability to sort of redirect this manufacturing capability and talent
into sort of these new industries.
I think that was a very large part of it.
You know, people think about it's maybe, since we're talking about war, we're talking about the U.S. is the China of the 20th century, which is kind of funny.
It sounds very Eric Adams, doesn't it? The U.S. is the China. The U.S. is the China. I'm curious when you think about it, like, could there be more than one global manufacturing hub? Because when you think about economies of scale and you think about network effects, you know, it's like how many other cities in the U.S. have tried to be the San Francisco or the Silicon Valley? And they've never, you've really never replicated it. When you think about sort of agglomeration and network effects.
etc. And you think about what it takes for manufacturing. And you think about, okay, now in the
21st century, China is the China of the 21st century. And you think about the efforts at U.S.
sort of reindustrialization, because there's all this angst about whatever we can't build advanced
things. It's like, well, can we have advanced things if we don't also do the simple things like
washing machines, et cetera? Can there be more than one in the world at any given time? Or does market
logic sort of dictate that one will be the powerhouse? Yeah, that's a really interesting.
question. And so my first answer is that I don't know. And the second the second answer is I think
historically kind of what you see is that like transportation costs have kind of been something of a
barrier to preventing one country from like just dominating production of a certain thing. So even like when
in the 80s and 90s when Japanese like car manufacturers were like trouncing the US, it was still so
expensive to like ship them from Japan or whatever that you know they still, it was still valuable
to like set up local manufacturing operations in the U.S.
They still wanted to build their plants in the U.S.
to sort of make it not so expensive
to sort of transport these things.
So I wonder if like as transportation has gotten more and more inexpensive,
I wonder if that has like shifted the logic of this.
And you can have this sort of like concentration of production in a way
that maybe it wasn't quite, didn't quite make sense to do before when like these
transportation costs bit a little bit harder.
know, but it's an interesting way of your interesting question.
Just going back to Boeing for a second.
So we talked about the classic story of what went wrong at Boeing, and it's that tension
between, I guess, the manufacturers on the ground and the executives in the boardroom who are
trying to cut costs and boost the share price and things like that.
Is that like a trend or a thing that you tend to see across manufacturing where the
manufacturers are constantly under pressure from the finance execs on the top?
Or are there companies out there who have, like, crack?
that relationship where finance and manufacturers, engineers kind of work together.
Yeah, I think, you know, the pressure definitely seems to be constant pushing to find lower costs,
and which is one reason why, you know, the trend in the second half of the 20th century was like
just outsourcing, finding new places to sort of make this stuff that is cheaper.
I talk about Nike in the book, and there's sort of an interesting path that Nike takes where
it's like constantly hunting the cheapest sources of labor where they start out, manufacturing.
somewhere cheap, right? They start out manufacturing their shoes in Japan because it's much cheaper
to make them there than in the U.S. But then as Japanese labor starts getting more expensive,
they move their manufacturing to Taiwan and then from Taiwan to China. I think now it's almost all done
in like a Vietnam and Indonesia. So it's just constant hunt for the new sources of labor. And you see
that just broadly across industries. Like we're New York, which used to be sort of a garment
manufacturing center, but as New York labor got more and more expensive, they moved, you know,
first, you know, out of state into New Jersey and then to the south and then over overseas.
So there's just constant pressure. But then there's also companies that have like, I think,
bucked that trend and been, you know, more like, we think the returns from like investing in
our workforce and its capabilities is going to be valuable enough that we're going to do it.
I think, you know, a company like New Corps, which is a steel company in the U.S.,
which is like very famous in terms of like how it invests.
and its workforce and things like that.
And they've been extremely successful in doing that.
They grew from nothing to being the largest steel manufacturer in the U.S., I believe.
That just reminded me, something that I really want an answer to, and you might actually have it.
Why are communists obsessed with steel?
Oh, good question.
I just think in sort of the early 20th century, late 19th century, these were the things that, like, represented like industrial might and like successful country or whatever.
and then they never kind of like got out of that sort of framework or whatever.
So like one criticism of, you know, the Soviet Union was that, you know, they were really
maybe good at sort of building these like industrial things, but they never managed to build
like a successful computer or anything like that.
They couldn't get out of their sort of mindset.
It's sort of maybe easy to measure like success in terms of like output or whatever.
It's just like relatively, relatively simple commodity that you can, you know.
Right.
This physical thing you can point to.
Yeah.
You can point to.
pile of steel. The more tons you have, the better you've done with more complex things.
Maybe it's not maybe so amenable to sort of this top-down management style. I don't know,
but those are some of my theories. Let's get back to housing because when we started and Tracy
was talking about the fact that even setting aside the prefab stuff and you're talking about it,
the actual on the ground, one-off, et cetera, home building. It's arguably by some measure of productivity
has gone backwards or maybe it's flat. Setting aside like prefab, you've mentioned. You mentioned.
zoning, regulations, et cetera. What is your view for why just the normal sort of style of
housing construction hasn't gotten any more efficient over the year? Yeah. And so I talk about
the kind of this in the book. This goes to sort of the main thesis of the book where I sort
of break down. There's a specific points of intervention that you can do in any process to
make it cheaper. I've talked about of these a little bit, you know, economies of scale. You can make
more of what you're doing. You can introduce some like fundamental new technology, you know,
an example of this to talk about steel, like the best summer process for making steel, which
like fundamentally was simpler and took less inputs than the processes that that came before it.
So I kind of break down these different factors in the book of like what you need to do
to make some process more efficient. And if you can do those things, your process can get cheaper
and you can sell it for less. And if you can't do those things, you're, if, you know, you can't
make the process any cheaper. And all those basically paths to improvement are either like
blocked are like very difficult to do in construction. So we like we talked about economies of scale.
That's a big one. We talked a little bit about risk aversion. It's hard to kind of introduce like
fundamentally new technology. The cost of your inputs is like a big one. You know, the, the materials and
sort of energy and labor that you're using in the process. Those costs are hard to sort of reduce
in construction. It's very hard to make building materials any cheaper than they already are.
I'm kind of in like, you know, dollars per pound or dollars per like cubic foot terms,
they're basically as cheap as anything that civilization produces.
It's not easy to make those things cheaper than they already are.
It's also hard to use less of them in a way that doesn't make the house worse.
And so all these paths are that you have, you know, that a process can take advantage of to sort of get less expensive.
They're all very difficult to do in construction.
I just remembered another question that I always want to.
ask people. And I feel like you will also know the answer to this one, which is, why does America
build houses out of wood frames and timber versus the rest of the world where they tend to use
a lot more cement and concrete? Yeah. So the wood, U.S. has historically built a lot of stuff out of
wood because we had such huge supplies of it. In places like Europe, a lot of those, you know,
large forests got cut down way earlier. And so they just didn't have the huge, huge supplies of wood
that the U.S. had. And so that kind of, you know, shaped how the technology developed. Because
wood is very, very inexpensive. You can use it. It's a very inexpensive way to sort of build a house.
They do actually do sort of still timber frame construction in other parts of the world. It's maybe not
quite so dominant, but it's like used in the UK. Germany uses it. Germany actually, they have
some like prefab construction startups that are made using like timber frame, timber panel
construction. It's used in a lot of the Nordic countries that have a decent amount of supply of wood. So it's
not like unheard of. It's it's most dominant in like the U.S. and in Canada, but in other places
that have a decent amount of wood, they tend to use it as well. Should we completely give up on
prefab or major efficiency gains in housing in the U.S.? Or like, is it just there's not a way to do
this? Or is there still out there some magic bullet that's waiting to be found? You should tell us what
happened to the company you were working for as well. Yeah. So they, yeah, they raised a huge
amount of money. And they basically, after raising like several billion dollars and building all these
factories to like mass produce housing, they basically ended up going bankrupt, partly because they were
never able to, you know, sell enough of these buildings that they were trying to sell. It's very hard to,
like, pivot your operations when you're like invested in all this like physical infrastructure.
And then COVID, you know, was kind of the final nail in the coffin. I'm not completely pessimistic.
I mostly just think if you're going to sort of try to change the industry with prefab, you need to have a very strong thesis as to what specifically this time is different and, you know, why it didn't work previously and what is now has changed, what constraints have been relaxed that will make it possible now.
I don't have any number of things could change that, you know, certain materials get cheap enough.
It gets like inexpensive enough to build a factory, you know, any number of things.
I think that very, very good automation and robotics have a good chance of changing this just because even if nothing else where, you know, I'm not the most creative person in the world.
You know, I can't necessarily come up with like some amazing new way of putting a house together.
But if even if nothing else works, if you have like a robot that costs $5,000 and like basically duplicate, you know, 90, 95% of what a person can do, that would effectively solve your problem, right?
You drop in these robots and you build, you know, whatever it is that you're trying to build.
this robotic, much less expensive labor. And I have a sort of vignette in the conclusion of the book
as to what that might look like in the future. So we could get the drones that go up on the roof
and fix leaks and stuff like that.
Anything's possible.
All right. Brian Potter, thank you so much for coming on All Thoughts. Really appreciate it.
Thank you. It was great to be here.
Joe, that was a really fun conversation.
Yeah, that's really fun. I love Brian's stuff. And I feel like one of those conversations
where both of us could just ask a bunch of questions we've been meaning to
ask for a long time. I did read. Apparently his new book, The Origins of Efficiency, has a bibliography
that's like 600 items long, which is incredible to think about him pouring over like 600 different
reference sources. We didn't get into it in this conversation, but he's written about his process
before of like, okay, I want to learn about some new industry like fighter jets or whatever it is
and how he goes about diving into it, et cetera. And yes, it seems like,
As people who talk about stuff, I should probably read that.
Yeah, totally.
Speaking of which, I am very proud of us for not mentioning the word deflater at all in a conversation
about housing productivity, housing construction productivity.
I should just mention that Richmond Fed paper that I talked about in the intro.
So their conclusion was sort of an amalgamation of all the factors that we talked about
in this conversation.
So they basically said they think that smaller construction firms have reduced incentives
to invest in technological innovation because you don't get that economy of scale.
And in fact, if you look at areas with stricter zoning laws and things like that,
you can see that they actually have even less construction productivity than other areas.
Again, because like the incentives and the economies of scale just shrink and shrink and shrinks.
That's kind of interesting.
It would be interesting.
Something I was sort of curious about during that is I wonder if you just look at one market where it's very flat and dry.
I was thinking about Arizona or something like that.
Like, have they seen productivity gains there, especially thinking about some of our conversations with Chase Emerson, where there's one master plan and a bunch of houses.
We all have driven by them that all look exactly the same.
Do you get those learning curves, at least, on some limited effect?
I would be curious about that.
I feel like to some extent that is the story of the Sunbelt states, right?
You have cheaper houses there because you can have these big developments.
But it's scale.
It's scale all the way down.
And so I like that point that he made, which is that.
you can identify the sources of efficiency gains.
Scale is one, a scientific breakthrough, such as the best of our process in steel, is another one, et cetera.
But they're not magic.
Right.
They're not just going to emerge.
You know, you probably get some efficiency gains just from, you know, repeatable process or sales as labor force that gets better over time.
But by and large, you're not just going to, the silver bullet isn't going to come out of nowhere.
Yeah.
And especially the fact that there are all these sort of very fundamental reasons why.
you can't have scale or even the factories that build the prefab homes cannot be a gigafactory due to
distribution costs. You see why that you run into that constraint. That's what I was thinking. It's like
the tyranny of physics, basically. Like even though we have all these technological breakthroughs,
transportation has gotten cheaper over time, you're still limited by geography and the realities of,
you know, real world objects. And I guess that's why you can have gigafactories for something like
chips, which are really easy to send abroad. They're tiny, but you can't do it for something
large. And I really am, I curious about the sort of the point about talent distribution.
And whether they're, you know, in the 1950s for a certain type of talent, the Boeing factory
was the best place they could have gone. That was the cutting edge. And now the Boeing factory
still more or less resembles the Boeing factory of the 1950s with maybe similar pay scales
and so forth. I'm sure the nominal pay has gone up a lot.
lot, but there are just so many great opportunities to make 10 times or much more money elsewhere.
And so that there's sort of remaining talent, whether that has an effect on how well it can
operate.
I'm very interested in.
You know what Boeing needs?
Go on.
They need like a madman style TV series that glamorizes the aircraft manufacturing process
and gets people interested in it again.
Yeah.
No, that's a really good idea.
All right.
That's a free idea for Boeing.
All right.
Shall we leave it there?
Let's leave it there.
This has been another episode of the All Thoughts podcast.
I'm Tracy Alloway. You can follow me at Tracy Alloway.
And I'm Jill Wisenthall. You can follow me at the stalwart.
Follow our guest, Brian Potter. He's at underscore Brian Potter.
Follow our producers, Carmen Rodriguez, at Carmen Armin, Dachel Bennett, at Dashbot,
and Kale Brooks at Kail Brooks.
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