Daniel sent us this one — he's been thinking about the housing crunch and all the weird ways people are trying to sidestep it. Shipping containers, flat-packed houses, literally moving entire buildings on trucks, and now 3D-printed homes with open-source plans. He's asking three things. First, which of these approaches is actually the most feasible today and which is seeing real traction. Second, what do the costs look like compared to just buying materials and building yourself. And third, do any companies actually maintain a catalog of components where you pick what you want and get a custom assembly blueprint. It's a good question, because the housing market in a lot of places has gone completely off the rails.
It has, and what makes this moment interesting is that we're seeing genuine convergence between manufacturing approaches that were theoretical ten years ago and actual houses people are living in. The flat-pack idea isn't new — you mentioned Sears, and they sold something like seventy-five thousand homes through their catalog between nineteen-oh-eight and nineteen-forty. But the modern version is a different animal entirely. The materials are better, the engineering is tighter, and the financing landscape has shifted.
Seventy-five thousand homes. Through a catalog. The same catalog where you bought your socks and your plow.
You'd pick your model — they had names like the Walton, the Avalon, the Winona — and they'd ship you everything. Thirty thousand pieces on average. Lumber pre-cut and numbered, nails, paint, shingles, hardware, blueprints. The whole thing arrived by rail. You assembled it yourself or hired local builders.
The IKEA model before there was an IKEA. Assemble your house with an Allen key the size of a canoe paddle.
The modern flat-pack companies have improved on that substantially. Let me run through the landscape, because this answers the first part of the question about feasibility and traction. The most established player is probably a Japanese company called Muji — yes, the minimalist home goods brand. They launched Muji House in the early two-thousands. Their vertical house design is three stories on a footprint of roughly six hundred square feet. It arrives as a flat-packed structural shell with pre-fabricated wall panels. In Japan, the cost runs around one hundred sixty to two hundred thousand dollars, which is remarkably competitive given Japanese urban land prices.
The notebook people. The minimalist toothbrush holder people. They sell houses now.
They've been doing it for over twenty years. It's not a gimmick. And then there's the actual IKEA-adjacent concept. IKEA partnered with a construction firm called Skanska to create BoKlok — B-O-K-L-O-K — which is Swedish for "live smart." They've built something like fourteen thousand homes across Sweden, Finland, and Norway, and they expanded into the UK. These are modular apartment buildings, not single-family detached homes, but the principle is the same. Flat-packed wall and floor cassettes, factory-built, assembled on site in weeks.
Fourteen thousand units. That's not a pilot program. That's a small city.
And the BoKlok cost model is instructive. In the UK, a two-bedroom BoKlok apartment runs about one hundred thirty-five thousand pounds. That's roughly one hundred seventy thousand dollars. The selling point is that the price is set at what a single-earner nurse or teacher can afford on their salary. That's their explicit affordability target. They calculate what a nurse earns, they back out a mortgage payment that doesn't exceed a third of take-home pay, and they price the unit accordingly.
Which is a fascinating inversion of how housing normally works. Instead of "here's what the market will bear," it's "here's what a functioning society should cost.
It works because the manufacturing economics are predictable. A BoKlok apartment building goes from foundation to occupancy in about twelve to fourteen weeks. Traditional construction on the same site would be nine to twelve months. That time compression is real money — carrying costs, financing, weather delays. The factory precision also reduces waste. BoKlok claims their offcuts and material waste are under one percent, compared to something like fifteen to twenty percent on a traditional build.
Under one percent. That's not a rounding error — that's basically zero.
That's the European end of flat-pack. In North America, the biggest player is probably a company called Unity Homes, which spun out of a high-end custom home builder in New Hampshire. They do panelized construction — wall, floor, and roof panels fabricated in a factory, shipped flat, assembled on a foundation. Their smallest model, the Nano, is about four hundred fifty square feet and starts around one hundred fifty thousand dollars. That's not including land, foundation, utilities, permits. All-in with land, you're probably looking at two hundred fifty to three hundred thousand.
That's the number to hold in mind. Two-fifty to three hundred for a small house, all-in, in the US northeast. How does that compare to traditional construction?
Per square foot, traditional stick-built construction in the US right now averages about one hundred fifty to two hundred fifty dollars, depending on region and finish level. Unity Homes comes in around two hundred to two hundred fifty per square foot for their base models. So it's not dramatically cheaper in raw cost per square foot. The advantage is speed, predictability, and energy performance. Their homes are so tight that the heating and cooling loads are tiny — they claim their homes use about a tenth of the energy of a code-built house. And the construction timeline is about four months from breaking ground, versus eight to twelve months.
The flat-pack approach is feasible, it's seeing real adoption, but it's not a cost revolution. It's a process revolution. You're buying certainty, not discount.
Now, let me contrast that with 3D-printed construction, because this is where things have gotten genuinely wild in the last two or three years. The big name here is ICON, a Texas-based company. They've got a system called the Vulcan printer — it's a gantry-style printer that extrudes a proprietary cement-like material called Lavacrete. The printer lays down bead after bead, building up walls layer by layer.
Sounds like a Starbucks order. I'll have a grande Lavacrete, extra foam.
It's actually quite clever. It's a high-strength, quick-curing material that's pumpable when wet but holds its shape immediately after extrusion. ICON printed their first permitted house in Austin in twenty-eighteen. By twenty-twenty-two, they'd done a small development of homes. But the big inflection point was a partnership with Lennar, which is one of the largest homebuilders in the US, and the architecture firm BIG — Bjarke Ingels Group. They're building a hundred-home community in Georgetown, Texas, just north of Austin. It's called Wolf Ranch.
A hundred homes. That's the first 3D-printed subdivision at scale. What do they cost?
The Wolf Ranch homes range from about four hundred seventy-five thousand to six hundred thousand dollars. That's for roughly fifteen hundred to twenty-one hundred square feet. Do the math, and it's somewhere around three hundred dollars per square foot. That's above the median for Texas. But again, you have to look at what you're getting. The walls are essentially concrete monoliths — they're rated for wind speeds over two hundred miles per hour, they're fireproof, they're termite-proof. The thermal mass means the interior temperature is extremely stable. In a Texas summer, that matters.
Three hundred a square foot is not the affordable housing revolution people imagine when they hear "3D-printed house." That's premium pricing.
Right, and this is the thing most coverage gets wrong. 3D printing isn't cheaper yet — it's faster and more resilient. The ICON system can print the wall system of a two-thousand-square-foot house in about eight days. That's the printing time. You still need a foundation, a roof, windows, doors, electrical, plumbing, HVAC, finishes. All of that is conventional. The printer only does the walls. So the labor savings are real but limited — maybe ten to fifteen percent of total construction cost.
You're paying a premium for speed, resilience, and the fact that your house is basically a concrete bunker that shrugs off hurricanes.
The design freedom is interesting. Because the printer head follows a digital path, you can do curved walls, organic shapes, complex geometries that would be prohibitively expensive with stick framing. The Wolf Ranch homes have these sweeping curved interior walls that would require a master plasterer weeks to do by hand. The printer just draws them.
The baroque period meets the robot arm. So where does the open-source angle fit in? The prompt asked about communities crowd-sharing construction plans.
This is the WikiHouse movement. WikiHouse started in the UK around twenty-eleven as an open-source construction system. The core idea is that all the structural components are designed to be cut from standard sheets of plywood using a CNC router. No special materials, no proprietary connectors. You download the plans, you take them to a local CNC shop or a makerspace, you cut the parts, and you assemble them on site. It's like a giant three-dimensional jigsaw puzzle. The pieces slot together with wedge-and-peg joinery — no nails, no glue required for the structure.
A CNC-cut plywood house. What's the cost?
The materials for a WikiHouse structure — just the frame, walls, and roof — run somewhere between thirty and fifty thousand dollars for a small to medium house. That's astonishingly cheap. But the catch is everything else. Foundation, cladding, insulation, windows, doors, electrical, plumbing, interior finishes. Those are all additional and they're not part of the open-source system. And critically, you need building code approval. WikiHouse has been used in the UK, New Zealand, the Netherlands — but in many US jurisdictions, getting a building permit for a non-standard structural system is a multi-month bureaucratic ordeal.
The open-source model is the cheapest materials-wise, but the most friction-heavy in terms of approvals. You're trading money for time and frustration.
You need to be comfortable managing a construction project, or you need to hire a builder who's willing to work with an unfamiliar system. Most contractors don't want the liability. WikiHouse has a growing network of approved fabricators and builders, but it's still tiny compared to the mainstream industry.
Let's talk about the other approach the prompt mentioned — moving entire houses on trucks. This is the one that looks completely unhinged when you see it on the highway.
It looks unhinged, but it's surprisingly common and sometimes the most cost-effective option of all. House moving is a legitimate industry. There are companies that specialize in lifting entire structures off their foundations, sliding steel beams underneath, jacking them onto dollies, and hauling them down the road. In the US, the cost to move a house typically ranges from fifteen to fifty thousand dollars for the move itself, plus another twenty to fifty thousand for the new foundation and reconnection of utilities. So all-in, you might spend seventy to a hundred thousand to relocate an existing house.
Seventy to a hundred thousand to pick up a house and put it down somewhere else. That's less than a down payment in some markets.
The house itself might be nearly free. If someone is developing a property and the existing house is in the way, they'll often give it away to anyone who agrees to move it. The alternative is demolition, which costs money. So you can sometimes acquire a perfectly sound house for one dollar, plus the cost of moving it. There's an entire secondary market in relocated houses.
The architectural equivalent of adopting a feral cat.
It really is. But there are constraints. The house has to be structurally sound enough to survive the move. The route has to accommodate a load that might be thirty feet wide and two stories tall — which means coordinating with utility companies to lift power lines, sometimes temporarily removing traffic signals. You need permits from every jurisdiction you pass through. And the destination needs to be accessible for the moving equipment. So it's not universally applicable, but in the right circumstances, it's the cheapest way to get a house by a wide margin.
What about the shipping container approach? You mentioned it briefly, but the prompt specifically asked about it.
Shipping containers have been the poster child of alternative housing for about fifteen years, and I think the bloom is off the rose somewhat. Here's the problem. A used forty-foot shipping container costs somewhere between two and five thousand dollars. That seems like a steal. But a shipping container is a steel box with a wooden floor soaked in pesticides and marine coatings that are actively toxic. To make it habitable, you need to cut openings for windows and doors, which compromises the structural integrity and requires steel reinforcement. You need to strip the interior, remediate the chemicals, insulate — and because steel is a phenomenal thermal conductor, you need a lot of insulation. Then you need framing, electrical, plumbing, finishes.
By the time you've made a shipping container livable, you've basically built a house inside a steel box, and the steel box was the cheapest part.
Multiple analyses put the finished cost of a container home at one hundred fifty to two hundred fifty dollars per square foot. That's in the same range as conventional construction. The advantage is supposed to be speed and modularity, but the reality is that container homes often take as long as stick-built because of all the steel fabrication required. And they're dimensionally awkward. A standard container is eight feet wide interior — that's a very narrow room. If you want wider spaces, you have to combine multiple containers, which means more cutting, more structural work, more cost.
The shipping container is the vinyl record of housing alternatives — aesthetically distinctive, beloved by design blogs, not actually superior on any practical metric.
That's a perfect way to put it. They photograph beautifully. Living in one is a different experience. I've seen people do remarkable things with containers, but the people who succeed are usually architects or experienced builders who are doing it for the design challenge, not to save money.
Let's pivot to the third part of the prompt, because I think it's the most interesting. Are there companies that maintain a catalog of components where you pick your pieces and get a custom assembly blueprint?
This is where things are evolving. There isn't yet a single dominant player doing exactly what the prompt describes, but several companies are approaching it from different angles. The closest thing might be a company called Cover, based in Los Angeles. Cover builds prefabricated accessory dwelling units — backyard homes — but their approach is entirely software-driven. You go through an online configurator, you specify the parameters, and their system generates a fully engineered design. Then they manufacture the panels in their factory and install on site.
It's a configurator, not an open catalog. You're choosing from their palette, not mixing and matching across manufacturers.
The interoperability problem is the fundamental barrier. In conventional construction, there's an implicit standard — dimensional lumber comes in standard sizes, drywall sheets are four by eight feet, doors are standard widths. But once you move to panelized or modular systems, every manufacturer has their own proprietary connection details, their own panel dimensions, their own structural logic. A wall panel from Company A doesn't attach to a floor cassette from Company B unless they've specifically engineered that interface.
Which is the IKEA problem at architectural scale. You can't use an IKEA cabinet door on a different manufacturer's cabinet frame. The holes don't line up.
And the stakes are higher when it's your roof. There are efforts to create open standards. The WikiHouse system I mentioned is essentially an open standard — the connection details are published, the structural logic is transparent. Anyone can design components that work with the system. But adoption is limited. In the commercial space, a company called Plant Prefab has been doing panelized and modular homes with a fairly flexible design system. They work with multiple architecture firms, and their factory can produce panels for different designs. But it's still a closed ecosystem.
What about the European market? The BoKlok model seems like it could lend itself to a component catalog approach.
BoKlok is actually less flexible, not more. Their whole value proposition is standardization. They build a limited number of floor plans repeatedly, which is how they hit their cost targets. Customization is mostly surface-level — finishes, colors, kitchen layouts. The structural system is fixed. That's true of most modular builders. The more customization you allow, the more your factory efficiency degrades. The holy grail is mass customization — the ability to produce varied, individualized products at near-mass-production prices. The automotive industry figured this out decades ago. A Toyota Camry and a Toyota RAV4 share platforms, engines, and countless components, but they're different vehicles. Housing hasn't achieved that yet.
The catalog-of-components idea exists at the level of finishes and fixtures — you can pick your countertops and your doorknobs — but not at the structural level. Nobody lets you mix and match wall systems, roof systems, and foundation systems from a menu.
Not in a truly interoperable way. But I want to mention one development that might change this. There's a growing movement around digital building information modeling — BIM — that could eventually enable what the prompt describes. The idea is that if every building component has a digital twin with standardized data about its dimensions, performance, and connection requirements, then software could theoretically check compatibility between components from different manufacturers. You'd pick a wall panel from Manufacturer A, a roof truss from Manufacturer B, and the software tells you whether they work together and what connectors you need.
The dream of plug-and-play housing. USB for buildings.
USB for buildings. The industry consortium behind this is called buildingSMART, and they maintain a standard called IFC — Industry Foundation Classes. It's an open data format for building information. But it's primarily used by architects and engineers for coordination, not by homeowners configuring houses. The consumer-facing layer doesn't exist yet.
Where does that leave us on feasibility? If someone listening is actually trying to build a house without losing their mind or their life savings, what's the smart play?
Let me give you a ranked assessment, and this is going to depend heavily on location and circumstances. Number one for most people in most places: panelized prefab from an established manufacturer. Companies like Unity Homes, Bensonwood, Plant Prefab, or the regional equivalents. You get factory precision, predictable timelines, and costs that are competitive with conventional construction. The trade-off is less design flexibility, but for most people, that's fine. Most people don't need a custom architectural statement.
Most people need walls and a roof that don't leak.
Number two: if you're in a rural area with lax building codes and you're handy, the WikiHouse open-source approach could save you serious money. But you have to be realistic about your skills and your tolerance for bureaucracy. Number three: 3D-printed construction is exciting but still premium-priced and geographically limited. ICON is in Texas. Another company called Mighty Buildings is in California doing 3D-printed panels with a synthetic stone material. A company called Peri is doing printed buildings in Germany. But you can't just call up a 3D printing contractor in most cities.
Number four: the shipping container, which is a design project masquerading as a housing solution.
I think that's fair. And the wildcard is house moving. If you find the right house, the right route, and the right lot, it can be the deal of a lifetime. But it's inherently opportunistic. You can't plan your life around finding a free house that needs relocating.
What about the total cost picture? The prompt specifically asked how these compare to buying materials and building yourself.
Owner-builder conventional construction — where you act as your own general contractor and do some or all of the labor — is still the cheapest option on paper, assuming you have the skills. Materials for a modest fifteen-hundred-square-foot house might run eighty to a hundred twenty thousand dollars. But that's just materials. If you're doing the work yourself, your labor is free, but it's going to take you a year or two of evenings and weekends. If you hire subcontractors for the specialized trades — foundation, electrical, plumbing, drywall — you're probably at a hundred fifty to two hundred thousand all-in.
You're managing a dozen different crews, a delivery schedule, inspections, weather delays. The hidden cost is your sanity.
Which is why panelized prefab at two hundred to two hundred fifty dollars per square foot — roughly the same all-in cost as hiring subs but with a single point of responsibility and a four-month timeline — is winning. The market is voting with its dollars. The Modular Building Institute reported that the North American modular construction market was valued at about twelve billion dollars in twenty-twenty-three and is projected to grow at roughly six percent annually through the end of the decade.
Twelve billion dollars. That's not a niche. That's an industry.
It's concentrated in certain segments. Multi-family apartments, hotels, student housing, healthcare facilities. Places where repeatable floor plans make sense. Single-family detached homes are actually the hardest segment for modular because every site is different, every jurisdiction has different codes, and homeowners want customization. But the technology is creeping into single-family.
One thing we haven't touched on is financing. How do banks treat these alternative construction methods?
This is a major friction point. Traditional construction loans are structured around milestones — foundation poured, framing complete, roof on, mechanicals roughed in. The bank sends an inspector, verifies progress, releases the next draw. With panelized or modular construction, the timeline is compressed and the milestones don't match. The house might arrive on a truck with walls, roof, windows, and wiring already in place. The bank's inspector shows up and sees a finished house where they expected to see framing. That messes with their draw schedule.
The financial infrastructure is built around the construction method, not the outcome. Change the method, and the money people get confused.
Some lenders are adapting. There are specialized modular construction loans now, and Fannie Mae and Freddie Mac have programs for manufactured and modular homes. But it's still a smaller pool of lenders, and rates can be slightly higher. For 3D-printed homes, it's even harder — there's no established resale market, so appraisers don't have comparables, which makes lenders nervous.
The appraiser shows up, looks at your concrete igloo, and types "n/a" into every field.
ICON has been working with appraisers and lenders to build the comparable sales database, but it takes time. The first few buyers in Wolf Ranch are essentially pioneers helping establish the asset class.
Let's talk about the international angle for a moment. We've been mostly US-focused, but the prompt mentioned "many countries." Are there places where alternative construction is mainstream?
Japan is the most advanced market for prefabricated housing, and it's not even close. Companies like Sekisui House, Daiwa House, and Misawa Homes have been building factory-made houses for decades. About fifteen percent of new single-family homes in Japan are prefabricated. These aren't budget options — Sekisui House is a premium brand. They have research institutes where they test full-scale houses on shake tables. Their quality control is legendary. A Sekisui house comes with a sixty-year structural warranty.
In an earthquake zone. That's not confidence, that's proof.
The Japanese model is interesting because it's not about cost savings. Prefab in Japan is about quality, seismic performance, and speed. The houses cost about the same as conventional construction, sometimes more. But you get a house that's been engineered to survive a major earthquake, built to micron-level tolerances in a clean factory, and assembled on your site in a matter of weeks. The Japanese consumer sees that as value.
Which suggests that the cost question might be the wrong question. Maybe the real advantage of alternative construction isn't that it's cheaper, but that it's better in ways that conventional construction can't match.
That's the insight. Prefab gives you precision. 3D printing gives you resilience and geometric freedom. Panelized systems give you speed and energy performance. None of them are dramatically cheaper than stick-built — at least not yet. The cost curves might bend as these technologies scale, but we're not there. What they offer instead is a different value proposition. A house that uses a tenth of the energy. A house that survives a Category Five hurricane. A house that goes from foundation to occupancy in four months instead of twelve.
The four-month timeline is the one that seems most concretely valuable to a normal person. If you're paying rent somewhere while your house is being built, cutting eight months of double payments is real money. That could be fifteen, twenty thousand dollars in most cities.
And for developers, the carrying costs on a construction loan are significant. Shortening the build time by six months on a multi-unit project can save hundreds of thousands in interest. That's why multi-family and hospitality were the early adopters. The economics are clearest there.
What about the environmental angle? We touched on waste reduction, but is there more to it?
Factory construction is inherently less wasteful. When you're cutting lumber in a factory, the offcuts are sorted and recycled or used for other products. On a construction site, they go in a dumpster. Factory-built homes also tend to be more airtight because the panels are assembled on jigs with precise tolerances. An ENERGY STAR certified modular home typically scores about fifteen to twenty percent better on blower door tests than a site-built home built to the same code. That translates to lower energy bills for the life of the house.
The 3D-printed concrete approach?
The environmental picture is mixed. Concrete has a high embodied carbon footprint — cement production accounts for about eight percent of global CO2 emissions. ICON has been working on lower-carbon formulations for their Lavacrete, and some researchers are experimenting with geopolymer binders that could reduce the carbon footprint substantially. But right now, a 3D-printed concrete house probably has higher embodied carbon than a wood-framed house. The counterargument is that the thermal mass reduces operational energy use over the life of the building, and the durability means the house lasts longer. It's a lifecycle argument, not a materials argument.
You're trading upfront carbon for longevity and lower operating carbon. The Prius versus the vintage Land Cruiser debate, but for houses.
That's a good way to frame it. And the open-source WikiHouse approach is interesting environmentally because it's designed for disassembly. The peg-and-wedge joinery means you can take the house apart, reconfigure it, move it, recycle the components. It's a circular economy approach to construction, which is almost unheard of in conventional building where demolition means a landfill.
Designed for disassembly. The opposite of every house I've ever lived in, where removing a single nail feels like defusing a bomb.
Conventional construction is essentially a one-way process. Materials go in, and they never come out except as debris. The WikiHouse people talk about buildings as material banks — temporary arrangements of components that can be reclaimed and reused. It's a fundamentally different philosophy.
Which brings us back to the third question. The catalog of components. It sounds like the philosophical groundwork is being laid — open standards, digital twins, designed-for-disassembly — but the consumer-facing version doesn't exist yet. When might it?
I'd say we're five to ten years away from a meaningful consumer-facing configurator for structural components, and it'll probably emerge in the accessory dwelling unit market first. ADUs are smaller, simpler, and often face fewer regulatory hurdles. A company like Cover is already doing a version of this. I could see a startup offering a platform where you choose from a library of pre-approved wall, roof, and foundation systems, the software checks compatibility and generates plans, and then a network of local fabricators produces the components. It's technically feasible today. The barriers are regulatory, not technological.
The technology is ready. The building department in your town is not.
That's the bottleneck. Building codes in most of North America are prescriptive, not performance-based. They tell you exactly how to build — stud spacing, nailing patterns, material specifications. If you want to do something different, you have to prove it's equivalent through engineering analysis, which costs money and time. Some jurisdictions are moving toward performance-based codes that say "the wall must withstand this wind load and achieve this insulation value" without specifying how. That would open the door to component-based construction. But code reform moves at the speed of bureaucracy.
Which is to say, geological time.
The International Code Council updates the model building code every three years, and then individual states and municipalities adopt it on their own schedules. Some places are still using codes from the early two-thousands. So even if the technology is ready, the regulatory environment might take a decade to catch up.
To summarize the state of play for someone who's actually trying to do this. Flat-pack and panelized prefab are real, available, competitively priced, and the most practical option for most people. 3D printing is real but premium-priced and geographically limited. Open-source CNC systems are the cheapest materials-wise but require the most owner involvement and face the most regulatory friction. House moving is the wildcard that can be astonishingly cheap in the right circumstances. Shipping containers are a design project, not a cost-saving measure. And the dream of a universal component catalog is technically feasible but waiting on building codes and industry standardization.
That's the landscape. I'd add one thing. The housing affordability crisis in most developed countries is primarily a land cost and regulatory problem, not a construction cost problem. In high-cost cities, the land under a modest house can be seventy or eighty percent of the total cost. No amount of manufacturing innovation changes that. What prefab and 3D printing can do is make the construction portion faster and more predictable, which helps at the margins. But if you're looking at a million-dollar tear-down in Vancouver or Sydney, the house itself is a rounding error.
The most efficient construction method in the world can't fix the fact that the dirt costs eight hundred thousand dollars.
Which is why the most impactful housing innovations might not be in construction technology at all. They might be in zoning reform, land use policy, and financing models. But that's a different episode.
And we should probably wrap this up before we start a second podcast by accident.
Before we close, let me just say — if you're the kind of person who gets excited about factory tolerances and open-source joinery systems, there's a lot to be optimistic about. The technology is advancing. The houses being built today are better than the houses being built ten years ago, and the ones being designed now are better still. It's just not moving as fast as the housing crisis demands.
Now: Hilbert's daily fun fact.
Hilbert: In the early fifteen hundreds, Spanish colonists in Honduras encountered a local cheese made by fermenting curds inside hollowed-out calabash gourds. The gourd's inner membrane introduced a specific strain of lactobacillus that gave the cheese a distinctly sour, almost citrusy tang. The colonists called it queso de calabaza — pumpkin cheese — despite containing no pumpkin whatsoever, because the word calabaza had already drifted in colonial Spanish to mean any gourd-like vessel. The cheese is functionally extinct, but the etymological confusion survives in several Central American dairy terms.
Pumpkin cheese with no pumpkin. The fifteen-hundreds were a lawless time for dairy nomenclature.
This has been My Weird Prompts. Thanks to our producer Hilbert Flumingtop. If you enjoyed this, leave us a review wherever you get your podcasts — it helps. You can find show notes and past episodes at myweirdprompts dot com. I'm Corn.
I'm Herman Poppleberry. See you next time.
