Reshoring Explained for Kids: The Toaster Test

Here is reshoring explained for kids in one object. Pull your toaster out and look at it. Steel chassis, chrome outer shell, plastic end caps, a nichrome wire element, mica sheets to hold the wire, a bimetallic strip that bends when it heats, a spring-loaded carriage, a timer, a cord with a molded strain relief. Nine suppliers, minimum. Moving the toaster factory to your country does nothing unless you also move the nichrome mill, the mica supplier, the mold shop and the plating line. That is the whole story, and the United States is running the experiment right now: private construction spending on manufacturing facilities hit $14.4 billion in the single month of August 2026, while the occupation that builds the tooling all of it depends on is projected to decline.

Key Takeaways

• Census data via the Federal Reserve shows U.S. private construction spending on manufacturing facilities at $14,443 million in August 2026 alone, a historically high monthly rate.
• U.S. manufacturing employment stood at 12,652,000 in September 2026 according to BLS Current Employment Statistics, which is a long way from the postwar peak.
• The real constraint is tooling. BLS projects tool and die makers to decline 9 percent from 2025 to 2035 from a base of only 56,700 jobs, and they are the people who build the molds and dies that make mass production possible.
• The CHIPS and Science Act of 2022 directed $50 billion to the Commerce Department, split as $39 billion for facility and equipment incentives and $11 billion for research and development.
• Tariffs move fast and supplier networks move slowly: USGS documented U.S. aluminum tariffs going from 25 percent in March 2025 to 50 percent by June, with over 400 additional tariff codes added in August.

Reshoring explained: what it means, and what it does not

Reshoring is the relocation of production that had moved abroad back to the company’s home country. Nearshoring is the same move to a nearer country rather than all the way home. Both are distinct from “Buy American” rules, which govern procurement rather than where things get made.

The confusion that matters is between final assembly and the supply chain behind it. A company can open a plant in Ohio that assembles toasters and still import every component in the box. Final assembly is the cheapest, fastest part of the chain to relocate, because it needs a building, a conveyor, some fixtures and trained hands. Everything upstream is the hard part.

Thomas Thwaites made this concrete in a way no economics lecture manages. In his TEDSalon London talk in November 2010, “How I built a toaster from scratch,” the designer described attempting to build one from raw materials, including mining ore for steel and deriving plastic from oil. TED describes the result as “a parable of our interconnected society, for designers and consumers alike.” Which is a polite way of saying that one person, working for months, could not reproduce what a factory does for twenty dollars.

The part nobody mentions: somebody has to build the tooling

Mass production does not start with a machine that makes parts. It starts with a machine that makes the machine that makes parts.

The plastic end cap on your toaster was injection-molded. That means molten plastic was forced into a steel cavity, cooled, and ejected, in a cycle lasting maybe twenty seconds. That steel cavity is a mold, and somebody machined it, hardened it, polished it, cut cooling channels into it, and fitted ejector pins. It cost tens of thousands of dollars and took months to build. Once it exists, each part costs cents. Before it exists, each part costs a fortune.

The same logic runs through everything stamped, forged or cast. A stamping die for the steel chassis is a hardened tool set that punches, bends and trims sheet metal in sequence. A die for a complex part can have a dozen stations. Build it wrong and the part springs back out of tolerance, which is a problem you discover only after the steel is cut.

Now the uncomfortable number. BLS reports 56,700 tool and die makers in the United States in 2025, with a median wage of $64,050 in May 2025, and projects a 9 percent decline by 2035. Machinists, the larger occupation at 288,300 jobs and a $58,750 median, are projected to grow 1 percent. Across both, BLS expects about 30,400 openings per year, mostly from retirement rather than growth. BLS also notes the precision involved: this work requires accuracy “sometimes to within .0001 of an inch,” roughly 2.5 micrometers.

You cannot reshore manufacturing at scale while the tooling trade shrinks. A new plant can be built in eighteen months. A tool and die maker takes several years to train and a decade to become genuinely good. That mismatch is the single most under-discussed fact in the entire reshoring conversation, and it is sitting in plain sight in a federal dataset.

How to Teach Your Kid About Reshoring

Ages 5–8: take the toaster apart (unplugged)

Unplug it, take it outside, and remove the screws. Lay every piece on a towel and count them. Then ask your kid how many different factories they think made those pieces. Any answer above one is correct, and the conversation goes somewhere real from there.

Ages 9–12: the cookie mold experiment

Have your kid make ten cookies freehand, timing it and noting how different they look. Then have them make ten using a cutter. The cutter is tooling. Ask them: how much time would it be worth spending to make a really good cutter if you had to make a thousand cookies? That trade-off, tooling cost against unit volume, is the central calculation of manufacturing.

Ages 13+: build the bill of materials

Pick any simple product in the house and have your teenager write a full bill of materials in a spreadsheet: every part, its material, and a guess at where it came from. Then have them mark which ones they think could be made locally and which could not, with a reason for each. The list of “could not” items is the reshoring problem, written by a fifteen-year-old.

The question to ask: “If a factory opened in our town tomorrow to build toasters, what would it still have to buy from somewhere else?”

What it would actually take, step by step

This table walks one appliance through its supply chain and asks what reshoring each layer would require. The difficulty column is my judgment as an engineer, not a published ranking, and reasonable people would order some of these differently.

Layer	Example component	What reshoring it requires	Difficulty
Final assembly	Screwing the toaster together, testing it	A building, fixtures, trained assemblers	Low
Injection molding	Plastic end caps, knob	A mold shop, a press, a resin supplier	Medium
Metal stamping	Steel chassis, crumb tray	A die shop, a press line, coil steel	Medium
Wire and element	Nichrome heating wire	A specialty alloy mill, drawing capability	High
Insulators	Mica sheets holding the element	A mineral processing supplier	High
Plating and finishing	Chrome outer shell	A plating line with wastewater permits	High
Electronics	Timer circuit, any chip	Semiconductor fabrication and packaging	Very high
Tooling	The molds and dies above	Tool and die makers, projected to decline 9%	The real constraint

The last row is the one to remember. Every other row depends on it.

The semiconductor row is why the CHIPS and Science Act of 2022 exists. NIST reports the Act directed $50 billion to the Department of Commerce, divided into $39 billion for facility and equipment incentives through the CHIPS Program Office and $11 billion for research and development through the CHIPS R&D Office, which runs the National Semiconductor Technology Center, the National Advanced Packaging Manufacturing Program and a metrology program. Fifty billion dollars is the scale required to move one layer of one supply chain. We wrote about what that means for families in our piece on why parents should understand chip manufacturing.

What to do at home

Watch the construction number, not the announcement

Press releases announce intentions. Construction spending records concrete. The Census Bureau’s series on private manufacturing construction, available through the Federal Reserve’s FRED database, showed $14,443 million in August 2026 alone. Teach your kid to check a series like that rather than a headline, because the series updates monthly and does not care about anyone’s narrative.

Separate “assembled in” from “made in”

Have your kid read the fine print on three products. The phrases differ for legal reasons: assembled in, made in, designed in, components of foreign origin. Each one describes a different amount of local value added, and learning to read them is a life skill that applies to buying a car or choosing a supplier.

Visit a mold shop or a machine shop

This is the highest-value industrial field trip available and almost nobody takes it. Small job shops exist in every industrial area, usually with ten to forty employees, and they are often happy to show a curious teenager a surface grinder and a wire EDM machine. The owner is frequently in their sixties and actively looking for an apprentice.

Price out one mold

Have your teenager email or call two local mold shops and ask, as a student project, what a simple two-cavity mold for a plastic clip would cost and how long it would take. The answers they get will be the most educational numbers in this entire article, because they are local and specific.

What not to do

Do not frame reshoring as patriotism or as a jobs guarantee. Both framings mislead. A reshored plant can be highly automated and employ far fewer people than the plant that left, and a tariff can protect an industry that has no tooling base to grow into. The honest framing is a question: which layer of this supply chain are we actually rebuilding, and do we have the people to run it. That question survives any political weather.

What to Watch For Over the Next 3 Months

• Week 4: Check whether the monthly private manufacturing construction figure holds above $14 billion. A sustained level means capacity is still being poured. A decline means announcements outran financing.
• Month 2 red flags: Any reshoring announcement that does not name a tooling source. If the press release says a plant will assemble a product but never mentions where the molds and dies come from, the supply chain has not moved.
• Month 3 self-check: Ask your kid to name the occupation that is the bottleneck. If they say tool and die makers and can explain why a shrinking trade blocks a growing industry, they understand this topic better than most commentary on it.

Frequently Asked Questions

Is manufacturing actually coming back to the United States?

Capacity is being built, measurably. Census data via FRED shows $14,443 million of private manufacturing construction in August 2026. Employment is a different story: BLS put manufacturing employment at 12,652,000 in September 2026, and new plants are far more automated than the ones that closed, so construction spending and headcount no longer move together.

Why can’t a factory just make every part itself?

Because each step requires different capital equipment, different permits and different expertise. A plating line needs wastewater treatment and environmental permitting. A specialty alloy mill needs metallurgical control. Vertical integration is possible and a few companies do it, but it ties up enormous capital for parts you could buy.

Does reshoring make things more expensive?

Often yes, at least initially, because the move is usually away from lower labor cost and toward higher. The counter-argument is resilience and shorter lead times. USGS documented U.S. aluminum tariffs rising from 25 percent in March 2025 to 50 percent by June, with the average U.S. market price up 39 percent over the year, which is a reasonable illustration that trade policy shows up in prices.

What should my kid study if they want to work on this?

Manufacturing engineering, industrial engineering or a machining and tooling trade. BLS puts industrial engineers at a median $102,440 in May 2025 with 12 percent projected growth and about 23,100 annual openings. The trade route is shorter and currently has less competition, which is worth saying plainly.

Is 3D printing the answer to the tooling shortage?

Partly, and more than people expected. Additive manufacturing is genuinely good at low-volume parts, conformal cooling channels inside molds, and jigs and fixtures. It does not replace a hardened steel production mold running a twenty-second cycle for a million parts. Our overview of 3D printing and advanced manufacturing careers covers where the line currently sits.

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About the author

Ricky Flores is the founder of HiWave Makers and an electrical engineer with 15+ years of experience building consumer technology at Apple, Samsung, and Texas Instruments. He writes about how kids learn to build, think, and create in a tech-saturated world. Read more at hiwavemakers.com.

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Sources

1. U.S. Bureau of Labor Statistics. (2025). “Machinists and Tool and Die Makers.” Occupational Outlook Handbook. https://www.bls.gov/ooh/production/machinists-and-tool-and-die-makers.htm
2. Federal Reserve Bank of St. Louis. “Total Private Construction Spending: Manufacturing (PRMFGCON),” U.S. Census Bureau data, August 2026. https://fred.stlouisfed.org/series/PRMFGCON
3. Federal Reserve Bank of St. Louis. “All Employees, Manufacturing (MANEMP),” BLS Current Employment Statistics, September 2026. https://fred.stlouisfed.org/series/MANEMP
4. National Institute of Standards and Technology. “CHIPS for America.” U.S. Department of Commerce. https://www.nist.gov/chips
5. U.S. Geological Survey. (2026). “Aluminum.” Mineral Commodity Summaries 2026, February 2026. https://pubs.usgs.gov/periodicals/mcs2026/mcs2026-aluminum.pdf
6. Thwaites, T. (2010). “How I built a toaster from scratch.” TEDSalon London, November 2010. https://www.ted.com/talks/thomas_thwaites_how_i_built_a_toaster_from_scratch
7. U.S. Bureau of Labor Statistics. (2025). “Industrial Engineers.” Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/industrial-engineers.htm