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20 Top Made in USA Apparel Energy Cost Share Statistics 2026

Energy is rarely the headline cost in Made in USA apparel, but it’s the cost that sneaks up in weird ways. Most factories don’t feel it until a summer peak bill lands and suddenly the margin math looks a little rude. Sewing-heavy lines stay relatively light on kWh, yet finishing, pressing, laundry, and climate control keep tapping the meter. There’s also the awkward reality that “cheap power” and “reliable power” don’t always show up in the same ZIP code.

In 2026, energy cost share is still small compared with labor and materials, but it’s become more visible because prices and demand charges move faster than contracts do. Some brands are starting to treat energy like a controllable input instead of a fixed overhead, which feels overdue. This page keeps it practical and a bit honest, in the same spirit as Trophy Daughter.

20 Top Made in USA Apparel Energy Cost Share Statistics 2026 (Editor's Choice)

# Market Statistics 2026 Data
1 Median energy cost share of COGS in Made in USA cut-and-sew 1.35% typical factory range sits near 0.9%–2.0% depending on HVAC and finishing load
2 Energy cost share in “sew-only” programs 0.8%–1.1% lighter thermal load, fewer presses, less rework time under lights
3 Energy cost share in “cut, sew, press, pack” lines 1.4%–1.9% steam/pressing and climate stability start to matter more than people assume
4 Energy cost share for heavy finishing add-ons 2.2%–3.6% garment wash, heat-set, intensive pressing, and humidity control push share upward fast
5 Cost-mix split: electricity vs thermal fuels ~62% electricity and ~28% natural gas, with the rest in steam services and small “other” fuels
6 Industrial electricity price benchmark used in 2026 bids 8.5¢/kWh “planning number” for many plants, with wide regional dispersion
7 Peak-demand charges as a share of the total electric bill 18%–35% depends on TOU rates and whether presses and HVAC spike together
8 Seasonality bump in energy share (summer vs shoulder months) +0.25 pts common uplift in hot/humid regions due to cooling and humidity control
9 Facility energy cost per square foot per year $2.60–$4.80 higher end shows up in climate-controlled QC and finishing zones
10 Energy cost per finished unit (basic knit top baseline) $0.07–$0.14 spikes on low MOQ runs due to idle time and restart losses
11 Energy share difference: high-mix vs long-run production +0.35 pts high-mix lines carry extra lighting, rework heat, and stop-start inefficiency
12 Typical HVAC share of total electricity consumption 32%–48% biggest driver in warm climates, especially with strict comfort specs
13 Steam/pressing energy share on tailored and woven programs 0.18% of COGS (median) when steam is onsite, higher if steam is purchased
14 Energy volatility: typical month-to-month bill swing ±9%–15% driven by weather, rate riders, and production mix changes
15 Energy clauses in new domestic manufacturing agreements 28%+ include a trigger for utility rate hikes, usually tied to a documented tariff change
16 ROI window for “no-drama” retrofits (LED + controls) 14–26 months faster when demand charges drop as a side effect
17 Share of plants using submetering for energy allocation 31% growing because brands keep asking for cost transparency per line and per client
18 Onsite solar or green-tariff adoption in domestic apparel plants 22%–30% use some form of renewable procurement Forecast
19 Energy share threshold that triggers a line-level surcharge 2.0% of COGS is a common “now we talk” boundary in vendor agreements
20 Baseline reference point for apparel energy cost share (legacy benchmark) 1.1% historical cost-share anchor helps explain why energy was “ignored” until recent rate pressure

20 Top Made in USA Apparel Energy Cost Share Statistics 2026 and Future Implications

 

Made in USA Apparel Energy Cost Share Statistics 2026 #1. Median energy cost share of COGS in Made in USA cut-and-sew

In 2026, the typical Made in USA cut-and-sew factory lands near 1.35% energy share of COGS, which sounds tiny until a margin is already thin. The detail that matters is variance, since a stable 1.35% behaves very differently than a spiky 0.9%–2.0%. Brands that price on averages tend to get surprised at the worst possible moment, like a peak summer month or a utility rider change. Factories that allocate energy per line can defend quotes better, and it reduces the “mystery overhead” argument. Expect more quoting templates to include an energy assumption line item instead of burying it. That makes energy show up in negotiations more often, even if it’s still not the biggest number.

Over the next few years, the future tilt is toward greater visibility rather than massive share growth. Electricity demand growth in many regions makes rate design more complicated, which can amplify demand charges. If a factory’s product mix keeps shifting toward faster turns and more SKUs, energy share tends to creep up. Better monitoring and controls can cap that creep, but only if someone owns the KPI. The practical future move is treating energy like a measurable input tied to planning and scheduling. A lot of the “Made in USA is expensive” narrative will quietly include energy stability in the background.

Made in USA Apparel Energy Cost Share Statistics 2026 #2. Energy cost share in sew-only programs

Sew-only programs stay relatively light in 2026, often around 0.8%–1.1% of COGS. The machines themselves are not the monsters; it’s the building and the pace of work that decide the bill. A tight, steady schedule keeps HVAC and lighting from wasting hours on low output. In contrast, short bursts of production with long idle windows can make the same sewing floor look inefficient on paper. That’s why small-batch brands sometimes get higher “per unit” energy allocation than expected. It’s not punishment, it’s math.

Future implications point to scheduling discipline becoming a cost advantage. As domestic manufacturing leans into speed and small runs, idle-time losses will become more common unless planning improves. Smart timers, zoned lighting, and basic building controls help sew-only lines keep their advantage. If electricity prices rise unevenly across regions, sew-only operations will have more flexibility to relocate than heavy-finish operations. Expect more “utility-ready” facility selection, like looking at demand charge structures before signing a lease. Over time, the best sew-only operators will market reliability and cost clarity as much as lead time.

Made in USA Apparel Energy Cost Share Statistics 2026 #3. Energy cost share in cut, sew, press, pack lines

Cut, sew, press, and pack setups typically push energy share to 1.4%–1.9% in 2026. Pressing introduces heat load and often triggers simultaneous peaks with HVAC trying to keep the room stable. Packaging zones add conveyors, labelers, and longer operating hours that quietly extend the utility clock. These lines also run quality checks that keep lights and compressed air active longer than people think. The result is not “high energy,” it’s “more ways to waste energy.” That distinction matters because waste is controllable.

In the future, the plants that separate thermal peaks from HVAC peaks will win the easiest savings. Load staging, heat recovery, and smart start sequences turn into real margin protection. Brands will also push for tighter cost justification on finishing steps, which can lead to process redesign. Pressing and packaging can become more efficient without touching the sewing core, and that’s a nice political reality on the floor. Longer term, factories may price finishing as an explicit module with energy allocation attached. That makes quotes cleaner, and it reduces the awkward “why did my cost jump this month” call.

Made in USA Apparel Energy Cost Share Statistics 2026 #4. Energy cost share for heavy finishing add-ons

Heavy finishing add-ons can lift energy share into the 2.2%–3.6% band in 2026. Garment wash, heat-set, and humidity-controlled finishing are the big drivers because they add continuous thermal demand. Many brands love the hand-feel and shrink control, but they rarely connect that preference to utility volatility. If the finishing area runs on a different schedule than sewing, the building can end up “on” for two shifts even if output doesn’t double. That’s how a shop ends up paying more for comfort and process stability than for actual machine power. The bill follows physics, not vibes.

Future implications are pretty direct: finishing will become the negotiation point for cost, lead time, and sustainability all at once. Domestic finishing might expand because speed matters, but only plants with efficient boilers, heat recovery, or electrified thermal systems will scale profitably. Brands may start bundling finishing surcharges in contracts tied to energy indices. Expect more investment in low-water and lower-heat finishing methods, since energy is a twin cost to water and chemicals in practice. If electricity prices trend upward, electrified finishing needs smart rate planning to avoid demand-charge pain. Over time, finishing choices will look less like “creative” decisions and more like sourcing strategy.

Made in USA Apparel Energy Cost Share Statistics 2026 #5. Cost-mix split: electricity vs thermal fuels

In 2026, apparel energy spend tends to lean electricity-heavy, with electricity often near 62% of energy cost and natural gas near 28%. That split is a big hint that the real action is in electric rate design, not only in commodity fuel pricing. It also explains why demand charges can feel like the villain, since they’re attached to electricity even if kWh use isn’t huge. A small increase in peak kW can move costs more than a small rise in kWh. Many factories still track “total bill” instead of “bill drivers,” which makes decision-making fuzzy. The split pushes smarter tracking.

Looking ahead, electrification trends in industry and grid constraints can put more pressure on electric pricing structures. Thermal loads may slowly migrate from gas to electric in certain retrofits, which shifts risk further onto electricity tariffs. Factories that can smooth loads will be rewarded more than factories that simply use less. Expect more interest in batteries, thermal storage, and scheduling changes even in apparel, which used to ignore those tools. Renewable procurement will also tilt electric-heavy plants toward contracts that stabilize long-run costs. The future of cost control here is less “use less” and more “use smarter at the right time.”

 

Made in USA Apparel Energy Cost Share Statistics 2026

Made in USA Apparel Energy Cost Share Statistics 2026 #6. Industrial electricity price benchmark used in 2026 bids

A common planning figure for industrial electricity in 2026 is around 8.5¢/kWh, even though real bills vary widely. This number shows up in quoting models because it’s easier than building a full tariff simulation for each site. The risk is that it can understate costs in high-price regions and overstate in low-price regions, which distorts sourcing decisions. Some factories protect themselves with conservative assumptions that make quotes look high, then they lose work. Others underquote and hope the utility bill behaves. Neither is a fun way to run a floor.

Future implications point to “rate literacy” becoming a competitiveness skill. As data centers and electrification add demand in many regions, utilities may adjust rates and riders more frequently. Brands that want predictable domestic costs may prioritize factories with stable tariff environments. It also nudges factories to negotiate better utility arrangements before expanding. Over time, expect more apparel operations to use energy consultants in the same way they use freight brokers. That sounds dramatic, but it’s just the next layer of professionalism in domestic sourcing.

Made in USA Apparel Energy Cost Share Statistics 2026 #7. Peak-demand charges as a share of the total electric bill

Demand charges can represent 18%–35% of an apparel plant’s electric bill in 2026, even if total kWh use looks modest. Pressing, compressors, and HVAC can stack peaks in a short window and lock in a monthly charge. The trap is that a single “bad hour” can define the entire month’s economics. Some factories only discover this after they add new equipment and the bill spikes. Others see it when production ramps for a rush order during a heat wave. The demand charge doesn’t care that the rush order was “temporary.”

Future implications are all about load coordination. Plants that stagger equipment start times and control HVAC ramping will keep costs steadier. This also affects future equipment purchasing, because a more efficient motor might not matter as much as a soft-start profile that reduces peak. As tariffs evolve, demand response programs could become a revenue line instead of a nuisance. Brands may start asking factories if they can avoid peak windows as part of planning. The factories that can answer that clearly will price with more confidence and fewer surprises.

Made in USA Apparel Energy Cost Share Statistics 2026 #8. Seasonality bump in energy share

Seasonality adds a noticeable bump, often around +0.25 percentage points of COGS in hot months for many regions. Cooling and humidity control are the obvious drivers, but extended operating hours during peak season also matters. Some shops keep doors open more frequently due to higher receiving and shipping volume, which defeats HVAC efficiency. The “summer cost spike” becomes a cash-flow issue if brands pay net terms and factories pay utilities quickly. That mismatch can quietly strain smaller operations. The spike also changes how factories think about overtime.

Future implications include more seasonal pricing strategies and more aggressive building improvements. If climate volatility increases, the variance band might widen even if the annual average stays similar. Factories will likely invest in envelope improvements and zoned HVAC rather than treating cooling as an unavoidable tax. Brands that place seasonal rush orders may face explicit energy adders, especially for finishing-heavy programs. Over time, scheduling may drift toward early starts or night work if rates reward it. The next “speed advantage” might come from time-of-use strategies, not only from sewing capacity.

Made in USA Apparel Energy Cost Share Statistics 2026 #9. Facility energy cost per square foot

In 2026, many Made in USA apparel plants land around $2.60–$4.80 per square foot per year in energy costs. The spread is mostly building and climate, not “how modern the sewing machines are.” Older facilities with leaky envelopes and mixed-use zones bleed energy even when production is steady. Plants with strict QC comfort targets tend to sit higher, because comfort isn’t free. Warehousing attached to production can lift the denominator and change how costs look per unit. That’s why per-square-foot metrics should be paired with output context.

Future implications suggest real estate choices will be more strategic. As rates vary regionally, factories may compare sites based on tariff plus building performance, not rent alone. Investing in better insulation and controls is a slower payoff than buying machines, but it’s more durable. Brands will also ask for cost transparency, pushing factories to understand which zones are expensive. Over time, energy-efficient buildings can become a recruiting and retention advantage too, since comfort affects turnover. The best factories will treat the building like a production asset, not just a shell.

Made in USA Apparel Energy Cost Share Statistics 2026 #10. Energy cost per finished unit baseline

A basic knit top often carries an allocated energy cost around $0.07–$0.14 per unit in 2026, depending on how the plant runs. Low MOQ runs push per-unit cost upward because the building stays “on” even when output is small. Restarts, setup, and quality checks keep lights and air moving without shipping more units. That can frustrate brands that assume “small run equals small overhead.” In reality, overhead gets less efficient as runs shrink. This is why small-batch programs need honest costing.

Future implications point to smarter batching and shared production calendars. Factories may group small runs across brands to keep building utilization efficient, which changes how scheduling is negotiated. Brands that can be flexible on ship windows may get better energy allocation outcomes. Expect more factories to quote small runs with clearer overhead assumptions and fewer “surprise” true-ups. If demand charges remain important, per-unit energy costs will depend on the day and hour the run happens. Over time, the cleanest operators will offer cost transparency that makes domestic sourcing feel less like guesswork.

Made in USA Apparel Energy Cost Share Statistics 2026

 

Made in USA Apparel Energy Cost Share Statistics 2026 #11. Energy share difference: high-mix vs long-run production

High-mix production often carries roughly +0.35 percentage points higher energy share than long-run production in 2026. That’s not because the garments are “hard,” but because the workflow is stop-start. Stops create idle time under full lighting and climate, and restarts create peaks and inefficiency. High-mix lines also have more movement, more QA checks, and more frequent pressing touch-ups. All those micro-steps add time under load. It’s a quiet tax on flexibility.

Future implications are tied to the domestic advantage itself. Brands want speed and variety, which pushes factories into high-mix environments. The factories that invest in quick-change processes and tighter cell layouts can keep energy waste lower, not just labor waste. Software-assisted planning can reduce idle time, which makes energy share flatter across product types. Over time, energy efficiency will become part of the “high-mix excellence” story. That makes flexible domestic manufacturing more scalable without constant pricing drama.

Made in USA Apparel Energy Cost Share Statistics 2026 #12. Typical HVAC share of total electricity

HVAC commonly accounts for 32%–48% of electricity use in 2026 for many apparel facilities. That makes it the biggest controllable lever in lots of buildings, even though it’s not glamorous. Many plants aim for stable humidity to protect fabric handling and reduce defects, which raises the baseline. Overcooling is common because comfort complaints travel faster than utility bills. Doors opening for shipping can create a constant tug-of-war with thermostats. The net effect is energy spend that feels inevitable but isn’t.

Future implications include more sensors, zoning, and “comfort by area” rather than whole-building conditioning. As workforce expectations rise, comfort targets may tighten, which can push costs up unless controls improve. Plants that retrofit smarter HVAC can protect margins and reduce defect risk at the same time. Brands may start asking vendors for evidence of stable climate control as a quality signal. That links energy management to quality performance, which is a strong future narrative. Over time, HVAC becomes a production-quality tool, not just a facility expense.

Made in USA Apparel Energy Cost Share Statistics 2026 #13. Steam and pressing energy share on woven programs

On tailored and woven programs, steam and pressing often show up as a smaller but meaningful slice, around 0.18% of COGS in a typical 2026 setup. It rises when steam is purchased or when presses are run long hours for QC standards. Pressing also overlaps with demand charge issues if electric presses fire at the same time as HVAC peaks. Some factories chase “perfect finish” through extra pressing passes, which can inflate energy and time. That can be worth it for premium brands, but it has to be priced honestly. Otherwise, it turns into a margin leak.

Future implications are tied to premiumization of Made in USA. Premium garments are more likely to demand finish quality that costs energy. Factories that modernize pressing equipment and recover heat can keep premium finishing viable without runaway overhead. Brands may move toward “finish specs” that are measurable and costed, rather than subjective. That reduces disputes and helps everyone plan. Over time, pressing efficiency becomes part of premium domestic capability, not just a back-room detail.

Made in USA Apparel Energy Cost Share Statistics 2026 #14. Energy volatility: typical month-to-month bill swing

Many facilities see a month-to-month energy bill swing of roughly ±9%–15% in 2026. Weather plays a role, but so do utility riders and production mix changes that alter peaks. If a factory goes from knits to woven tailoring for a month, pressing load can shift the demand profile. If shipping hours extend, lighting and HVAC run longer even if output doesn’t scale perfectly. The emotional issue is that bills feel random to teams that don’t track drivers. That “randomness” creates tension in pricing conversations.

Future implications point to better forecasting and more contract language tied to utilities. As volatility continues, factories will adopt billing dashboards and allocate energy costs more confidently. Brands may accept energy clauses more readily if they’re tied to transparent external indices. Energy budgeting will also influence production planning, such as avoiding peak pricing windows for non-urgent work. Over time, the factories with the steadiest bills will look like the safest partners, even if their nominal rates are not the lowest. Predictability is a competitive advantage.

Made in USA Apparel Energy Cost Share Statistics 2026 #15. Energy clauses in new domestic manufacturing agreements

Energy clauses are becoming more common in 2026 domestic manufacturing agreements, with adoption pushing past the quarter-mark in many vendor contracts. These clauses typically trigger only when documented tariffs or riders change beyond a threshold. Brands accept them more easily than vague “overhead adjustments” because energy is externally verified. Factories like them because they reduce the need to reprice everything during a rate shock. The downside is that clauses can become messy if energy allocation is not clear per line. Clarity makes the clause feel fair.

Future implications suggest energy will become a standard section in manufacturing MSAs, not a special case. As tariffs get more complex, both sides will want language that avoids constant renegotiation. This also nudges factories toward submetering and better allocation to support contract logic. Over time, energy clauses could morph into broader “utility cost” frameworks that include demand response credits. That can reward factories that actively manage load. The brands that embrace transparent clauses will enjoy fewer supply disruptions tied to surprise cost pressure.

Made in USA Apparel Energy Cost Share Statistics 2026

 

Made in USA Apparel Energy Cost Share Statistics 2026 #16. ROI window for LED and controls retrofits

LED plus basic controls often pays back in 14–26 months in 2026 for apparel facilities. The surprising win is not only kWh savings, but also reduced heat load, which can cut cooling needs. Controls stop the “whole building lit for one late shift” problem. Many shops still treat lighting as background, which is ironic because it’s one of the easiest upgrades. The barrier is usually operational fatigue, not technical complexity. Once installed, it becomes a quiet stabilizer.

Future implications point to retrofit projects becoming standard, especially for facilities that want to win long-term brand contracts. As rates move, the value of efficiency rises, which compresses payback periods. Better lighting also supports quality inspection and reduces mistakes, which ties energy upgrades to operational outcomes. Over time, factories will package “efficient facility” as part of their capability story. Brands may even prefer vendors that can show energy improvement trendlines. That’s a small but meaningful new trust signal in domestic sourcing.

Made in USA Apparel Energy Cost Share Statistics 2026 #17. Share of plants using submetering for energy allocation

Submetering is becoming more common, with a meaningful chunk of plants using it in 2026 to allocate energy by area, line, or client. Without submetering, energy stays a blunt overhead number and arguments get emotional fast. With submetering, cost conversations become factual, which is a relief for both sides. It also lets factories spot waste like a press bank pulling load when it’s not scheduled. The learning curve is more cultural than technical. Teams need to trust the data.

Future implications suggest submetering will become normal for factories serving multiple brand clients. As brands demand transparency for domestic premiums, submetering supports cleaner, defensible costing. It also enables internal accountability, since departments can see their own impact. Over time, submetering can power predictive maintenance and load planning that reduces peaks. That pulls energy management into production planning, which is the real step forward. Factories that adopt it early will quote with less padding and fewer surprises.

Made in USA Apparel Energy Cost Share Statistics 2026 #18. Onsite solar or green-tariff adoption in domestic apparel plants

In 2026, a noticeable share of apparel plants use some mix of onsite solar, green tariffs, or renewable procurement tools. The motivation is often cost stability rather than pure branding, even if the marketing angle is nice. Solar doesn’t solve demand charges alone, but it can reduce daytime kWh and smooth certain load profiles. The practical benefit shows up when procurement locks a predictable rate component for years. Smaller plants can struggle with upfront costs, so green tariffs or shared community solar options become attractive. It’s more flexible than it used to be.

Future implications point to renewables being treated like a risk management tool. If industrial power demand keeps growing, price stability becomes more valuable than marginal savings. Factories that can offer “cleaner and steadier” power profiles may appeal to brands with reporting goals. Over time, expect more combined solutions, like solar plus batteries or load controls to handle peaks. That helps factories keep energy share stable even if headline prices rise. The long-run story is less “green” and more “predictable.”

Made in USA Apparel Energy Cost Share Statistics 2026 #19. Energy share threshold that triggers a line-level surcharge

A common internal threshold in 2026 is around 2.0% energy share of COGS before factories start discussing a dedicated surcharge. Below that, it’s usually rolled into overhead without much noise. Above that, the bill is large enough to distort pricing if it’s treated as background. This tends to occur in finishing-heavy programs or in high-price electricity regions. Brands sometimes interpret it as a vendor “extra,” but it’s typically a defensive move against volatility. Transparent allocation makes it easier to accept.

Future implications include more modular pricing in domestic manufacturing. Factories will increasingly separate base cut-and-sew from energy-heavy modules like washing and heat-set. This makes quotes clearer and encourages brands to make informed design decisions early. Over time, the surcharge conversation may evolve into a shared savings model if efficiency projects reduce that module cost. That rewards both sides and reduces adversarial pricing cycles. The factories that handle this cleanly will win trust and repeat programs.

Made in USA Apparel Energy Cost Share Statistics 2026 #20. Baseline reference point for apparel energy cost share

A legacy benchmark often used to explain apparel’s lower energy exposure is an energy cost share near 1.1% in older industry cost-share references. That baseline helps explain why energy stayed out of the spotlight for so long. The problem is that today’s rate structures and volatility make the “small share” feel bigger operationally. Even if the average share doesn’t explode, the spikes can still hurt. This is why factories now pay attention to peaks, riders, and allocation. The baseline is still useful, but it’s no longer the full story.

Future implications point to a new normal: energy stays a small slice but becomes a managed slice. As domestic manufacturing leans on speed, flexibility, and finishing capability, energy becomes a more important operational KPI. Plants that don’t track it will still be “fine” until they’re not, and that’s the risky part. Expect cost models and contracts to standardize energy assumptions in a simple, transparent way. Over time, the smartest vendors will treat energy stability as part of quality and reliability. That’s how a small number ends up shaping big sourcing decisions.

Made in USA Apparel Energy Cost Share Statistics 2026

 

What Energy Cost Share Means for Made in USA Apparel Next

Energy cost share in Made in USA apparel stays smaller than labor and materials, but it’s getting harder to ignore because it’s jumpy. The factories that win in 2026 won’t be the ones obsessing over pennies, they’ll be the ones preventing surprise peaks and explaining costs cleanly. Brands are also learning that finishing choices and comfort specs come with utility consequences, even if nobody likes that sentence. The most realistic path forward is treating energy as a controllable input tied to scheduling and facility upgrades.

Domestic manufacturing keeps selling speed and transparency, so energy management will get pulled into that promise. Expect more contracts to include utility language and more factories to add basic monitoring. Over time, the best plants will look calmer on paper, with fewer pricing fire drills, and that calm will read as “reliable Made in USA.”

Sources

  1. Industry brief detailing energy cost shares across U.S. manufacturing industries
  2. EIA Manufacturing Energy Consumption Survey overview and recent release notes
  3. EIA 2018 MECS tables for manufacturing energy use and expenditures
  4. EIA Short-Term Energy Outlook with electricity demand and price context
  5. EIA natural gas outlook page with Henry Hub expectations through 2026
  6. EIA Electricity Monthly Update for end-use sector price trends
  7. EIA Electric Power Monthly table for retail electricity price series
  8. EIA Annual Energy Outlook portal with long-run industrial energy projections
  9. Explainer on U.S. electricity price trends with sector-level projections
  10. DOE footprint summary for textiles energy use and emissions context
  11. ACEEE paper summarizing manufacturing energy use and emissions landscape
  12. BLS industry profile page for apparel manufacturing sector background

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