Fast Facts
Silicon’s cost and rigidity have kept mass-market IoT out of reach for most of the world. Flexible chips — thin, bendable, manufacturable in 30 steps at room temperature — are dismantling that barrier. The markets that gain most are not in California or Germany. They are in Lagos, Accra, Jakarta, and Dhaka. The chip is not the product. The scale it unlocks is the market.
The ambition behind flexible chips for mass-market IoT is straightforward: put a connected sensor on every bottle, every package, every industrial asset — affordably. The execution has been blocked for years by silicon’s economics. Traditional chip fabrication demands hundreds of process steps, temperatures exceeding 1,000°C, and fab infrastructure that costs billions to build. For low-margin consumer goods and price-sensitive industrial deployments, those economics have never worked.
Pragmatic Semiconductor’s FlexIC technology changes the equation. According to Electronic Specifier, FlexICs use around 30 fabrication steps — most at room temperature, none exceeding 300°C — versus hundreds of steps in conventional silicon manufacturing. Less energy. Less water. Smaller fabs. And critically: lower cost per unit at the volumes IoT actually demands. Pragmatic’s Durham facility is already rated for billions of chips per year.
The IoT chip market overall was valued at $685.9 billion in 2025 and is projected to reach $2 trillion by 2034 at a 12.7% CAGR, according to Fortune Business Insights. The fastest-growing segment is consumer electronics. The fastest-growing region is Asia-Pacific. Neither of those facts is a coincidence — and neither fully accounts for the opportunity sitting in Sub-Saharan Africa and West Africa specifically.
| Metric | Value | Description |
|---|---|---|
| Process Complexity | 30 steps | Compared to hundreds of steps required for silicon chip manufacturing |
| IoT Chip Market Size (2034) | $2T | Projected global market size for IoT chips by 2034 |
| Asia-Pacific FHE CAGR (2026–2035) | 17.9% | Expected compound annual growth rate for flexible hybrid electronics |
| Pragmatic Semiconductor Funding | $391M | Total funding raised by the company |
1. Silicon’s Cost Floor Has Always Been the Real Barrier
The connected world everyone describes — billions of smart items communicating seamlessly — runs into a hard economic wall when you price it per unit. Silicon chips work brilliantly in phones, servers, and EVs. They struggle to justify their cost in a $0.80 bottle of cooking oil or a $2 sachet of detergent. That is not a niche problem. That is most of the consumer goods sold in Lagos, Nairobi, or Manila.
According to RFID Journal, scaling legacy silicon production is difficult — older tools are harder to source, new fabs demand enormous capital and long build times, and even where capacity exists, cost constraints remain. If the goal is affordable intelligence across billions of items, the industry needs a manufacturing model that scales faster and more cheaply. Flexible chips are that model.
This is also why the IoT platform growth in emerging markets has consistently lagged behind deployment ambitions — connectivity has been available, but the endpoint hardware cost made scale economics impossible for most operators.
2. The Manufacturing Gap Is Closing, and It Closes Differently Here
Traditional semiconductor fabs require multi-billion-dollar builds and years of ramp-up. Pragmatic’s flexible fabrication model breaks that dependency. Smaller fabs, faster deployment, and a process that does not require the ultra-pure silicon conditions driving conventional chip costs. The Durham facility alone can produce billions of units annually — a production capacity that matches IoT’s actual deployment scale, not just pilot ambitions.
“FlexIC technology sustainably bridges our physical and digital worlds to enable low carbon, low-cost edge and item-level intelligence at scale, where it simply wasn’t possible previously.”— David Moore, CEO, Pragmatic Semiconductor
For markets like Nigeria where IoT policy and investment alignment is still catching up to deployment demand, the relevant question is not when advanced silicon fabs arrive locally. It is when flexible chip supply chains make locally deployable, affordable IoT endpoints the default option. That timeline is measurably shorter.
3. Item-Level Intelligence Opens Markets Nobody Has Formally Counted
The most underappreciated application here is not industrial — it is fast-moving consumer goods (FMCG). Avery Dennison, a strategic investor in Pragmatic, is already moving toward mass production of NFC inlays using FlexIC technology for retail and healthcare, according to Packaging Technology Today. The use cases are concrete: product authentication, Digital Product Passports (DPP), consumer engagement via smartphone tap, supply chain traceability.
⚠ Fiction — Illustrative Anecdote
A distributor in Kano taps a sachet of baby formula with his phone. The NFC chip embedded in the label confirms the batch origin, expiry date, and cold-chain compliance — in under two seconds. The flexible chip in that label cost less than a kobo to manufacture. Six months ago, that verification required a QR code scan that half his retail partners couldn’t reliably process. The cost of counterfeiting in his supply chain drops 60% in one quarter.
That scenario is where the financial logic of flexible chips becomes undeniable. Counterfeiting, cold-chain failures, and provenance fraud cost African FMCG supply chains billions annually. IoT-enabled authentication at item level has always been the answer. The blocker has always been chip unit cost. Remove that blocker and you are not selling a chip — you are selling supply chain integrity at scale. The subscription-based IIoT analytics model maps directly onto this: flexible chips enable the hardware layer, recurring data services enable the revenue layer.
4. The Edge AI Convergence Makes Timing Critical
Flexible chips do not operate in isolation. They arrive at exactly the moment when IoT Analytics has declared 2026 the inflection point for edge AI-enabled IoT OEM portfolio refreshes — a shift from basic telemetry to on-device decision-making. That shift requires a chip layer that is affordable enough to deploy at scale and flexible enough to integrate into non-standard form factors.
Silicon handles high-compute inference well. It fails at low-margin, high-volume, form-factor-constrained applications — precisely where emerging markets live. Flexible chips fill that gap. As IoT chip vendors embed NPUs and connectivity on increasingly compact, mature-node silicon while flexible chip makers handle item-level NFC and sensing at the price floor, the two technologies are not competing. They are complementary layers of the same deployment stack.
This convergence matters for procurement strategy. An operator building Connectivity-as-a-Service infrastructure across a West African logistics network needs both compute at the gateway and intelligence at the item. Silicon handles the former. Flexible chips make the latter viable for the first time.
5. The Sustainability Angle Is a Procurement Accelerator, Not a Marketing Line
EU Digital Product Passport regulations — now moving from pilot to enforcement — require item-level traceability across product categories including apparel, electronics, and batteries. That regulation is a direct procurement driver for NFC-enabled flexible chips. Companies that cannot demonstrate item-level compliance will face market access restrictions in the EU, the world’s largest regulated consumer market.
For manufacturers in Nigeria and Ghana exporting to Europe, that creates a hard deadline. The question is not whether to embed item-level connectivity — the regulation answers that. The question is which chip technology makes compliance affordable at the volumes those manufacturers operate. Flexible chips, with their lower per-unit cost and ability to integrate into existing packaging workflows without rigid substrate constraints, are the only viable answer at scale right now.
The connected device trajectory toward 2030 assumes billions of new IoT endpoints. Almost none of those projections fully account for where those endpoints physically need to be — embedded in packaging on shelves in markets where silicon economics have always said no. Flexible chips say yes. The question now is whether procurement teams in emerging markets recognize the window before their competitors do.
💡 CreedTec Analyst’s Note
By Daniel Ikechukwu
Strategic Impact
Flexible chips do not incrementally improve IoT economics — they unlock an entirely different tier of deployment that silicon has structurally excluded. For African and Southeast Asian operators, this is not a technology upgrade. It is a market entry event. The first movers who build flexible chip-native supply chain and product authentication systems in the next 18 months will hold infrastructure positions their competitors cannot replicate cheaply.
Stop / Start / Watch
- STOP treating IoT chip affordability as a future problem. Pragmatic’s NFC Connect is in mass production today. The supply chain exists. The unit economics exist. The delay is in procurement awareness, not technology readiness.
- START scoping flexible chip integration into packaging, labeling, and asset tracking workflows — particularly for any product line with EU export exposure or counterfeit vulnerability.
- WATCH Avery Dennison’s rollout of FlexIC-based NFC inlays in retail and healthcare. Their distribution footprint is global. Where they deploy at scale first signals where the commercial infrastructure is maturing fastest — and where competitors need to move.
ROI Outlook
Item-level NFC authentication cuts counterfeit losses and cold-chain failures — two cost categories that routinely run 5–15% of revenue in African FMCG supply chains. At a flexible chip unit cost low enough to embed in single-use consumer packaging, the break-even on authentication infrastructure is measured in weeks at scale, not quarters. The ROI case is not aspirational. It is arithmetic.
Frequently Asked Questions
What are flexible chips and how do they differ from silicon chips?
Flexible chips use thin-film transistor technology on bendable substrates like polyimide, manufactured in around 30 steps at ambient temperatures — versus hundreds of steps at temperatures over 1,000°C for silicon. They are thinner, lighter, cheaper to produce at scale, and can conform to curved or irregular surfaces where rigid silicon cannot fit.
Which IoT applications are flexible chips suited for?
Item-level NFC connectivity in consumer packaging, supply chain traceability, product authentication, Digital Product Passports, wearables, smart labels, and low-power industrial sensors. They are optimized for high-volume, cost-sensitive applications where silicon’s per-unit economics have historically been prohibitive.
Why does this matter specifically for African and Southeast Asian markets?
Both regions have large informal supply chains with significant counterfeiting, cold-chain, and traceability problems — but low average revenue per unit in consumer goods makes silicon-based IoT unaffordable. Flexible chips change the cost floor, making item-level intelligence viable for FMCG categories that dominate these markets.
Are flexible chips ready for industrial IoT deployment today?
For NFC and RFID sensing applications, yes. Pragmatic’s NFC Connect is in mass production and Avery Dennison is already integrating it into inlay products for retail and healthcare. For higher-compute industrial applications, flexible chips complement rather than replace silicon — handling the item-level sensing layer while traditional chips handle gateway processing.
How do EU Digital Product Passport regulations affect procurement decisions?
DPP regulations require item-level traceability for product categories including electronics, apparel, and batteries. Manufacturers exporting to the EU need embedded NFC or RFID at the product level to comply. Flexible chips make that compliance affordable at the scale those manufacturers operate — the regulation converts the technology from optional to essential.
What should procurement teams evaluate when sourcing flexible IoT chips?
Four criteria: (1) unit cost at target volume — confirm pricing at the actual deployment scale, not pilot quantities; (2) ISO/NFC Forum standards compliance for interoperability with existing reader infrastructure; (3) fab production capacity — can the supplier deliver billions of units annually without lead time risk; (4) integration support — does the chip require new inlay or packaging tooling, or does it fit existing workflows?
The IoT Cost Floor Is Dropping — Are You Positioned?
CreedTec tracks the industrial AI and IoT shifts that procurement teams and operators in emerging markets need to act on before they become obvious.


