# The Architecture of an Advanced Brazilian Semiconductor and Electronics Industry *Mineral resources, electronic-grade materials, equipment, design, fabrication plants, packaging, logistics, human capital, and institutions capable of sustaining decades of development.* *Brazil · November 12, 2026 · Historical and prospective horizon: 2027–2051* ## The starting point A country that controls only the consumption of technology can become a very large buyer and a small producer of industrial knowledge. A country that controls only mineral extraction can export tonnes of raw material and import grams of devices whose prices reflect decades of research, factory organization, and intellectual property. Between these extremes lies a chain of economic decisions that determines where skilled wages, profits, patents, bargaining power, and the capacity to withstand supply disruptions accumulate. Brazilian advanced-electronics production requires a change in institutional scale: universities capable of transferring reproducible processes; manufacturers willing to purchase Brazilian designs; mining and chemical companies capable of meeting ultra-high-purity specifications; technical schools integrated with equipment maintenance; agencies financing verified milestones; and logistics, power, water, and regulatory systems suitable for an industry in which failures can be extraordinarily expensive. The technological frontier will not be reached through one factory, one decree, or a mineral chain alone. Industrialization requires contracts that allow learning through actual production, including failures, and sustained demand for innovation, quality, and cost reduction. The principal scarce resource is the organized continuity of learning. ## The material foundations of technological power An advanced semiconductor industry cannot exist without three economic systems operating together. The first is the material system: mining, chemistry, electricity, water, machinery, metallurgy, optics, automation, and logistics. The second is the knowledge system, which converts understanding into products through research, architecture, digital tools, intellectual property, process engineering, and the ability to diagnose failures. The third is the institutional system: contracts, financing, procurement, standards, training, environmental regulation, and policy predictability. If any one is absent, capital and knowledge cannot reliably become competitive production. The chip made on a wafer is only one step in a sequence that can begin with quartz extracted from a deposit and end with an inverter at a power plant. Along the way, decisions taken by companies in several countries determine crystal quality, deposition parameters, mask availability, packaging compatibility, and the module's service life. The modern chain is global because some operations have such high fixed costs and such demanding technical requirements that international specialization reduces waste and multiplies knowledge. Trying to nationalize everything would be an extreme economic choice. Remaining exclusively dependent on imports is risky too: it prevents the country from sharing productivity gains and exposes critical systems to trade restrictions. Brazil has meaningful scientific and industrial capacity in adjacent fields. Its mining and metallurgy supply important raw materials; its electronics industry includes assemblers, equipment makers, automation providers, and software firms; universities and institutes train engineers capable of designing circuits and studying materials. The missing element cannot be reduced to one laboratory, plant, or budget. The difficulty lies in connecting existing capabilities through commercially viable contracts, technical specifications, and continuous learning cycles. Possessing a mineral does not guarantee the ability to turn it into electronic-grade material. Possessing a chip design does not guarantee commercial manufacturability. Operating an assembly line does not establish national ownership of either the design or the intellectual property. Industrial development will not be linear. Some firms may initially produce power modules using imported dies. Others may sell locally designed analog circuits fabricated at a foreign foundry. A high-purity chemical supplier may win international customers without a domestic logic fab. A metrology center can lower costs for dozens of firms. These initiatives constitute an industry even before the country operates a factory for advanced processors. The decisive test is economically reproducible competence: paying customers, technicians who can maintain processes, materials meeting specifications, and knowledge that produces new products. [S01][S02][S04] ### Brazil's electrical and electronics trade in 2025 ABINEE's consolidated 2025 series in its 2026 Economic Outlook and Sector Performance report records US$48.734 billion in electrical and electronics imports and US$8.146 billion in exports, for a deficit of approximately US$40.588 billion. These figures cover the wider electrical and electronics industry, not only semiconductors, and measure FOB trade flows rather than investment stocks. Semiconductor imports of US$5.963 billion in the same series form part of total sector imports and must not be added to them again. [S02] ```chart type: bar title: Brazil's electrical and electronics trade, 2025 unit: US$ billion FOB, 2025 Imports | 48.734 Exports | 8.146 ``` | Flow | Year | US$ billion | Coverage | |---|---|---:|---| | Imports | 2025 | 48.734 | Electrical and electronics industry | | Exports | 2025 | 8.146 | Electrical and electronics industry | | Semiconductor imports | 2025 | 5.963 | Subset of import flow | The difference between exports and imports is the sector's trade balance for the year. By itself it does not measure domestic value added, the technological standing of firms, or whether replacing any given imported component would be economically viable. [S02] ### The industrial chain: from input to final application ```flow Mining and beneficiation → Electronic-grade refining and chemistry → Qualified wafers, gases, and materials → Fabrication and testing processes → Packaging and electronics integration → Qualification by industrial buyers → Maintenance, exports, and reinvestment ``` ```mindmap Brazilian advanced chips and electronics industry - Materials and logistics - mining and beneficiation - water, energy, gases, and ultra-pure chemistry - imports of equipment and spare parts - Technology and operations - design, IP, and EDA software - fabrication, metrology, and yield - packaging, testing, and reliability - Institutions and markets - universities and technology institutes - financing and conditional incentives - anchor customers, exports, and competition ``` ### Brazilian semiconductor imports, 2020–2025 ABINEE's series shows semiconductor imports fluctuating between 2020 and 2025. A rise in import value does not in itself demonstrate greater physical volume or dependence in every application because prices, device mix, and contractual exchange rates can vary. These figures are nominal FOB trade flows of semiconductor components, not investments in fabs or Brazilian production. [S02] ```chart type: line title: Brazilian imports of semiconductors, 2020–2025 unit: US$ billion FOB 2020 | 4.4288 2021 | 5.5839 2022 | 6.3480 2023 | 5.2280 2024 | 6.3090 2025 | 5.9629 ``` ## The hidden cost of dependence Imports of electronic components are commonly assessed by their customs value. That price, however, does not capture their full strategic cost. An industry buying a microcontroller may also depend on a compiler, a firmware library, an intellectual-property license, programming tools, and the foreign manufacturer's decision to continue the product line. In vehicles and industrial equipment, redesigning an entire board can cost many times more than the chips themselves. Vulnerability rises when a component is certified for regulated applications or must remain available for decades. There is also an opportunity cost. Every time a Brazilian manufacturer internalizes product architecture, its engineers learn to select components, calculate electrical margins, control interference, build test benches, and negotiate with suppliers. When these functions are performed entirely abroad, the country retains assembly and distribution but loses part of the capability from which future technology generations emerge. The sector's trade deficit should not be read as proof that every imported item must be substituted. Instead, it calls for investigation into the links with the highest value and the greatest exposure. According to ABINEE's consolidated 2025 trade series, Brazil imported approximately US$48.7 billion and exported US$8.1 billion of electrical and electronics products, resulting in a deficit near US$40.6 billion; semiconductor imports totaled about US$5.96 billion. Aggregates do not automatically reveal whether every category of chip should be manufactured locally: a substantial share of demand concerns products governed by intellectual property, international contracts, and economies of scale that would be difficult to replicate. The appropriate inquiry disaggregates trade by circuit type, end customer, quantity, price, interruption exposure, and potential product differentiation. [S02] Import substitution may be an outcome but is not a sufficient goal. A company unable to export because artificially elevated costs undermine competitiveness can weaken the domestic industries that use its parts. A Brazilian-owned design manufactured under contract abroad may generate more domestic economic value than a locally built fab without customers or indigenous engineering. The comparison must include taxes, exchange rates, financing costs, reliability, support, defect costs, and prospects for improvement. The aim is a productive base that can survive without permanent protection. ## Why one factory does not make an industry Civil construction is the most visible part of a fab investment, but it is not its economic substance. A plant generates value only when dozens of chemical and physical operations repeat outcomes with controlled defects. Before the first commercial lot arrives, operators must sign utility contracts, acquire equipment sometimes subject to long lead times, install piping compatible with ultra-pure substances, develop process recipes, calibrate instruments, qualify suppliers, establish emergency protocols, and hire teams for continuous shifts. Delay in a single subsystem can idle other assets that have already been paid for. During technology transfer, a plant operates below ideal yield. Quality may improve rapidly in some processes and slowly in others. Equipment rated to process a nominal number of wafers does not guarantee that commercial output: maintenance, adjustment, shutdowns, engineering lots, and testing reduce effective capacity. The operation must also absorb customers' design changes without losing process control. Economically, the relevant unit is cost per die that has passed all necessary tests, not cost per processed wafer. International projects demonstrate the possible scale of investment. The US CHIPS program's support for TSMC's Arizona operations covers an investment program of more than US$65 billion across three advanced-technology fabs. This does not establish the cost of a mature-node Brazilian plant; it shows that the frontier requires fundamentally different capital outlays from laboratories, outsourced semiconductor assembly and test facilities, or small specialized plants. Comparing them without distinguishing products, capacity, wafer diameter, and process complexity produces misleading conclusions. [S07] The industrial sequence should begin with a market contract. What will the component do? Who authorizes its use in the end product? What is the credible annual volume? What does the imported alternative cost? How long will certification and support last? Are restrictive patents involved? Only after these questions can a facility be sized. If the process is built before demand, management is forced to search for products to fill equipment already depreciating. This reverses investment logic, especially where capital is expensive and technologies change quickly. ## The economics of a working die A simplified unit-cost model helps distinguish technical efficiency from commercial feasibility. Potential dies per wafer increase with usable area, but not in a perfectly linear way: edge space is wasted, geometry matters, and products occupy different areas. Commercially saleable output equals potential dies multiplied by manufacturing and test yield. When a plant operates below capacity, fixed costs must be allocated to fewer functioning units. Consider a purely hypothetical wafer with 600 possible die sites. At 60% overall yield, 360 dies pass; at 85%, 510 pass. If wafer cost is unchanged at R$12,000, this stage's manufacturing cost falls from about R$33.33 to R$23.53 per good die, before packaging, further tests, engineering, or sales. The difference is substantial without any change in the physical size of the plant. This illustration is not a claim about foundry prices or any particular device. Yield is not independent of die size. In simplified models, a larger exposed area raises the probability of defects; actual outcomes depend on their spatial distribution, redundancy, architecture, parameters, and failure mechanisms. Product and process engineers therefore must work together. Yield improvement may call for changing a mask, cleaning a chamber, revising maintenance, recalibrating a tool, or redesigning a circuit. A public incentive linked only to installed capacity fails to reward the improvements that determine competitiveness. Financial evaluation must cover the entire cycle. Depreciation, electricity, gases, water, maintenance, wages, royalties, tests, and obsolescence losses all enter economic cost. The sales price is determined by buyers' willingness to pay, not the factory's accounts. If domestic marginal costs persistently exceed international prices, the operation requires differentiation, quality, security of supply, or subsidies. Without a sustainable source of value, physical expansion makes the enterprise more fragile. ## Semiconductor production as materials policy The route from deposit to chip has five levels. First comes geological availability: quantity, grade, mineralogy, and legal access. Second comes beneficiation: physical or chemical separation that concentrates useful minerals. Third comes refining: conversion into feedstocks with appropriate purity, composition, and form. Fourth comes special-material manufacturing: ingots, wafers, targets, gases, precursors, resins, substrates, and equipment parts. Fifth comes fab qualification: approval in real processes, with enough repeatability to enter supply contracts. Minerals policy often concentrates on the first level because reserves and tonnage are easy to communicate. The harder value is created near the end, where a handful of particles, ultra-trace impurities, or batch variation can render material unusable. Geology opens possibilities; the process industry converts them into sophisticated goods. Not every promising deposit supports a commercially viable purification route. Nor can every chemically possible process survive electricity, water, transportation, and effluent costs. Brazil has resources and industrial operations associated with metallurgical silicon, graphite, niobium, tantalum, tin, alumina, and other materials, as described by USGS assessments. Project selection nevertheless must start with full sample characterization and industrial flow diagrams. A quartz-to-crucible chain serves a different market from metal-based PVD sputtering targets. Gallium recovery depends on byproduct processing and markets for particular compounds. The list of domestic minerals is an inventory of options, not a promise of self-sufficiency. [S04][S05] Materials businesses have a particular advantage: they can export to fabs located in other countries. Brazil need not await a complete logic fab before supplying ceramics, mechanical parts, process chemicals, or packaging compounds. To do so it needs accredited laboratories, certification, stable contracts, and an industrial reputation. Quality must be demonstrated, lot after lot, to demanding customers. Minerals development begins producing technology when mineralogy, chemistry, precision engineering, and commercial relationships form an integrated system. ## The economic cost of training people The shortage of engineers will not be resolved merely by financing more university degrees. A designer of complex analog circuits must examine silicon failures, compare models with measurements, and understand physical effects rarely taught in introductory classes. A process engineer needs real fabrication shifts, statistics, and maintenance experience. Equipment technicians learn to detect abnormal trends before failures occur. The decisive knowledge is cumulative and partly tacit. A program of short-term scholarships may educate talented individuals and then lose that investment when they move to countries with production facilities and stable careers. Bringing specialists back from abroad depends on meaningful problems, equipment, budgets, colleagues, and prospects for advancement. Human-capital policy must build institutions capable of preserving know-how across generations, with permanent specialists training their successors. The Semiconductor Industry Association and Oxford Economics estimated that roughly 67,000 additional technical positions in the United States might remain unfilled by 2030 without changes in education and training trends. That figure must not be transposed to Brazil; it shows that even economies with major firms and universities face labor constraints. Many of these gaps concern technicians, not only PhD researchers. [S11] A Brazilian program needs vocational courses tied to real operations, university labs with design-tool access, experienced verification engineers, and exchanges with established facilities. Policy should avoid rewarding only publication counts or certificates. The relevant outcome is a team's ability to conceive, test, manufacture, troubleshoot, and sell components while maintaining safety and documentation. This work spans academic, technical, and corporate career paths. ## The difference between making something and competing with it Demonstrating component manufacture and winning a market are separate achievements. A laboratory may produce a power device that withstands a specified voltage, but customers demand parameter consistency, thermal reliability, guarantees, traceability, and reliable delivery. One successful circuit run does not prove that a firm can repeat the result across ten thousand lots. Industrial transition requires quality planning, supplier engineering, and after-sales support. Chip qualification has considerable inertia. A machinery manufacturer that has used a particular component for years may need to redesign boards, test electromagnetic compatibility, revalidate software, and accept legal and commercial risks before adopting a new supplier. If per-unit savings are small, switching may not make sense. Industrial policy that pays only for component development overlooks the customer's adoption costs. Several instruments can reduce this obstacle. Pre-commercial technology procurement shares the risk of a first application; testing and certification platforms reduce common expenses; shared design centers help smaller firms aggregate demand; buyer credit can finance equipment replacement. Such measures must preserve competition, transparency, and exit provisions. Otherwise, they risk protecting products that never mature. The decisive commercial test is voluntary exports to competitive markets, supplemented by scrutiny of quality and productivity. Public procurement can begin a cycle; it should not remain its only permanent source of demand. Brazilian advanced industry will have matured when international buyers choose its chips, modules, chemicals, and equipment even when global alternatives are available. ## Investment sequence and decision discipline Technology investment should proceed through reversible stages. First, a team demonstrates customer interest and turns requirements into specifications. Second, it validates the technology in the laboratory and estimates scaling costs. Third, it builds representative prototypes, conducts independent tests, and secures commercial commitments. Fourth, it installs pilot capacity with statistical control and safety systems. Fifth, it expands production only as yield, demand, and financing indicators justify it. Each stage increases irreversibility and calls for stronger evidence. Government can cofinance shared infrastructure whose benefits spill over to many firms and institutions. It can also assume some risks that private investors will not take because of coordination failures. But supporting a portfolio of experiments is not the same as guaranteeing a factory's entire return. Fiscal exposure needs caps, audits, and publicly specified stop conditions. Private capital must remain genuinely at risk so that technical decisions are not dominated by incentives to capture subsidies. Private actors must take symmetrical responsibilities. Anchor buyers should share specifications, volumes, and qualification data; industrial groups must invest in engineers and suppliers; investment funds must understand hardware development cycles. Universities need to open laboratories, manage contracts, and retain staff; environmental agencies must assess permits rigorously and predictably. Failure by one participant can prevent several others from delivering results. Timelines depend on starting conditions. Improving PCB testing or developing an electronics module can take months; building packaging lines and new supplier bases takes years; maturing a specialized fab can absorb a decade; becoming a global supplier of frontier manufacturing equipment calls for a still longer effort. These time ranges are orders of magnitude conditional on demand, technology absorption, and international agreements—not guaranteed schedules. ## Architecture of production links 01 I — Economic and technological foundations 02 II — Natural resources and mineral transformation 03 III — Process chemistry and intermediate materials 04 IV — Electricity, water, land, logistics, and security 05 V — Fabrication equipment and processes 06 VI — Design, software, and intellectual property 07 VII — Packaging, testing, and electronic products 08 VIII — Education, science, and entrepreneurship 09 IX — Government, institutions, and political economy 10 X — International lessons 11 XI — Geographic strategy and timetable Normative and statistical references appear as [S01] through [S18] throughout the study. Prospective horizons are conditional scenarios, not official forecasts. ## I — ECONOMIC AND TECHNOLOGICAL FOUNDATIONS ### 1. Chips as infrastructure for the modern economy A semiconductor is not merely a component placed inside a device. It determines the precision of a medical instrument, the efficiency of an inverter, the transmission capacity of a network, and the architecture of a defense system. Its value chain begins long before the wafer and continues afterward: physical models, software, materials, tools, equipment, testing, integration, and technical support. Brazil purchases large volumes of finished goods and inputs but does not proportionately capture intellectual property or the fabrication of more complex components. This dependency is less visible than dependence on oil: chips often account for only a small share of a product's physical weight, yet their absence can halt the entire production process. Development policy should be judged by domestic value added, accumulated learning, and the capacity to supply competitive components without permanent subsidies. The appropriate measure is not the number of devices assembled but the domestic share of engineering, packaging, materials, processes, and exports. Indicators: domestic technological content, exports of design services and components, defect rates, and replacement lead times; three-, seven-, and fifteen-year horizons. [S01][S02] ### 2. Autonomy, autarky, and interdependence No major power independently manufactures every machine, gas, chemical, software package, and material required for advanced chip production. Even the most sophisticated lithography relies on thousands of specialized suppliers in multiple countries. Autonomy means being able to negotiate, replace, maintain, and adapt critical inputs; autarky means trying to internalize every stage, usually at prohibitive economic cost. Brazil faces a scale dilemma. Bringing any link onshore increases fixed costs; bringing all links onshore at once may disperse resources and delay the emergence of buyers. Robust technological sovereignty combines selected domestic manufacturing, design rights, alternative suppliers, operating inventories, and international contracts with technology provisions. Targets should divide dependencies into three groups: inputs replaceable within months, inputs requiring years of qualification, and single points of failure capable of stopping production. The first category calls for procurement management; the second for co-development; the third for redundancy, diplomacy, lawful reverse engineering, and recovery capability. Indicators: time to recover supply, supplier concentration, and foreign-exchange exposure by component; review every six months. [S01][S15] ### 3. Where value is created along the chain Chip development distributes economic value unevenly. Architecture, intellectual property, design, and specialized software can earn meaningful margins without a company owning a fab. Fabrication requires enormous capital, process discipline, and high utilization. Packaging and testing may generate less revenue per unit but remain indispensable, and they are advancing rapidly through chiplets and heterogeneous integration. Brazilian firms need not choose between mastering all fabrication stages and remaining restricted to final-product assembly. A company that designs power-management ASICs, buys wafers abroad, packages chips domestically, and controls firmware can retain technology, customers, and significant margins. Contracting fabrication abroad must not be confused with the absence of a national semiconductor industry. Building a successful fabless business requires reusable block libraries, reliable access to electronic design automation tools, fabrication agreements, automated tests, verification engineers, and repeat customers. The most useful public instrument may be sharing prototype and early procurement costs rather than building a foundry. Indicators: revenue per engineer, Brazilian-origin IP licenses, commercial tape-outs, and designs reaching volume production; assess portfolios rather than announcements. [S01] ### 4. The learning curve and fabrication yield Profitability depends less on proving that a transistor works than on producing thousands or millions of units with repeatable characteristics. Yield is the fraction of functioning devices, influenced by die area, defect density, process complexity, and testing criteria. Small yield losses substantially increase the cost of each saleable part. A university laboratory may produce a working device while remaining far removed from industrial operations. Factories require statistical process control, root-cause analysis, maintenance, particle monitoring, lot-by-lot traceability, change management, and permanently staffed shifts. The gap between prototype and product is institutional as well as scientific. Any expansion of fabrication capacity should tie financing to measured yield, process stability, qualified customers, and cost audits. Initial production can focus on a few device families through repeated manufacturing and improvement cycles, avoiding fragmented portfolios that obstruct learning. Indicators: yield by product, wafers started per month, cost per good die, critical-parameter Cpk, and downtime hours. [S01][S09] ### 5. Mature process nodes do not mean obsolete products Not every circuit needs lithography below ten nanometers. Industrial controls, audio, sensors, analog interfaces, battery management, microcontrollers, automotive systems, and many power devices prioritize reliability, breakdown voltage, operating temperature, lifetime, and cost. Minimum transistor size alone does not establish technological relevance. A symbolic pursuit of the smallest geometry could lead Brazil to compete prematurely against firms operating at enormous scale. Furthermore, an advanced logic node cannot replace specialized processes for RF, MEMS, high isolation, BCD, gallium nitride, or silicon carbide. A plant with too many process variants also accumulates costly masks, qualifications, and inventory. Process selection should begin with contracted demand and buyers' electrical needs. A product matrix covering annual volumes, acceptable pricing, certification, and qualification costs can guide node selection without turning a promotional benchmark into an industrial-policy objective. Indicators: share of qualified components in vehicles, electrical grids, agriculture, and healthcare; approval times and margins by device family. [S01][S10] ### 6. Fixed capital and capacity utilization A fab bears high fixed costs for land, facilities, lithography, deposition, measurement, power, staff, and depreciation. Underutilization spreads those costs over fewer wafers; price discounts cannot quickly fix a line with weak utilization. Financing equipment without a secure market may create an advanced technical asset that remains financially fragile. The size of Brazil's consumer market is not sufficient proof of demand for any particular plant. A locally assembled vehicle may use semiconductors specified by a foreign parent company under global contracts and multi-year qualifications. Replacing purchases requires engagement with engineering projects and purchasing decision makers, not only tax incentives. Before financing a fab, decision makers should require conditional purchase agreements, identification of who owns the technical specification, competitor analysis, foreign-exchange scenarios, and estimates of capacity use. Public participation can be linked to sales, quality, and export milestones, with restructuring options if the commercial hypothesis fails. Indicators: sustainable utilization, full cost per wafer, contracted revenue, break-even level, and exposure to a single buyer. [S01][S07] ### 7. Industrial agglomeration economies Semiconductors benefit from proximity among suppliers, maintenance technicians, universities, laboratories, airports, calibration services, and industrial buyers. Freight cost is only one consideration: having specialists nearby who can diagnose a fault within hours can dramatically reduce equipment downtime. A map of industrial hubs distributed for political reasons can dilute learning. Yet concentrating everything in one region also creates exposure to power shortages, droughts, floods, and real-estate costs. A few specialized clusters with complementary roles and operational contingency arrangements offer an alternative. One fabrication cluster may share gas, water, and waste-treatment infrastructure; another can concentrate design and EDA; a third can specialize in board assembly and environmental testing. Public support can finance common goods subject to competitive access by multiple firms instead of infrastructure effectively controlled by a single beneficiary. Indicators: number of qualified suppliers within relevant distance and response-time bands, average maintenance time, and density of joint projects. [S01] ### 8. The twenty-year horizon Building a semiconductor industry takes longer than constructing buildings. Engineers must participate in multiple tape-out cycles; technicians must experience breakdowns and repairs; suppliers undergo qualification processes; buyers accumulate records of reliability. Industrial maturity is produced by organized repetition. A two-year budget interruption can disperse teams, contracts, and trust that took a decade to form. But stable financing cannot justify projects without verifiable targets. Persistence and evaluation must coexist. Multi-year contracts should bind industrial policy to independent technical audits, productivity targets, and continuity clauses for common infrastructure. Specific technology choices should be reviewed at short intervals while structural objectives—engineers, testing capacity, firms, and exports—remain stable. Indicative horizons: years 0–3 for skills and design; years 4–8 for back-end scaling; years 8–15 for selected fabrication processes; years 15–25 for diversification. Planning ranges, not predictions. [S06][S07] ### 9. National security and dual-use technology Radar, satellites, protected communications, power systems, embedded cryptography, and industrial sensors depend on semiconductors with both civilian and military applications. Strategic exposure does not stop at processor shortages; it also includes losing the ability to update firmware, verify integrity, and maintain equipment over decades. Importing commercial chips can be appropriate for most applications. Critical systems, however, require provenance, testing, lifecycle documentation, management of discontinued parts, and access to alternatives. A policy based solely on the manufacturer's nationality may be less effective than one based on verifiable supply security. Strategic public procurement should publish technical and cybersecurity requirements, preserve competition, and distinguish legitimate defense needs from inefficient protectionism. National laboratories can develop reliability, authentication, and counterfeit-detection tests that also serve private industry. Indicators: critical equipment with a qualified second source, traceability, and a demonstrated maintenance horizon. [S01] ### 10. The domestic market as a test bed for scale Brazilian agriculture, power networks, vehicles, industrial machinery, healthcare, and telecommunications confront distinctive constraints: long distances, heat, humidity, voltage surges, maintenance costs, and diverse users. These constraints can inspire exportable products if they are converted into technical specifications and rigorous tests. Fragmented demand tends to favor standardized imports. To develop national scale, buyers from different industries need to identify common components: power converters, current sensors, rugged MCUs, surge protection, and low-power radios. The state need not declare a winning product but can coordinate interoperable requirements. Consortia of manufacturers, utilities, and universities can fund electronics platforms accessible to multiple companies. Initial procurement should pay for demonstrated performance, allow international suppliers, and reward technologies that reduce lifecycle cost. Indicators: projects involving at least three independent purchasers, exportable annual volume, and operating savings per application. [S02][S08] ## II — NATURAL RESOURCES AND MINERAL TRANSFORMATION ### 11. The difference between ore and electronic material Owning a mineral reserve does not mean producing the feedstock required in a cleanroom. A deposit, extraction, concentration, metallurgy, refining, purity control, and industrial qualification represent distinct businesses. High metal content can coexist with impurities that are difficult to remove, and even the purest material can be unusable if its properties vary between batches. Brazil holds important international positions in niobium, iron ore, bauxite, graphite, tin, tantalum, metallurgical silicon, and other minerals. These assets do not automatically confer the ability to produce electronic-grade monocrystalline silicon, ultra-high-purity gases, or advanced substrates. Minerals policy must map specific impurities, beneficiation costs, electricity requirements, permitting, and industrial customers. Geology and chemical-engineering universities should work with material manufacturers to turn deposits into certifiable batches. The advantage exists only when this conversion is economical. Indicators: certificates of analysis by batch, chemical yield, cost on an ultra-pure basis, and repeat commercial orders. [S04] ### 12. Silicon: from silica to polysilicon Silicon used in integrated circuits undergoes several transformations. Quartz or quartzite feeds metallurgical reduction processes; the resulting silicon requires much stricter chemical purification for electronic use. Crystal growth, slicing, polishing, and wafer inspection follow. Domestic silica availability does not eliminate the need for competitively priced power, reagents, closed process systems, effluent treatment, distillation technology, and markets for byproducts. The distinction between metallurgical, solar-grade, and electronic-grade silicon must remain explicit: accepting inadequate purity damages all subsequent processes. A rational Brazilian project would compare three options: initially importing certified wafers, manufacturing selected intermediate specialties domestically, or gradually developing a high-purity chemical chain backed by purchase contracts. Each choice must confront total cost, minimum scale, and the genuine feasibility of impurities measured in parts per billion or less. Indicators: contaminant profile, batch rejection, specific energy consumption, and competitiveness against imported wafers. [S04][S05] ### 13. High-purity quartz and the real constraint High-purity quartz serves crucibles, optical systems, tubing, and other parts exposed to demanding thermal and chemical conditions. Suitability depends on mineral inclusions, water, trace metals, and post-treatment behavior—not merely conventional chemical assay results. Abundant quartzite does not automatically become ultra-purified quartz. Brazil should assess deposits using standardized sampling, mineral characterization, and industrial testing protocols. If the national contribution stops at extraction, most knowledge and price premiums will remain with firms transforming quartz into certified high-performance components. Public laboratories can support sample libraries and interlaboratory comparisons; private consortia should develop washing, leaching, separation, and thermal-treatment routes with environmental controls. Producing crucibles and quartz components may offer a more plausible entry than immediately capturing the entire worldwide market for ultra-pure raw material. Indicators: intracrystalline impurities, thermal resistance, productivity, and prices validated by fabrication customers. [S05] ### 14. Silicon crystals and Czochralski growth Crystal uniformity is decisive for silicon wafers. The Czochralski method controls temperature, rotation, atmosphere, doping, and solidification to produce ingots subsequently subjected to crystallographic orientation, slicing, lapping, etching, and chemical-mechanical polishing. The operation combines thermodynamics, materials science, and extreme metrology. Defects or contamination introduced early in the chain persist into stages where costs are high. Growing ingots requires expensive machinery and experienced operators, but also crucible, graphite, gas, and abrasive suppliers. Wafer marketability depends on stringent surface-defect and flatness specifications. Technology centers can begin with crystal engineering and doping control at scales suited to sensors, power devices, or research. Expansion into large-diameter wafers is justified only after orders, qualifications, and minimum-scale economics have been established. Indicators: radial resistivity, defect density, surface roughness, total thickness variation, and acceptance rates. [S01] ### 15. High-purity graphite Technical graphite is used in heaters, susceptors, furnace components, crucibles, and thermal equipment. It must withstand sudden temperature changes, retain dimensional stability, and avoid emitting particles or contaminants. Its value chain may involve mining, synthesis or conversion, purification, precision machining, and special coatings. Brazil's natural graphite resources create an industrial opportunity but do not guarantee material fit for semiconductor equipment. Some applications use synthetic or tightly controlled graphite grades, for which porosity, internal structure, and plasma behavior matter more than geological origin. Partnerships with furnace manufacturers and materials companies should develop qualified parts, beginning with research and power-electronics equipment. Local-content requirements must avoid mandating domestic graphite without evidence of equal or better performance than imports. Indicators: impurities released during operation, thermal cycles to failure, dimensional drift, and acceptance by equipment makers. [S04] ### 16. Tantalum, niobium, and their different roles Tantalum is used in capacitors, diffusion barriers, and specialized materials; niobium is used in alloys, superconductors, and other engineering components. Although both metals matter to advanced technologies, they are not universally interchangeable. The route from mineral concentrate to physical-vapor-deposition target demands sophisticated metallurgy and controlled purity. Brazil has substantial resources of both metals, but value creation requires identifying specific applications and customers. Exporting concentrates and then importing finished capacitors or targets can amount to transferring the highest-margin, most knowledge-intensive processing stages abroad. Joint efforts by mining firms, powder-metallurgy companies, passive-component manufacturers, and universities could establish purification, sintering, and thin-film control pathways. Maturity must be assessed through components qualified in actual products rather than tonnes of exported ore alone. Indicators: purity, particle size, target-manufacturing yield, deposition losses, and domestic share of final value. [S04] ### 17. Tin, copper, and interconnection metals Semiconductor packaging and electronics assembly rely on tin-based solder, copper interconnects, and various alloys. Wires, traces, bumps, and contacts require control of composition, surface condition, oxidation, electrical resistance, and thermal fatigue. Miniaturization makes slight metallurgical changes consequential for reliability. Brazil has mining, metallurgy, and a substantial copper and electrical-components industry, but some semiconductor inputs require specifications far tighter than conventional commodity metals. Inadequate contamination and particle-size control can prevent a supplier from entering high-technology markets. Integration among refiners, solder manufacturers, powder-metallurgy firms, assemblers, and testing laboratories should produce traceable product catalogs. Exports of electronic materials could expand before Brazil has a major local wafer fab. Indicators: solder defects per million joints, thermal-cycling performance, and batch-level chemical composition. [S04] ### 18. Aluminum, alumina, and technical ceramics Aluminum is used in interconnections and structures; high-purity alumina and engineered ceramics serve insulators, supports, substrates, and components exposed to harsh environments. Their chain extends from bauxite to refining and ceramic forming, with additional calcination, controlled milling, and sintering. Producing bauxite and alumina domestically does not automatically establish the capacity to manufacture electronic ceramics. Requirements cover grain size, porosity, thermal dissipation, dielectric strength, and trace-metal control. In power electronics, substrate failure can destroy entire modules. Advanced-ceramics firms, SENAI institutes, and universities should develop heat-management materials, power substrates, and equipment parts, using thermal-shock and lifetime tests. Projects learning directly from customers are more likely to scale than factories without commercial specifications. Indicators: thermal conductivity, dielectric strength, porosity, and returned-batch rates. [S04] ### 19. Gallium: a minor metal with strategic importance Gallium is used in materials such as GaN and GaAs for power, radio-frequency, optoelectronics, and specialized components. It is often recovered as a byproduct of processing other minerals, particularly within the alumina chain. This means supply depends on industrial decisions that do not respond directly to gallium prices alone. Brazil must not presume gallium-refining profitability merely because it produces bauxite. Actual concentrations, processing streams, losses, separation costs, scale, residues, and pricing under different market conditions must be quantified. Geopolitical dependencies and trade controls may increase the strategic value of diversified supply. Pilot studies with refiners and metallurgical institutes should examine extraction and purification to grades suitable for compound manufacture. Initial sales may target research materials or specialized applications; building a GaN device fab is a different project requiring epitaxy and circuit design. Indicators: metal recovery, marginal extraction cost, and long-term sales agreements. [S04] ### 20. Germanium and byproduct chains Germanium is used in infrared optics, specialized devices, and certain semiconductor architectures. Its supply also depends on mineral and metallurgical streams from which it must be deliberately recovered. Some base-metal producers handle process streams containing germanium that do not currently justify economic recovery. Technological substitution, volatile prices, and a small global market complicate stand-alone investments. Brazil needs to map occurrences and residues while recognizing that chemical presence does not mean an economically recoverable reserve. Purification without a defined customer can produce expensive, obsolete inventories. The priority is a characterization campaign at refineries and mines, with protection for commercial confidentiality and transparent methods. International partnerships could provide access to refining know-how without granting exclusive rights over domestic resources. Indicators: annual recoverable quantity, cost per usable kilogram, purity, and supply contracts. [S04] ### 21. Rare earths and their indirect relationship with chips Rare-earth elements are essential for magnets, polishing, optics, lasers, and many electronic systems, but they are not the central ingredient of every transistor. Treating rare-earth reserves as equivalent to semiconductor self-sufficiency obscures the specialization of production stages and the difficulty of chemical separation. The chain includes mineral exploration, extraction, solvent-based separation, refining, oxide production, and conversion into technical materials. In many applications, the ability to supply compounds of consistent composition determines who earns the value added. Waste management and environmental impacts are part of the real cost. Brazil could expand exploration, demonstration plants, and processing contracts while prioritizing identified industrial applications. Environmental requirements and community consultation need to precede construction; delays caused by foreseeable conflicts are not an unavoidable technological destiny. Indicators: separation yield by element, environmental costs, tailings indicators, and product certification. [S04] ### 22. Lithium, nickel, and minerals for energy electronics Advanced electronics also depends on batteries, storage systems, and the circuits that control them. Lithium, nickel, manganese, iron, and graphite pass through different chemical chains from silicon wafers, but converge in electric vehicles, renewable-energy systems, drones, and portable equipment. A chip strategy isolated from battery and converter production loses potential demand. Yet developing batteries is not the same as mastering semiconductors; the economic link is the joint specification of power devices, current sensors, thermal-management systems, and control software. Industrial programs should finance integrated demonstrations combining the cell, battery-management system, inverter, sensors, and safety testing. Each project must itemize remaining imports and substitution costs rather than asserting nationalization based on final assembly alone. Indicators: system efficiency, field failure rates, and verified domestic content in each subsystem. [S04][S12] ### 23. Fluorite, hydrofluoric acid, and chemical risk Fluorinated chemicals are used in cleaning, controlled etching, and various fabrication processes; hydrofluoric acid demands rigorous occupational-health and environmental-safety procedures. Mineral feedstock alone does not establish viability: licensed chemical plants, compatible containers, safe distribution, and exceptional purity all matter. Attempting to localize high-risk chemicals in areas without industrial experience can create environmental and operating costs greater than the anticipated economic benefit. The industry needs trained personnel, traceable impurities, emergency-response routes, and technically feasible alternatives. Domestic development should take place in chemical clusters with strong environmental governance, purity testing, and qualified buyers. Imports may remain appropriate until domestic demand and processes can support safe industrial scale. Indicators: certified purity, incidents and near misses, recovery efficiency, and regulatory compliance. [S04] ### 24. Phosphorus, boron, and dopants Doping changes charge-carrier concentrations in a semiconductor and creates regions with specified electrical characteristics. Boron, phosphorus, and related compounds are introduced by ion implantation or diffusion, requiring precise control of dose, depth, activation, and contamination. The presence of minerals containing these elements does not solve the supply of electronic-grade dopants. Gases and precursors can be toxic or flammable, demanding specialized cylinders, purification, safeguards, detection systems, and maintenance. Brazil can begin by developing metrology and multiple-source supply contracts, establishing domestic purification only when volumes and safety justify the investment. Policy should assess the interruption risk of each chemical product, not merely its country of origin. Indicators: residual contaminant concentrations, delivery stability, dosage precision, and material waste. [S01] ### 25. Silicon-carbide substrates SiC devices can operate at high voltages, temperatures, and switching frequencies, reducing losses in converters, chargers, and electricity networks. Their supply chain requires difficult crystal growth, slicing, polishing, epitaxy, device processing, and packages designed for heat dissipation. Producing a functioning SiC component in a laboratory does not mean offering substrates at competitive defect densities. Crystal quality affects yield and reliability. Established, large-scale competitors and sophisticated processes make niche selection and customer commitments decisive. For Brazil, SiC power electronics merits demonstration projects connected to inverter, vehicle, and grid demand. Epitaxy investments and module testing should proceed alongside the qualification of domestic or imported substrates. Indicators: defects per unit area, blocking voltage, on-state resistance, thermal performance, and accelerated lifetime. [S08] ### 26. Gallium nitride and heterostructures GaN offers attractive properties for power, RF, and high-frequency devices. Manufacture requires precise epitaxy, interface engineering, passivation, device geometry, protection against dynamic effects, and packaging with low parasitic inductance. Depending on the process, the substrate may be made of a material different from the active semiconductor. Domestic gallium resources do not eliminate dependence on epitaxy equipment, chemical precursors, or intellectual-property rights. Some GaN segments are dominated by firms with established process libraries and reliability records. Entry requires a clearly selected market problem. Brazilian projects can begin with converter and RF-system design and characterization using imported dies, gradually progressing to specialized components and processes as volumes, proprietary know-how, and testing capabilities mature. Indicators: power-conversion efficiency, dynamic degradation, power density, and electromagnetic compatibility. [S01] ### 27. Gallium arsenide and RF devices GaAs remains important for certain radio, amplification, and optoelectronics applications. Production involves compound crystals, epitaxial growth, heterojunctions, and suitable contact processes. The choice among GaAs, GaN, RF silicon, and other technologies depends on power, noise, frequency, cost, and integration requirements. Building a complete compound-material chain without RF or optical-device customers risks small-scale, high-cost operations. Brazil has potential demand in communications, instrumentation, and space systems, but purchasers must participate in specifying requirements from the start. Consortia involving telecommunications, defense, universities, and foreign suppliers can identify modules warranting domestic design. Radiation and reliability testing are valuable shared facilities regardless of the selected substrate. Indicators: noise figure, power efficiency, thermal robustness, and qualification rate by application. [S01] ### 28. Metals recycling and the circular economy Manufacturing waste and discarded electronic equipment contain metals, solvents, polymers, and components requiring specialized treatment. Economically viable recovery depends on concentration, segregation at source, chemical safety, and reverse logistics; not every present element can be recovered profitably or with low emissions. Expanding domestic industry without waste infrastructure can transfer costs to communities and increase environmental liabilities. Opportunities to recover copper, tin, precious metals, and packaging materials coexist with contamination risks. Industrial consortia should contract certified operators, measure material recovery, and minimize the mixing of waste streams. Universities can study low-energy recycling pathways while regulators ensure that apparent competitiveness does not depend on externalizing environmental damage. Indicators: recovered mass by stream, occupational exposure, treatment costs per tonne, and emissions per product. [S04][S12] ## III — PROCESS CHEMISTRY AND INTERMEDIATE MATERIALS ### 29. Industrial gases versus electronic-grade gases Nitrogen, oxygen, argon, and hydrogen are common in industrial operations, but fabs require particular purity grades, distribution systems, and control regimes. Reactive gases used in deposition, plasma processing, and doping introduce further hazards. A conventional-gas supplier near a plant cannot be assumed capable of serving semiconductor processes. Brazil's opportunity lies in gradually upgrading existing suppliers toward ultra-high-purity systems, orbital-welded piping, filters, purifiers, analyzers, and specialist maintenance. Contamination at parts-per-billion levels can alter thin films, destroy lots, or shorten service life. Costs include redundant systems, special cylinders, inventory, and emergency response. Long-term contracts with acceptance standards and supplier audits could justify local installations. Policy must avoid promising domestic production of rare gases before examining global supply chains and chemical risks, but should invest in domestic distribution, detection, and testing. Indicators: point-of-use purity, leak rates, system availability, and safety incidents. [S01] ### 30. Ultra-pure water and its mass balance Water used to rinse wafers must be controlled to extreme levels for ions, particles, organic carbon, microorganisms, and dissolved gases. Treatment can combine prefiltration, reverse osmosis, electrodeionization, ultraviolet treatment, and final polishing. Making drinking water is not the same as making ultra-pure process water. Industrial consumption must be calculated using individual process data, recirculation rates, and local resource availability. Assessment must distinguish intake, internal circulation, actual net water consumption, and effluent discharge. A single decontextualized figure for liters per wafer can produce poor siting and permitting decisions. Fab siting requires a long-term water contract, effluent treatment, drought contingency plans, and continuous measurement. Governments should finance shared infrastructure only when several users and demonstrable environmental benefits are involved. Indicators: water resistivity, particles, total organic carbon, reuse share, and net consumption per wafer. [S01] ### 31. Photoresists and lithography chemistry Photoresists convert optical patterns into chemical structures that can be developed. Their composition includes polymers, photoactive components, solvents, and additives subject to strict tolerances. Masks, light sources, material reflectivity, and film thickness interact nonlinearly to determine the final pattern. Building an advanced photoresist plant without access to customers, intellectual property, or qualification routines would be high risk. By contrast, less specialized solvents and auxiliary chemicals could provide an entry into improving purity and analytical capabilities. Universities can study materials, but industrial projects need cooperation with equipment suppliers and fab customers. A realistic program might begin with analytical services, purification, and lithography chemicals for mature processes while retaining international cooperation. Indicators: thickness variation, resolution, post-development defects, shelf life, and batch consistency. [S01][S15] ### 32. Ultra-pure solvents and organic contamination Alcohols, removers, and solvents are used for cleaning and surface preparation. Nominal purity is insufficient: bottles, valves, transport, filters, and lines can introduce organic compounds and metals. The same solvent approved in a laboratory may fail in fabrication because packaging and stability differ. Brazil's chemical industry has broad industrial competence, but moving to electronic grades requires investment in analysis, filling rooms, compatible packaging, traceability, and contracts supporting more restrictive specifications. Demand should be pooled into compatible grades across manufacturers, avoiding small batches unable to amortize facilities. Qualification can proceed in stages, using interlaboratory comparison and independent approval in pilot processes. Indicators: metals at parts-per-trillion levels where relevant, particles, organic carbon, and delivered cost at the fab. [S01] ### 33. Acids, bases, and cleaning solutions Fabrication uses sulfuric acid, hydrochloric acid, hydrogen peroxide, ammonium hydroxide, and other chemicals under tightly controlled conditions. Specific mixtures remove contaminants and oxides, but material compatibility, byproducts, and chemical safety determine industrial feasibility. The national supplier's challenge is not simply producing tonnes of reagents: it must guarantee appropriately low impurities, suitable packaging, and low-risk logistics. Failure to monitor metals and particles can make an apparently inexpensive chemical economically disastrous. Supplier development should share high-sensitivity analytical platforms while establishing contingency plans and environmental oversight. Early demand can come from multiple precision industries, increasing scale before major fabs are built. Indicators: rejection rates, disposal costs, safety compliance, and analytical variation between batches. [S01] ### 34. Chemical deposition and organometallic precursors Chemical vapor deposition and atomic layer deposition use precursor molecules that must react reproducibly on surfaces. Stability, vapor pressure, decomposition, impurities, and reactivity govern nanometer-scale film quality. In compound semiconductors, precursor engineering becomes part of device engineering. Manufacturing precursors is not equivalent to owning the corresponding metal. It requires fine chemistry, synthesis and purification facilities, special containers, and sometimes proprietary technology. Brazil may have basic inputs while remaining fully dependent on electronic-grade compounds. Strategy should identify precursors with multi-sector demand and develop demonstrable pathways with manufacturing partners. Contracts need to address intellectual property and supply risk; shared public analytical infrastructure can lower smaller firms' entry costs. Indicators: storage stability, film repeatability, residual impurities, and cost per deposition cycle. [S01] ### 35. Abrasives and chemical-mechanical polishing Chemical-mechanical polishing combines abrasives, surface chemistry, pressure, and movement to planarize wafers. Slurry behavior depends on particle-size distribution, pH, colloidal stability, contamination, and interaction with the polished material. Minor surface defects can produce failures downstream. Brazil has minerals and chemical firms, but ordinary abrasive manufacturing must not be confused with fab-grade CMP. The main barriers are formulation, instrumentation, consistency, and qualification with material and equipment manufacturers. A Brazilian polishing-materials platform should measure removal rate, selectivity, roughness, defects, and effluent characteristics. Products for power-device substrates and optical parts can establish a commercial base before frontier logic applications. Indicators: defects per area, material removal per minute, uniformity, and discarded-slurry share. [S01] ### 36. Physical-vapor-deposition targets PVD requires metallic and alloy targets with controlled purity, microstructure, and geometry. Porosity, phase segregation, crystallographic texture, and inclusions affect plasma stability and film quality. The chain includes metal refining, casting or powder metallurgy, machining, and bonding to backing plates. Brazilian metallurgy could occupy selected niches, but economic premiums appear only after a target has been qualified for a specific process and maintains performance across lots. Manufacturing targets without buyers would create costly inventory because specifications vary greatly. Consortia of metallurgical suppliers and institutes could develop aluminum, copper, and alloy targets for research and mature production lines, measuring contamination and operating life. Export channels are needed to spread fixed costs. Indicators: purity, plasma stability, particles, and deposition runs per target. [S01] ### 37. Masks and photomasks A mask transfers a design into the lithography stage and requires dimensional accuracy, defect control, and traceability. Complexity rises with each technology node; EUV masks require materials and metrology entirely different from PCB manufacturing. Without writing, inspection, and repair tools, a country remains dependent on external suppliers even if it can design chips. Yet a complete mask factory for the technology frontier requires extraordinarily high capital and market scale. Initial entry can involve mask design centers, data preparation, verification, metrology, and mature-node support using contracted fabrication. Domestic substrate and material suppliers should develop only in response to commercial qualification. Indicators: defects per mask, dimensional deviations, delivery times, and cost per mask set. [S01][S15] ### 38. Packaging materials Resins, organic substrates, molding compounds, solder, adhesives, and thermal-interface materials determine mechanical strength, heat dissipation, and lifetime. Packaging power devices and automotive modules requires reliable performance after vibration, humidity, and thousands of thermal cycles. Brazil has chemical firms, engineering plastics, metallurgy, and industrial assembly that can move into more sophisticated products, but must control moisture uptake, thermal expansion, outgassing, and interface stability. A packaging-materials program should connect chemical producers, OSAT firms, universities, and final-equipment manufacturers for accelerated tests and failure analysis. Meeting an initial specification is not enough: lifetime must be demonstrated under actual operating conditions. Indicators: delamination, thermal conductivity, temperature-test failure rates, and cost per package. [S01] ### 39. ABF substrates, interposers, and heterogeneous integration Advanced packages use high-density multilayer substrates, interposers, and precision interconnection methods. The performance of accelerators and memories does not depend on the logic die alone; electrical, thermal, and mechanical connections between chips are a central part of architecture. Entering this market requires organic-materials capability, fine processes, metrology, and assembly equipment, plus customers willing to qualify new vendors. A high-value strategy may start with specific materials, tests, and modules rather than trying to compete immediately across the entire advanced-packaging ecosystem. PCB, embedded-electronics, and OSAT clusters can develop demonstration lines with clear commercial targets. Working with international partners allows learning without attempting to recreate the global chain alone. Indicators: connection density, signal integrity, thermal resistance, and assembly-cycle failure rates. [S01] ### 40. Chemical metrology and reference materials Without trustworthy measurements of impurities, defects, and electrical characteristics, an electronic-grade supply chain cannot be sustained. Spectrometry, microscopy, profilometry, and surface analysis require reference standards, calibration, trained personnel, and intercomparisons. A Brazilian supplier may have suitable material and lose customers because it cannot prove suitability; another may sell inadequate material because tests are missing. Metrology infrastructure is a shared good that reduces information asymmetry and speeds entry by new suppliers. Metrology institutes, university laboratories, and industrial centers should offer services with transparent turnaround times and pricing while protecting commercial confidentiality. The state can cofinance rare instruments provided that access is not captured by one firm. Indicators: accredited tests, certificate turnaround, measurement uncertainty, and laboratory utilization. [S01] ## IV — POWER, WATER, LAND, LOGISTICS, AND SAFETY ### 41. Power quality and uninterrupted supply A semiconductor factory needs more than contracted megawatts: it needs continuity, voltage regulation, harmonic control, redundancy, and rapid fault response. Brief outages can ruin process steps, damage materials, or stop equipment that requires hours to stabilize. The economic cost of an interruption includes scrapped lots and recovering yield. Brazil's comparatively low-carbon electricity mix is a potential advantage for supply contracts, but grid quality varies considerably by location. New plants should be sited where multiple supply routes and expansion capacity exist, based on site-specific electrical studies. Distribution utilities, the national system operator where applicable, and investors need to plan feeders, substations, filters, generators, and backup systems with periodic testing. Tax incentives cannot compensate for a factory repeatedly interrupted by poor grid quality. Indicators: frequency and duration of critical outages, voltage sags, losses per incident, and total energy cost. [S12] ### 42. River-basin water planning Industrial water needs compete with households, agriculture, and environmental conservation. Droughts and water disputes can halt plants even where annual rainfall is high. Evaluation must consider availability during the driest month, climate change, effluent flows, treatment capacity, and legal use rights. Constructing intake infrastructure without basin governance creates legal and social risks. Projects must show that additional demand will not displace essential consumption or damage ecosystems. Industrial water reuse and closed-loop treatment can radically alter site economics. Permits should require auditable mass balances, progressively stricter reuse targets, multi-year drought scenarios, and public water monitoring. Firms should bear treatment and contingency costs instead of transferring them implicitly to municipalities. Indicators: net dry-season consumption, actual reuse, effluent quality, and supply stability. [S12] ### 43. Location and the opportunity cost of land A semiconductor plant requires stable ground, low flood risk, electrical and water access, sanitation, low vibration, connectivity, security, qualified workers, and logistics. Cheap land can become very expensive if infrastructure must be built from scratch or employees must commute long distances every day. Tax competition among Brazilian states can encourage location decisions disconnected from productivity. Full costs should include maintenance, supplier availability, future taxes, customs delays, housing, and decades of climate exposure. Cluster selection needs independent technical appraisal and transparency regarding required public infrastructure. Municipal governments must plan housing, public transportation, schools, and services to avoid property-price inflation and distributional conflicts. Indicators: twenty-year total cost of ownership, physical risk, time to hire specialists, and utility readiness. [S01] ### 44. Airports, ports, and sensitive freight Industrial machinery may arrive by sea, while spare parts, samples, masks, wafers, and sensitive dies often require air freight with controls for shock, humidity, temperature, and traceability. Customs efficiency may matter more than a few kilometers of distance to a port. A one-week delay in releasing a spare part can cost more than all savings on freight tariffs. Brazil should measure actual time from placing the order until equipment resumes operation, including inspections, international transit, and domestic transportation. Specialist customs corridors, temporary admission regimes, customs laboratories, and digital traceability can lower costs without abandoning oversight. Controls against smuggling, fraud, and diversion of restricted technologies must remain effective. Indicators: median and 95th-percentile customs clearance time, total replacement time, transportation losses, and documentation-inspection rates. [S01] ### 45. Strategic inventories without waste Inputs with limited shelf lives, high prices, or chemical restrictions require different planning from durable equipment. Stocks that are too small create shutdowns; excessive stocks expire, depreciate, or become obsolete. Demand patterns and supplier lead times matter more than a generic inventory target expressed in months. Concentration among manufacturers of gases, optical parts, and tools creates common exposure across many firms. Brazil should not respond by indiscriminately purchasing every critical material, but by developing shared intelligence about availability and qualified alternatives. Consortia can coordinate capacity-reservation contracts, rotating inventory, and second sourcing while protecting commercial confidentiality. Government can support supply-interruption simulations and map dependencies across essential public equipment. Indicators: lead-time-adjusted coverage, expiry-related waste, recovery time, and supplier concentration. [S01] ### 46. Industrial zones and hazardous waste Fabs use corrosive, flammable, toxic, and potentially reactive chemicals that must be stored and transported separately. Containment, detection, extraction, and neutralization are core infrastructure rather than project appendices. Weak preventive systems can endanger employees, neighbors, and the investment itself. Slow permitting should not be confused with unnecessary environmental requirements. Uncertainty can be reduced through clear public standards, competent agencies, and early technology assessments without lowering protection. Public investment is warranted in specialist regulatory teams, shared treatment facilities, and regional emergency-response plans. Operators remain responsible for monitoring, prevention, and remediation. Indicators: incidents, containment-barrier performance, verified emissions, and scientifically sound permitting timelines. [S12] ### 47. Physical security and industrial cybersecurity Machinery is coordinated by industrial-control systems, networks, design files, process recipes, and enterprise platforms. An attack can alter production parameters, expose IP, suspend operations, or compromise product reliability without obvious physical damage. Supply security and digital security are dimensions of the same industrial capability. Brazil should integrate incident-response centers, automation-engineering education, and access-management requirements. Importing a machine should not mean accepting unrestricted remote access by its vendor; conversely, disabling all connections could undermine maintenance and warranties. Contracts must define auditable remote access, network segmentation, secure updates, operational continuity, backup recovery, and data responsibilities. Independent audits should cover vendors and plant integrators. Indicators: detection time, unresolved critical vulnerabilities, recovery tests, and process-recipe integrity. [S01] ### 48. Insurance, disasters, and climate resilience A capital-intensive plant can lose months to floods, fires, earthquakes, or prolonged water shortages even where equipment remains physically intact. Correlated risks—such as simultaneous drought among suppliers in one region—mean that diversifying contracts without diversifying physical exposure may achieve little. Brazilian site selection must model urban fires, flooding, hailstorms, heat waves, changing access to logistics, and political or regulatory risk. Insurance premiums reflect the quality of prevention as well as the selected location. Investors and infrastructure operators should finance updated hazard maps, redundant routes, and continuity exercises. Public loans can require climate-adaptation plans and protection for neighboring communities. Indicators: probable maximum loss, insurance coverage, utility recovery, and yearly outage hours. [S12] ### 49. Housing, mobility, and the territorial workforce A technology plant creates specialist jobs, construction employment, and demand for urban services. If a city fails to expand housing, transportation, and healthcare, higher wages can be partly consumed by rising rents and commuting costs. Quality of life influences the retention of both Brazilian and foreign specialists. An isolated campus can reduce land expense but raise staff turnover and car dependence. Planning must accommodate night shifts, childcare, vocational schools, and safe access for maintenance teams. Municipalities, universities, and firms should jointly size social infrastructure before major construction begins. Public assistance for housing and mobility may yield more durable returns than subsidies for land alone. Indicators: average commuting time, housing costs relative to wages, and technician retention after three years. [S01] ### 50. Digital corridors, data, and industrial latency Chip design and collaboration across global centers require large files, fabrication libraries, simulation results, and secure remote work. Highly available networks are important for distributed design, EDA updates, and cloud computing. Latency matters, but reliability, security, and service agreements are often more consequential. Brazil has significant university centers and software ecosystems, but engineering teams may be constrained by license costs, high-performance computing expenses, and transfers subject to controls. Digital infrastructure must be treated as part of the physical industrial system. Design clusters can share secure computing environments, verification laboratories, and redundant networks with IP segmentation. Investments should measure project productivity rather than server capacity alone. Indicators: downtime hours, verification-regression turnaround, cost per tape-out, and failures of secure transfer. [S01] ### 51. Industrial maintenance as a strategic sector Deposition, inspection, etching, CMP, and test tools use pumps, valves, handlers, sensors, robots, optics, and controllers. A factory's productivity may depend on a tiny part whose replacement requires a specialist and documented procedure. Local maintenance supply chains can generate value before Brazil manufactures the complete machines. Brazil has experience in automation, metrology, and maintaining complex installations, but its suppliers need to adopt semiconductor standards for cleanliness, reliability, change management, and qualified parts. A conventional repair shop can introduce contamination and invalidate warranties. Technical-training programs should prioritize certified maintenance, reliability engineering, replacement inventories, and local manufacture of non-proprietary parts. Service contracts should transfer know-how without infringing intellectual property. Indicators: mean time between failures (MTBF), mean time to repair (MTTR), locally restored parts, and share of preventive maintenance completed. [S01] ## V — FABRICATION EQUIPMENT AND PROCESSES ### 52. Cleanrooms and particle control A cleanroom controls particles, temperature, humidity, pressure, and airflow to protect wafers and equipment. The required classification varies by product and production step; not every operation needs the most stringent standard. Costs include filtration, utilities, construction, monitoring, and continuous electricity consumption. Brazil can draw on civil engineering, heating/ventilation/air conditioning, automation, and pharmaceutical facilities, but semiconductor production requires integrated control of molecular and particulate contamination, vibration, and installation precision. Domestic cleanroom development should begin with qualification and operating standards, supporting integration firms and testing centers. Specifications must reflect actual processes, avoiding both overengineering costs and underspecification risks. Indicators: particles by cleanliness class, temperature and humidity excursions, utilities cost per unit area, and product yield. [S01] ### 53. DUV and EUV photolithography Photolithography projects patterns onto light-sensitive films. Deep ultraviolet and extreme ultraviolet systems use different wavelengths and optics; EUV depends on light sources, vacuum, multilayer mirrors, masks, and exceptionally precise controls. The most advanced equipment is part of a network of thousands of suppliers, not a single machine that can simply be copied. For Brazil, acquiring a cutting-edge scanner without compatible processes, materials, masks, support, and demand would not create an industry. Initial lithography choices must correspond to real products and account for maintenance, spare parts, and license costs. Universities can develop optical metrology, light sources, and materials, while pilot lines operate lithography appropriate to their stage. Learning DUV and lower-cost patterning processes is compatible with frontier research; it prevents confusing research achievement with commercial manufacturing capability. Indicators: validated resolution, overlay accuracy, defects per layer, and total cost per mask. [S15] ### 54. Plasma etching and dry processing In etching, plasmas and reactive gases remove materials according to geometric patterns. Anisotropy, selectivity, surface damage, and uniformity determine whether circuits have consistent performance. Operations involve vacuum systems, RF energy, plasma chemistry, and particle control. Brazilian electrical and plasma engineers can contribute instrumentation, simulation, and subsystems, but manufacturing etch equipment requires intellectual property, compatible materials, and a customer base supporting repeated improvement. Technology policy should finance process platforms in research centers alongside development of maintenance subsystems, sensors, and controllers. Local vendors can be qualified gradually, beginning with peripheral parts. Indicators: etch rate, selectivity, wafer-to-wafer variation, electrical damage, and corrective-maintenance interventions. [S01] ### 55. PVD, CVD, and ALD deposition Thin films form conductors, insulators, barriers, and functional layers. Physical vapor deposition, chemical vapor deposition, and atomic layer deposition use different physical and chemical regimes, each with specific costs and requirements. Performance depends on thickness, composition, conformality across three-dimensional structures, and the absence of defects. Domestic tools and process development can start with less demanding substrates and applications, using experience from coating industries and materials research. Transferring these techniques to commercial wafers requires substantially tighter traceability, stability, and metrology. Technology centers should use open process recipes where possible and maintain parameter and test repositories. Private firms must define specific applications before investing in high-capacity lines. Indicators: thickness deviation, contamination, process repeatability, growth rate, and cost per layer. [S01] ### 56. Ion implantation and diffusion Doping profiles control electrical junctions, breakdown voltage, and transistor behavior. Ion implanters accelerate charged species and require vacuum systems, sources, electromagnetic fields, dosimetry, and activation-annealing equipment. Thermal diffusion follows different principles while being equally dependent on purity and uniformity. Brazil's applied-physics and accelerator facilities can train specialists in parts of these technologies, but this does not automatically produce reliable industrial tools. Complete systems involve sensors, consumables, safety, and statistical control developed through repeated operation. Pilot projects for discrete devices and sensors can qualify doses and profiles while training technicians and researchers. Local subsystem manufacturing should be evaluated against maintenance costs and external demand. Indicators: dose, depth, uniformity, sheet resistance, and electrical defect rates. [S01] ### 57. Oxidation and thermal processes Oxidation, annealing, and thermal treatments are essential to interface quality and controlled semiconductor properties. Furnaces and rapid-thermal-processing tools require predictable temperature ramps, controlled atmospheres, and materials that will not contaminate wafers. Brazil has thermal-engineering and industrial-furnace expertise, but electronics applications require exceptional uniformity, particle control, and continuous testing. High-temperature products could provide an industrial foothold in specialized furnaces before frontier tools. Development contracts should connect furnace manufacturers, instrument suppliers, and power-device or sensor researchers. Domestic value may reside in control systems, maintenance, or parts even where the main architecture is licensed. Indicators: temperature uniformity, contaminants, electrical repeatability, and mean time between maintenance events. [S01] ### 58. Optical inspection and defect analysis Process control depends on detecting defects before they move into more expensive stages. Optical inspection, electron microscopy, surface analysis, and electrical measurements create a feedback loop between manufacturing and engineering. Inspection must distinguish critical defects from harmless anomalies. Building domestic metrology capacity may yield high returns because it benefits chemical suppliers, device makers, OSAT firms, and universities simultaneously. Frontier equipment nonetheless combines sophisticated optics, detectors, software, and positioning systems, often subject to trade controls. A metrology program could prioritize accessible laboratories, specialist failure-analysis training, and classification algorithms. Fab budgets must include permanent metrology expenditure, not just production machines. Indicators: sensitivity, false positives, time to root cause, and reduction in escaping defects. [S01] ### 59. Wafer-handling automation Wafers move through dozens or hundreds of operations under stringent traceability rules. Robots, containers, transportation systems, identification, and execution software must coordinate lots, recipes, and maintenance. Scheduling must account for critical constraints, lot sizes, order priority, and cross-contamination risks. Brazilian automation and industrial-software companies can serve this function without mastering transistor fabrication itself. Entry requires mechanical reliability, industrial-protocol integration, and clean-environment compliance. Testing centers can qualify handlers, machine-vision systems, and manufacturing execution software in pilot lines. Developing domestic vendors requires functional safety, fatigue testing, spare-part availability, and extensive documentation. Indicators: fault-free movements, traceability integrity, cycle time, and overall equipment effectiveness. [S01] ### 60. Statistical control and yield engineering Fab operations require continuous applied statistics: control charts, multivariate analysis, lot tracking, designed experiments, and correlation between electrical failures and process events. A production line unable to learn from its own data tends to turn small deviations into accumulating losses. Brazil has software, mathematics, and data-science education that can be redirected toward manufacturing, but algorithms do not replace reliable sensors and data. Learning requires teams capable of interpreting physical causation rather than simply correlating alarms. Industrial AI projects should be tied to measured yield improvement and change audits. A shared platform for synthetic and experimental data, protecting trade secrets, could accelerate training without disclosing proprietary recipes. Indicators: scrap reduction, time from deviation to correction, process capability, and cost per accepted wafer. [S01] ### 61. Used equipment and the obsolescence risk Mature-node production lines can use refurbished equipment to reduce initial investment. This depends on spare-part availability, technical service, updates, documentation, safety, and remaining quality. A cheap machine immobilized by a missing controller can erase its purchase-price advantage. Public projects often underestimate refurbishment, import, system-integration, and qualification costs. The correct valuation is total operating cost over remaining useful life, including yield, availability, power consumption, and residual value. Purchases should undergo condition audits, acceptance testing, spare-parts contracts, and contingency budgeting. Local refurbishment firms may develop exportable skills if they have legitimate access to documentation and enough demand. Indicators: cost per available operating hour, guaranteed spare-part months, post-refurbishment performance, and economic returns under alternative demand scenarios. [S01] ### 62. The economics of 200 mm and 300 mm fabs Wafer diameter affects dies per wafer and process economics, but also equipment availability and cost. A 200 mm line can serve specialized niches; a 300 mm line can offer economies of scale for suitable products. Neither choice is universally superior without a commercial portfolio. Building a Brazilian 300 mm line for technological symbolism alone could exceed local demand and available capital. Conversely, retaining smaller-diameter processes may limit access to suppliers and efficiency. The balance must be evaluated product by product. Feasibility studies should model die area, edge losses, yield, price per wafer, depreciation, and minimum viable scale. Industrial phases need reversible decisions and expansion clauses conditional on proven demand. Indicators: good dies per wafer, normalized fabrication cost, utilization, and depreciation per saleable unit. [S01][S09] ### 63. Process engineering for MEMS Microelectromechanical systems integrate moving or sensing structures at microscopic scales, including pressure and inertial sensors, flow devices, and microactuators. Their fabrication combines thin films, micromachining, cavities, packaging, and calibration, without always requiring the most advanced logic nodes. Sensor markets serving agriculture, healthcare, energy, and automation may justify specialized processes. The obstacle is calibrating, protecting, and qualifying devices against vibration, temperature, and ageing. A working sample is insufficient for sales to equipment manufacturers. Universities and firms can share MEMS pilot lines, process libraries, and characterization services. Industrial returns depend on contracts with integrators and field-service capability. Indicators: sensor drift, repeatability, wafer yield, per-unit calibration, and lifetime. [S01] ### 64. Discrete power devices Diodes, MOSFETs, IGBTs, and other discrete components serve converters, motors, power supplies, and inverters. Performance depends on switching efficiency, on-state resistance, heat dissipation, blocking voltage, and resilience against transient events. Packaging often determines a significant share of module reliability. Brazil could develop parts of this chain by combining device design, initially imported wafers, module assembly, and energy-sector customers. Competing in high-volume commodities without a real advantage would be risky when industrial niches have distinct requirements. Inverter, machinery, power, and automation manufacturers should lead technology-procurement projects with published requirements and comparable tests. SiC and specialized-silicon pilot lines need yield targets before scaling. Indicators: losses per kilowatt converted, field failures, total module cost, and reliability curves. [S01][S08] ### 65. Photonics, optical sensors, and integration Image sensors, detectors, photodiodes, and photonic circuits are distinct businesses with specific materials and processes. In telecommunications and instrumentation, control over the optical-electronic interface may matter more than manufacturing the central processor. Engineering includes coupling, optical loss, thermal stability, and packaging. Brazil has demand in optical fiber, agribusiness, metrology, and healthcare but needs buyers and prototyping lines connected to production. Some solutions can use overseas photonic foundries with domestic design and packaging. Collaborative projects can prioritize diagnostic and telecommunications instruments, combining chip design, optical assembly, firmware, and calibration in Brazil. Platform selection should compare silicon photonics, compound materials, and discrete technologies. Indicators: sensitivity, insertion losses, packaging yield, calibration cost, and export revenue. [S01] ## VI — DESIGN, SOFTWARE, AND INTELLECTUAL PROPERTY ### 66. Building a fabless company A fabless company designs integrated circuits while outsourcing their fabrication, concentrating value in architecture, verification, IP, customer relationships, and product management. This model lowers initial physical capital requirements but does not eliminate EDA, mask, prototype, licensing, and after-sales support expenses. Brazil's principal shortage may be companies capable of surviving multiple design cycles rather than individual researchers. Service-design projects generate income, but building proprietary products requires commercial risk, working capital for inventory, and support for a product line over many years. Funds and public financing should support tape-outs with matching commitments and progressively stronger commercial milestones. Firms need reusable IP libraries, test plans, and international market strategies from their first product onward. Indicators: tape-outs reaching production, gross margins, repeat customers, and share of revenue derived from proprietary IP. [S01][S06] ### 67. EDA and tool licensing Chip creation depends on tools for architecture capture, synthesis, simulation, verification, place-and-route, timing, signal integrity, and physical preparation. Commercial licenses can be costly, and contracts may restrict users, exports, or access to particular libraries. Open-source alternatives are growing, but maturity varies by project and process node. Brazilian university programs with limited EDA access may graduate engineers who have never completed an end-to-end design flow. Licensing is not the only barrier: servers, security infrastructure, process design kits, and supervision by experienced engineers may also be missing. National consortia could negotiate educational and commercial licenses, operate isolated design environments, and sustain training. The adoption of open tools should be a technical decision subject to quality auditing, not an ideological mandate. Indicators: cost per tape-out, students completing full designs, defects detected before manufacturing, and workflow compatibility. [S01] ### 68. PDKs, libraries, and design rules A process design kit combines electrical models, layers, process parameters, drawing rules, and files necessary to fabricate a circuit at a particular foundry. Without a qualified PDK, the transition from schematic to physical layout cannot be made reliably. Model quality reduces expensive iterations and post-tape-out failures. Brazilian institutions can train layout specialists without being able to disclose proprietary commercial PDK content subject to nondisclosure agreements. Educational centers must combine open training with secure access to protected data. Domestic pilot lines should offer documented, maintained PDKs in addition to physical tools. Consortia can support analog libraries and reusable test blocks under clear IP agreements. Indicators: model coverage, simulation-to-measurement correlation, update cycle time, and first-silicon success rate. [S01] ### 69. RISC-V architecture and a national strategy RISC-V is an open instruction-set architecture that permits proprietary implementations, but it does not make competitive processors free or easy to build. Its ecosystem requires microarchitecture, compilers, debugging, verification, firmware, libraries, security, and fabrication. ISA openness reduces certain licensing barriers, not every patent and dependency. An academic processor implemented in an FPGA is a useful step; industrial value depends on verifiable performance, power consumption, integrity, reliability, tools, and paying customers. Brazil could differentiate itself first in control processors, security products, and application-specific devices before attempting to rival general-purpose high-performance CPUs. Public programs should require an implementation, testbench, software development kit, documentation, and a demonstrator operating under real conditions. Firms need to preserve architectural compliance and assess software-support costs. Indicators: verification coverage, energy per task, number of embedded products, and software-ecosystem costs. [S01] ### 70. ASICs for industrial applications An ASIC integrates functions previously distributed across several chips, lowering per-unit costs at sufficient volumes and potentially improving efficiency and reliability. Its design requires stable specifications: subsequent modifications are costly, particularly after masks and qualification. Brazil has industrial markets with distinctive requirements and could aggregate demand from smaller equipment makers into shared platforms. The difficulty is guaranteeing volumes and coordinating product generations; a technically outstanding chip may never recover development costs. Consortia of original equipment manufacturers should sign conditional purchasing commitments tied to price, performance, and certification. Platforms containing reusable IP could serve multiple equipment lines and reduce dependence on a single application. Indicators: committed annual volume, amortized non-recurring engineering costs, price per function, and time to a second generation. [S01] ### 71. Analog and mixed-signal circuits Analog-to-digital converters, voltage references, phase-locked loops, power supplies, and analog interfaces convert physical quantities into digital information. Many applications depend more on noise, thermal stability, linearity, and electromagnetic immunity than on the smallest possible transistors. Layout and test engineering require substantial tacit knowledge. Brazil could compete in analog niches involving instrumentation, energy, medicine, and audio, but needs experienced teams capable of diagnosing physical failures. Generic libraries rarely replace specialist design and access to testing instruments. Institutes and businesses can establish long-term mixed-signal programs with frequent prototype cycles, customer feedback, and shared measurement tools. Indicators: effective number of bits (ENOB), noise, thermal drift, manufacturing margins, and revenue per circuit family. [S01] ### 72. RF, connectivity, and radio frequency Wireless systems require amplifiers, mixers, filters, oscillators, antennas, and protocol software. Technology choices depend on spectrum, range, power consumption, linearity, and regulatory conditions. A firm integrating a 2.4 GHz radio can innovate in antennas, digital signal processing, and product design without manufacturing the silicon die. Brazilian opportunities include industrial communications, rural networks, and systems rugged enough for harsh environments. The main difficulty is combining RF design, certification, reliable manufacturing, and technical support; designing a board around an imported chip does not automatically establish a lasting advantage. Domestic laboratories should provide electromagnetic-compatibility chambers, antenna measurements, and coexistence testing. Firms can accumulate IP in module integration and eventually move to dedicated chips where volumes justify them. Indicators: range under specified conditions, electricity consumption, interference, regulatory compliance, and cost per served communications channel. [S01] ### 73. Hardware security and roots of trust Connected devices embed cryptographic keys, secure-boot mechanisms, and protection against tampering. Hardware security must account for physical threats, supply chains, and firmware updates; placing a cryptographic algorithm in software is not sufficient. Demand from banks, government, industry, and critical infrastructure could support secure chips or modules developed in Brazil. Certification, however, requires independent laboratories, auditable processes, and careful key generation and custody. Domestic projects can begin with secure modules and embedded systems, progressing toward ASICs when demand and intellectual property justify it. Public procurement should prioritize verifiability and interoperability rather than creating closed-design monopolies. Indicators: compliance with security standards, vulnerability rates, traceability, and time to deploy fixes. [S01] ### 74. Verification, formal testing, and logical reliability A chip can have millions of states and behaviors that simple functional tests do not cover. Simulation-based verification, coverage metrics, formal properties, emulation, and post-silicon validation prevent failures that can cost millions after fabrication. Verification is an engineering discipline, not a final design review. Brazilian advanced-software companies could transfer some expertise to hardware-testing automation, but must learn timing, concurrency, protocols, and physical modeling. The constraint grows as products integrate more IP blocks from outside suppliers. Universities should teach verification through complete projects and real failures, while companies commission independent audits of critical blocks. Open tools may complement commercial solutions depending on the project's maturity. Indicators: property coverage, post-silicon defects, rework per tape-out, and validation time. [S01] ### 75. Compilers, firmware, and development tools Hardware depends on software for programming, diagnostics, and upgrades. Without compilers, debuggers, libraries, drivers, and documentation, even a functional chip can become commercially irrelevant. Software maintenance often spans more years than a single device generation. Brazil has an established software and embedded-systems developer community, but needs companies delivering industrial-grade SDKs with long-term support. Academic projects often stop being maintained when grant financing ends, leaving users without security or reliability fixes. Grant programs can require sustainable repositories, maintenance agreements, automated tests, and reference documentation. Government should avoid imposing technologies that cannot meet security or support requirements. Indicators: time required to integrate a device, unresolved critical bugs, supported versions, and adoption by external developers. [S01] ## VII — PACKAGING, TESTING, AND ELECTRONIC PRODUCTS ### 76. OSAT as an industrial entry strategy Semiconductor assembly and test companies receive processed wafers, separate dies, interconnect terminals, package devices, and qualify finished parts. These operations can create scale, skilled employment, global customer relationships, and knowledge of materials and equipment. However, the presence of an OSAT business does not itself establish mastery of transistor-fabrication technology. Brazil has operations involving memory and other components that demonstrate an ability to participate in the back end. The challenge is to increase technological complexity, diversify buyers, develop local suppliers, and avoid dependence on tax incentives that merely compensate for imported inputs. Expansion should rely on export contracts, genuine transfer of engineering capability, and team development. Tax benefits need to be tied to yield, more complex products, qualified suppliers, and sustained productivity gains. Indicators: domestic value added, net exports, newly qualified processes, and defect rates. [S08][S13] ### 77. Dicing, die attach, and wire bonding Separating chips from wafers, attaching them, and connecting terminals demands mechanical precision and materials control. Sawing, lasers, adhesion, and wire bonding can cause microcracks, contamination, and residual stresses. Assembly losses are particularly costly when dies have already been fabricated in an expensive process. Brazilian automation and machining firms can make tools, fixtures, and maintenance services, but these processes demand specialized metrology and vision systems. Repeated hands-on training matters more than excessively theoretical curricula. OSAT centers can share reliability testing and supplier programs for adhesives, lead frames, positioning devices, and inspection. Proprietary differentiated processes should remain documented inside Brazilian firms. Indicators: misalignment, bond failures, microcracks, yield by stage, and rework costs. [S01] ### 78. Flip-chip, bumps, and advanced packaging Bump connections and flip-chip architectures shorten electrical paths and allow greater density, but introduce thermal and mechanical challenges. Interconnect integrity depends on metallurgy, substrates, alignment, and stress distribution. In heterogeneous designs, packaging becomes part of the electrical architecture itself. Brazil can develop advanced-assembly niches without mastering frontier fabs, provided that customers are secured and repeatable processes qualified. Equipment investment is high, and learning curves can be long. Industrial programs can finance demonstration lines accessible to multiple firms, prioritizing power, sensors, and RF modules. Capacity should increase only after firm orders and evidence of yield. Indicators: interconnection density, fatigue resistance, assembly speed, and defects per million. [S01] ### 79. Electrical wafer and final-product testing Parametric and functional tests screen components and help locate process failures. Probers, automated test equipment, interface boards, and test-pattern software must balance coverage, speed, and cost. Excessive testing raises expenses; insufficient testing transfers defects to customers. Brazilian automation and instrumentation firms could develop parts of these interfaces and programs, but need industrial standards and dependable equipment. A lack of laboratories capable of characterizing rare failures limits entry into critical applications. Incentives for testing centers should require third-party services, failure-analysis capacity, and integration with manufacturers. Initial demand can come from industrial modules and automotive electronics. Indicators: escaped defects, test time per unit, testing cost, and correlation between wafer and field measurements. [S01] ### 80. Automotive qualification and long-life electronics Automotive and infrastructure-equipment manufacturers demand availability, stability, documentation, and long-term reliability. Apparently rare defects become material when thousands of vehicles or systems operate under heat, vibration, and electrical cycling for years. Brazil's vehicle market does not automatically translate into demand for nationally designed chips, since global product platforms and procurement arrangements are approved by parent firms and international suppliers. Domestic companies must participate early in architecture and qualification decisions. Consortia of automakers, tier-one suppliers, and local laboratories can specify components and conduct accelerated tests. Government purchases cannot replace certification, but they can help finance shared test facilities. Indicators: failures per million, guaranteed product-availability period, traceability, and time to qualification. [S01] ### 81. Advanced printed circuit boards PCBs connect chips to passive devices, connectors, power supplies, and antennas. High-frequency and power products need impedance control, vias, specialized dielectrics, thermal management, multilayers, and precise assembly processes. The link between PCB design and semiconductor packaging is particularly important in compact modules. Domestic board fabrication competes with the scale and specialization of foreign suppliers. Importing PCBs can be rational in many cases, but losing competence in layout design, testing, and integration limits learning and rapid customer response. Industrial clusters should qualify suppliers by technology class and establish demonstration lines for industrial, RF, and power applications. Blanket nationalization is unnecessary: the goal is firms that win contracts through quality, turnaround, and cost. Indicators: yield per panel, via density, assembly defects, and prototyping time. [S02] ### 82. Passive components and connectors Capacitors, resistors, inductors, transformers, and connectors are less visible than processors, but failures in these parts can disable entire systems. Quality depends on materials, finishes, contact performance, tolerances, vibration, and ageing. A competitive electronics industry cannot live on chips alone. Brazil already has relevant electrical and electromechanical operations that can increase their technological sophistication. Certain specialized passive components still rely on complex mineral and chemical chains, so expansion should begin with niches serving local buyers. Manufacturers and technical centers can develop components for power supplies, energy systems, and instrumentation with thermal tests and metrology. Qualification in exported equipment is stronger evidence of competitiveness than declared local-content percentages. Indicators: reliability under cycling, actual tolerances, customer rejects, and exports by segment. [S02] ### 83. EMS and contract electronics manufacturing Electronics manufacturing service providers turn designs into products through component procurement, surface-mount assembly, optical inspection, functional testing, and logistics. Operating multiple production lines and supplier relationships generates valuable productivity and quality-engineering knowledge. Some Brazilian operations assemble products designed overseas. The goal is not to devalue assembly, but to add prototyping, design for manufacturability, testing, software, and supply-chain control. An industrial-upgrading program should measure the volume of engineering performed domestically, speed of new-product introduction, and qualified-input shares. Regional exports can bridge the gap toward larger scale. Indicators: launch time, assembly yield, domestic engineering per project, and net exports. [S02] ### 84. A Brazilian digital guitar pedal as a case study A compact digital effects pedal combines a DSP or microcontroller, audio converters, analog circuitry, memory, power supplies, connectors, PCB, enclosure, firmware, and user interface. Innovation may reside in algorithms, latency, ergonomics, reliability, and cost even when the central processor is bought from abroad. Brazilian manufacturing could initially specialize in circuit design, digital audio, software, testing, and assembly while importing critical parts. At sufficient scale, certain analog interfaces, codecs, or controllers might justify custom ASICs; trying to fabricate everything from the first product would be counterproductive. Firms, universities, and audio laboratories can develop reference platforms that reduce development costs for smaller manufacturers. Exports begin with the complete product and its brand rather than a mandate to manufacture its principal chip. Indicators: bill-of-materials cost, end-to-end latency, defect rate, overseas revenue, and share of value added retained in Brazil. [S02] ### 85. Medical electronics and certification Medical instruments use sensors, analog circuits, digital processing, power supplies, and software whose performance must comply with stringent standards. Traceability, electrical safety, biocompatibility where applicable, and version control matter as much as the central component. Brazil has hospitals, universities, and device manufacturers that can define demand for domestic electronics, but regulation requires long-term investment and documentation. Changing a chip can require revalidation of the complete instrument. Domestic projects should involve clinical users, engineers, and regulators early, under support contracts and risk analysis. Public policy can finance testing infrastructure and procurement based on demonstrated clinical outcomes. Indicators: failures per operating hour, certification time, after-sales service, and total cost per procedure. [S02] ### 86. Agriculture, sensors, and field automation Agricultural sensors and controllers face dust, humidity, heat, long distances, and difficult maintenance. Device value lies not only in nominal accuracy but in energy consumption, durability, connectivity, and offline operation. Integrated systems may combine imported sensors with Brazilian firmware and radio engineering. The size and diversity of Brazilian farms and crops create varying demand, but low acceptable prices and expensive support can undermine sophisticated devices. Integration with agricultural machinery, cooperatives, and service firms is decisive. Pilots should measure input savings, productivity, and real failures across successive harvests. Custom ASIC development becomes rational only after repeat production creates sufficient volumes and stabilized requirements. Indicators: returns per hectare, battery life, field failures, and maintenance costs. [S02] ## VIII — EDUCATION, SCIENCE, AND ENTREPRENEURSHIP ### 87. Semiconductor engineers are not made in classrooms alone Fabrication specialists must combine solid-state physics, chemistry, materials, statistics, and problem-solving under industrial constraints. Theoretical education is necessary but insufficient without exposure to equipment, failures, repeated production lots, and quality documentation. Accumulated experience is difficult to import in large quantities. Brazil trains engineers and scientists but cannot always provide laboratories close to industrial conditions or careers attractive enough to retain them. Doctoral programs generating papers without transferable prototypes may increase knowledge without building fabrication capacity. Curricula should include end-to-end projects, factory internships, and practical modules in yield, metrology, and maintenance. Technology residencies can connect companies and universities for several years. Indicators: complete projects per student, employment in industry, specialist retention, and alumni contributions to products sold. [S06][S11] ### 88. Maintenance and process technicians Much of the work in complex fabs depends on technicians specializing in instrumentation, automation, chemistry, electronics, and mechanics. They install, calibrate, clean, adjust, troubleshoot, and ensure that each shift preserves process parameters. An industry focused exclusively on PhDs will fail in daily operations. Brazil's vocational-education system can draw on SENAI, federal institutes, and technical schools, provided curricula are co-designed with employers and include real equipment. Generic laboratory training does not prepare workers sufficiently for toxic gases, cleanrooms, and statistical control. Apprenticeships, modular certifications, shift-based training, and exchanges at overseas plants could reduce shortages. Financing must follow employability and performance outcomes rather than confusing numbers of courses with effective industrial capability. Indicators: filled vacancies, practical certifications, accidents, mean time to repair, and technicians' wage progression. [S11] ### 89. Mathematics, physics, and the educational foundation The semiconductor chain rests on applied mathematics, electromagnetism, thermodynamics, chemistry, and programming taught from basic education onward. Weak secondary-school preparation appears years later as difficulty training process engineers, analog designers, and skilled technicians. Expanding university admissions without improving mastery of fundamentals can produce degrees while doing little to reduce real shortages. The need is not only greater selectivity but remedial pathways, practical teaching, and access for students from diverse backgrounds. Long-term policies should connect schools, science olympiads, regional laboratories, undergraduate research, and technical education, with independent learning assessments. Semiconductor development can provide a theme for interdisciplinary projects without reducing education to company training. Indicators: proficiency in mathematics and science, completion of STEM programs, and retention of low-income students. [S11] ### 90. Universities as technology-transfer laboratories Academic departments can develop materials, devices, microfluidics, optics, RF, and processes; technology centers convert the findings into reproducible platforms for industry. Transfer requires contracts, permanent technical staff, intellectual-property management, and process documentation that does not disappear when students graduate. Brazil has universities with microelectronics and materials expertise, but infrastructure is often fragmented and dependent on intermittent financing. Duplicating costly equipment across many campuses can lead to extremely low utilization and inadequate maintenance. National networks should distribute complementary functions and provide access to companies and researchers under technical criteria. Institutions need to measure contracts, licenses, replicated prototypes, and spin-offs while protecting fundamental research that may have no immediate commercial return. Indicators: equipment utilization hours, transfer agreements, service revenue, and companies originating in laboratories. [S06] ### 91. Careers for permanent researchers and technicians Industrial laboratories rely on professionals who remain long enough to maintain process recipes, systems, and metrology. Projects financed only through temporary scholarships produce turnover and a loss of operating memory. Continuity of knowledge is an infrastructure asset. Academic public-sector career incentives do not always value maintenance, documentation, process development, and industrial support. Private employers may likewise underinvest in long-term training for fear of losing skilled employees to rivals. Brazil needs career paths for process engineers and laboratory specialists, mobility programs between universities and firms, and multi-year service agreements. Evaluation should reward reproducibility and the creation of shared capability. Indicators: five-year retention, equipment availability, process documentation, and contracted service income. [S06] ### 92. Precompetitive research centers Before competing for customers, companies can cooperate on shared problems: metrology, materials, reliability testing, safety, training, and pilot platforms. Institutions such as Taiwan's ITRI illustrate how accumulated technological expertise can generate companies, skilled people, and production processes. The mistake would be turning cooperation into an authority that selects every technology and replaces private risk-taking. Institutes are useful when they solve shared constraints, work against clear targets, and transfer technology to multiple firms. Brazil can reinforce existing centers and establish networks specializing in different stages, governed jointly with industrial customers. Open data must coexist with protection for trade secrets and commercial rights. Indicators: companies served, licensed IP, workers trained, and shared cost reductions. [S06][S10] ### 93. Industrial doctorates and applied research Power electronics, circuit design, and high-purity materials require deep research, but validation depends on concrete problems and manufacturing instruments. A well-structured industrial PhD combines a rigorous scientific question with verifiable transfer of methods. Companies may fear disclosing secrets; universities may fear losing independence in setting research agendas. Agreements must separate publishable findings, patents, confidential data, and rights of use so neither institution can inadvertently destroy the collaboration. Joint scholarship programs should require academic and industrial supervision, regular access to facilities, prototype milestones, and peer review. High-risk work can be financed without an immediate commercial return if its hypotheses remain transparent. Indicators: high-quality publications, actively used patents, reproduced prototypes, and researcher employment. [S06] ### 94. Technical diaspora and international recruitment Brazilian engineers work abroad in design, processes, testing, and equipment. Return and collaboration networks can shorten learning curves but depend on compensation, careers, infrastructure, and freedom to carry out technically meaningful work. Hiring prominent experts for short publicity campaigns without ensuring teams, budgets, and operational autonomy is unlikely to transfer lasting knowledge. A famous executive cannot substitute for an organization capable of learning from that person. Recruitment programs can offer transparent contracts, residencies, equity participation, and team financing. Partnerships with international manufacturers should train workers at multiple levels, not just provide symbolic internships. Indicators: retention after three years, Brazilian engineers trained per specialist, and projects transferred into operating production. [S06] ### 95. Venture capital and the gap between research and products Hardware startups confront long development cycles, prototype expenses, inventory, certification, and support; capital does not turn over as quickly as it can in software firms. An investor may value intellectual property while still having to finance years before substantial customer contracts. Brazil needs instruments suited to fabless and advanced-electronics risk. Investment driven solely by short-term valuations can force shutdowns just as a product enters qualification. Conversely, subsidies without commercial discipline can perpetuate dependent projects. Specialist funds can combine private capital, milestone-based public co-investment, contract-development revenue, and purchase commitments. Guarantees and shared prototyping infrastructure reduce the need to create large facilities before the first sale. Indicators: survival rates after prototyping, private capital mobilized, recurring revenue, and startup exports. [S06] ### 96. Intellectual property and freedom to operate Designing a proprietary chip does not guarantee the right to sell it: process patents, IP blocks, protocols, codecs, and manufacturing technologies may impose licensing obligations and legal risks. The IP strategy must be decided before major product investment, not at the point of export. Small Brazilian firms often lack resources to map international patent landscapes and negotiate complex agreements. Missing legal support can produce accidental infringement as well as unnecessarily restrictive licenses. Public support centers and industry associations can offer freedom-to-operate assessments, contract training, and access to specialists. Patent incentives should not be judged by filing counts alone, but by useful rights and commercial applications. Indicators: disputes avoided, licensing revenue, IP contracts reviewed, and the ability to export without unexpected restrictions. [S01] ## IX — GOVERNMENT, INSTITUTIONS, AND POLITICAL ECONOMY ### 97. Industrial policy and coordination failures An investor will not build a fab without suppliers; suppliers will not invest without customers; universities will not maintain expensive programs without employment prospects. This coordination failure can justify public action in infrastructure, training, credit, and information. It does not justify indefinitely financing every project described as strategic. Brazilian policy must avoid two extremes: leaving the industry entirely exposed to competition from countries offering subsidies, or centrally selecting technologies without customers. Effective governance creates conditions and discipline while retaining competitive selection and periodic reassessment. financing calls can require private-sector consortia, contracts, technical metrics, transparent benefits, and recovery provisions when recipients fail to comply. Evaluation must compare subsidized projects against realistic alternative uses of public resources. Indicators: additional investment mobilized, survival after incentives expire, productivity, and fiscal cost per skilled job. [S03][S06] ### 98. Brasil Semicon and PADIS Law No. 14,968/2024 established Brasil Semicon and expanded instruments for semiconductors and related activities. Regulations issued in 2026 added tax-relief, financing, and governance provisions. The legal framework creates possibilities, but effectiveness depends on administrative execution, budgets, and company behavior. Potential incentives, legal eligibility, investment announcements, and physically installed operating capacity must be distinguished. Firms may receive tax treatment without creating new design or export assets if counterpart obligations consist only of assembly operations. Policy should publish dashboards of beneficiaries, investments realized, technical milestones, employment targets, and export outcomes while protecting genuinely confidential information. Regulatory continuity must be paired with regular reviews of costs and performance. Indicators: approved projects entering commercial operation, additional private investment, and revenue from locally developed components. [S03] ### 99. Governance and a managing council Without coordination, mining, chemistry, infrastructure, universities, foreign trade, and financing programs may operate on incompatible schedules. A technical management council should resolve interfaces and monitor results, not merely distribute political seats. Large councils can be captured by incumbent firms, competing states, or short-term interests. Governance must publish decision criteria, require conflict-of-interest disclosures, include competing firms, and obtain independent external expert review. A lean executive unit could monitor projects, identify constraints, and convene responsible authorities. Major subsidy decisions should contain analyses of alternatives, economic returns, fiscal exposure, and annual accountability. Indicators: time to remove constraints, budget execution, private-sector participation, and independent project evaluations. [S03] ### 100. BNDES, Finep, and financing structures Semiconductor financing covers physical capital, intangibles, research, working capital, and guarantees. Fab projects have long maturities and high execution risks; fabless firms need prototype and sales financing; chemical suppliers need purification plants backed by stable contracts. Applying one financial instrument to all is inefficient. Brazil already deploys credit and innovation assistance in parts of the semiconductor sector. The central issue is additionality: how much investment would happen without support, how much risk remains with taxpayers, and how much technological value stays in Brazil. Funds can use distinct instruments: debt for contracted assets, competitive grants for high-risk research, equity for product firms, and export guarantees. Payments should follow verified technical and commercial results, not construction expenditure alone. Indicators: private-capital leverage, risk-adjusted defaults, products reaching production, and net fiscal costs. [S03][S14] ### 101. Taxation, tax credits, and incentive evaluation Semiconductors cross multiple import, service, and manufacturing operations. Cumulative taxes, unpredictable interpretation, and delayed credit recovery can increase financing costs even when the ultimate statutory rate is low. Tax policy must be assessed by total cost rather than one isolated benefit. A special regime may attract a plant without developing local suppliers if contracts and competencies remain abroad. As industrial development policy, an incentive is defensible only where it produces additional investment and its distributional effects are known. Rules should be simple, time-limited, auditable, and consistent with international commitments, with transparent estimates of forgone revenue. Periodic evaluations should compare recipients with plausible comparison groups and measure productivity and exports rather than announcements alone. Indicators: fiscal cost per job, value added per real of forgone revenue, credit-recovery time, and investment durability. [S03] ### 102. Public procurement as market creation Public hospitals, electricity distributors, defense agencies, and schools buy equipment containing numerous electronic circuits. Procurement can help manufacturers overcome first-commercialization risk, but succeeds only when specifications are technical and suppliers remain accountable for performance. Preferences based solely on origin can produce overpricing and inferior goods. Pre-commercial technology procurement must be distinguished from ordinary purchases: in the former the government shares development risk, while the latter should pay for quality and lifecycle value. Public platforms can establish interoperability, maintenance, and cybersecurity requirements so multiple companies can compete for contracts. Projects should disclose technical results without revealing sensitive data and include exit arrangements if technology fails to mature. Indicators: independent supplier counts, verified performance, lifecycle costs, and third-party sales after the initial contract. [S03] ### 103. International trade and technology agreements Global chip production is geographically distributed: design, fabrication, materials, machinery, and customers are in different regions. Export restrictions, sanctions, licenses, and trade disputes can affect essential machines or software even where the physical facility is in Brazil. Depending on only one foreign partner exposes Brazil to other countries' industrial and geopolitical decisions. Diversifying partnerships, however, does not mean ignoring technological incompatibility among manufacturing platforms. Economic diplomacy should seek training agreements, foundry access, joint research, spare-parts supply, and continuity clauses. Partners should be assessed on transferable technology, cost, regulatory risk, and compatibility with final customers. Indicators: qualified alternative suppliers by production stage, contracts with verifiable technology transfer, and replacement times under trade shocks. [S01][S15] ### 104. Exchange rates, inflation, and the cost of capital Machinery, licenses, and many inputs are priced in US dollars, euros, yen, or other currencies, while initial revenue may be earned in Brazilian reais. Currency depreciation makes imported capital and spare parts more expensive, and high interest rates reduce the present value of projects whose returns emerge over many years. Cheap credit alone cannot fix weak demand or poor yield. Currency hedges and long-term finance can mitigate risks preventing otherwise sound projects, but transfer costs to financiers and need to be priced explicitly. Investors should produce scenarios for exchange-rate changes, interest rates, energy prices, exports, real yields, and maintenance costs. Public finance must disclose implicit subsidies and establish whether additional technological value is produced. Indicators: scenario-based net present value, foreign-exchange hedging, financing tenor, and fab break-even levels. [S02] ### 105. Competition, protection, and learning Tariffs can protect emerging activities from large-scale foreign rivals, but may also increase the cost of components used by thousands of Brazilian firms. When incentives favor assembly while penalizing imported inputs, they can discourage designing complete products for export. Brazil must assess effects beyond a single subsidized firm: importers, consumers, hardware startups, and capital-goods manufacturers may bear the costs of poorly designed protection. Effective policy creates a learning period with observable targets. Temporary measures need review clauses and should remove unjustified barriers to importing inputs and equipment without competitive domestic equivalents. Gradual exposure to competition and exports disciplines costs and quality. Indicators: domestic-international price gaps, voluntary exports, productivity, and dependence on incentives after five years. [S02][S03] ### 106. Environmental regulation and social legitimacy Mining, chemicals, and semiconductor production can involve resource-intensive stages, hazardous substances, and construction impacts. Social acceptance depends on demonstrable local benefits and prevention of harm, not merely promises of high-tech jobs. Opacity around water, effluents, and waste can generate legitimate opposition and delays. Brazilian industrial development will be sustainable only if affected communities participate in siting and mitigation decisions. Projects should publish risk assessments, establish continuous monitoring, and provide for financial remediation when damage occurs. Regulators need qualified staff and clear timetables without weakening environmental or public-health standards. Indicators: environmental quality, accidents, unresolved conflicts, fines, and compliance with permit conditions. [S12] ## X — INTERNATIONAL LESSONS ### 107. Taiwan: institutes, industrial parks, and commercial firms Taiwan began its transformation through applied-research institutions, absorption of foreign technology, engineer training, and company formation. ITRI and the Hsinchu science park created an ecosystem of learning; TSMC, founded in 1987, consolidated the dedicated-foundry business model of manufacturing other companies' designs. Reducing Taiwan's experience to subsidies would ignore its combination of human capital, technology transfer, business discipline, and access to global markets. Importing the outcome without accounting for differences in history, population, and geopolitical position would be equally mistaken. For Brazil, the transferable mechanism is building institutions that generate firms and cumulative learning. The objective should not be to create a TSMC by decree, but to develop multiple companies, suppliers, and technicians backed by international contracts. Indicators: companies spun out of technology centers, exports per new firm, and continuity of know-how across generations. [S10] ### 108. South Korea: scale, conglomerates, and R&D South Korea's advances in memory chips and electronics were underpinned by large private investments, process engineering, export learning, and relationships with industrial policy. Large business groups matter because they can sustain long capital cycles and compete in highly volatile world markets. Brazil has significant industrial groups, but its corporate structures and incentives do not automatically replicate Korea's conglomerates. Forcing a national firm into frontier DRAM production without scale or know-how could concentrate fiscal and commercial risk. The useful lessons are export discipline, reinvestment, process engineering, and supplier development. Consortia may share research expenses without artificially concentrating the whole sector in one designated national champion. Indicators: R&D intensity, foreign sales, patents entering actual use, and reinvestment in capacity. [S01] ### 109. Japan: materials, equipment, and precision Japanese companies retain important positions in materials, chemicals, substrates, equipment, and precision components even after changes in the geography of logic-chip fabrication. Industrial leadership can therefore reside in specialized stages without a country leading every foundry market. Brazil's mining, chemical, and mechanical base can draw on this experience: filters, valves, ultra-pure inputs, metrology, and high-reliability services all create value. Entering these markets, however, requires sustained consistency, certification, and close relationships with customers. Brazilian firms can pursue joint ventures and supplies to foreign manufacturers, starting with smaller investments and expanding as processes are qualified. Public support should be assessed by export earnings and the capacity to sustain international specifications. Indicators: material suppliers qualified by global clients, rejection rates, and multi-year contracts. [S01] ### 110. United States: design, software, and reindustrialization The United States concentrates assets in chip design, EDA tools, IP, equipment, and fabless companies while also subsidizing expansion of domestic fabrication. The CHIPS program reveals the capital scale involved: TSMC's supported Arizona expansion involves tens of billions of dollars and three factories. The experience shows that public financing can mobilize investment but does not eliminate construction, labor, operating-cost, and supplier-integration problems. The scale difference between advanced US facilities and Brazil's potential budget requires explicit priorities. Brazil can learn from US training, R&D, and contracting instruments without copying subsidy magnitudes unsupported by similar fiscal capacity. Early action should focus on areas where the country can build demand and exports. Indicators: investment additionality, returns on installed capacity, and durable specialist employment. [S07] ### 111. Malaysia: upgrading from the back end Malaysia established an international presence in electronics and semiconductors through a substantial base of assembly, testing, and suppliers. Its current strategy aims to expand circuit design, advanced packaging, domestic technology, and the training of tens of thousands of engineers. Difficulties recruiting and retaining specialists remain documented. This example is particularly relevant for Brazil because it does not require immediate mastery of frontier lithography. Yet remaining concentrated in lower-margin stages can limit development if local firms fail to acquire IP, customers, and engineering functions. Brazil can deepen OSAT operations while combining back-end expansion with fabless design and electronic materials. Policy should ensure that high packaging volumes do not conceal a low domestic share of final value. Indicators: advanced-assembly processes, domestic design revenue, and labor productivity. [S16] ### 112. India: coordinated scale and execution risks India supports a portfolio of fabrication and packaging projects with international partners, industrial zones, and significant fiscal incentives. Tata's Dholera project illustrates the capital magnitude of a new commercial fab and the role of technology agreements in attempts to shorten the learning curve. Announcements and project approvals are not equivalent to chips sold at competitive yield. India must also address materials supply, education, electricity, water, and local ownership of intellectual property. Brazil could adopt project phases involving external partners, provided that operational-readiness standards are enforced and fiscal costs are measured against knowledge transfer. Comparisons must account for differences in population, markets, policy, and investment conditions. Indicators: genuinely operating installations, accepted wafers, domestic suppliers, and export income. [S17] ### 113. European Union: scientific capabilities and scaling difficulties The European Union possesses research centers, equipment, materials, industrial firms, and incentive programs. Nevertheless, the European Court of Auditors identified constraints to reaching the bloc's ambitious global market-share target. The case illustrates that wealth, science, and legislation do not automatically resolve coordination and investment constraints. Brazil should avoid arbitrary global market-share targets without mapping technologies, resources, and execution capability. An apparently mobilizing percentage can distort projects when global markets grow faster than local industry. The lesson is to build governance around measurable targets at individual stages and monitor actual implementation, reducing administrative friction without abandoning appraisal. Supply-side policy must engage with actual demand. Indicators: announced versus executed investment, pilot-line utilization, and commercial procurement. [S18] ### 114. China: industrial integration and geopolitics China combines immense manufacturing scale, electronics suppliers, infrastructure, and research investment. Its concentration in parts of mineral and industrial chains creates agglomeration advantages but also trade tensions and diversification efforts in other countries. Leadership in one material does not imply immediate mastery of every advanced tool and process. Brazil benefits from importing competitively priced equipment and components, but excessive reliance on one origin can disrupt supply during trade shocks. Strategy therefore requires diplomacy with multiple partners and domestic capacity to design, test, repair, and adapt equipment. Cooperation projects should preserve domestic intellectual property, alternative access to inputs, and continuity contracts. Assessment should follow industrial objectives, regulatory risk, and reachable markets rather than ideological affinities. Indicators: supplier diversification, recovery lead times, and verifiable technology transfer. [S01][S12] ### 115. Latin American experience and regional integration Latin America has automotive markets, energy systems, mining, telecommunications, and an uneven manufacturing base. Mexico is integrated with North American supply chains, while Brazil has diversified demand and mineral resources. No single country must recreate the whole chain to develop meaningful technological capability. Regional integration can increase volumes for modules and equipment, but requires shared standards, logistics, rules of origin, and predictable commercial agreements. A regional policy resting on sovereignty rhetoric alone will be unlikely to overcome costs and qualification barriers. Mercosur and partnerships with other countries can facilitate purchasing, conformity testing, and interoperability without obstructing competitive imports of necessary parts. The opportunity is to build exporters, not a captive low-productivity market. Indicators: regional exports of components and equipment, cross-border suppliers, and logistics costs. [S01] ### Brazilian industrial geography and manufacturing capabilities Brazilian industrial regions could play different roles in a developing semiconductor and electronics value chain. This geographic diagram describes functions without suggesting installed fabrication capacity, precise site locations, or commercial output. Supplier qualification and customer contracts remain necessary in every region. [S06][S08] ```map title: Brazilian regions and potential functions in the electronics chain Campinas and inland São Paulo | Circuit design, research, instrumentation, and testing | Engineering capabilities do not imply complete wafer fabrication Rio Grande do Sul | Microelectronics, research, and fabrication and assembly initiatives | Operational and funding continuity are decisive Manaus | Electronics assembly and demand aggregation | Logistics and technological content vary by product Minas Gerais and Bahia | Mining, chemistry, and beneficiation opportunities | Electronic-grade purity requires further qualification Paraná and Santa Catarina | Automation, machinery, components, and power electronics | Supplying fabs requires traceability and specialized testing Northeastern Brazil | Energy systems, materials, port logistics, and universities | Local water and electricity availability must be demonstrated ``` ## XI — GEOGRAPHIC STRATEGY AND TIMETABLE ### 116. Campinas and inland São Paulo: design, research, and industry The Campinas region connects universities, institutes, software, electronics, metrology, and industrial firms. This concentration offers conditions for fabless design, prototyping, RF, medical electronics, embedded systems, and suppliers of tools and equipment. Airports and access to buyers can shorten product-development cycles. Concentrating everything in one cluster would increase costs and correlated exposure. Choosing a new fab location must account for water, electricity, and physical conditions, not just academic reputation. The regional strategy can strengthen shared infrastructure for design, testing, and pilot production, with competitive access. Links to nearby industrial towns should create supplier routes and vocational-training opportunities. Indicators: firms with commercial tape-outs, R&D contracts, and prototyping time. [S06] ### 117. Rio Grande do Sul: microelectronics and continuity Rio Grande do Sul has institutions and operations connected to semiconductors, including design, assembly, and fabrication initiatives associated with CEITEC. The potential lies in accumulated competence, provided it becomes stable commercial product lines and regionally connected suppliers. Business and budget interruptions can destroy learning. Climate risks also require protecting facilities, alternative transport routes, and electricity and water planning. Local development should connect institutes, universities, firms, and purchasers around selected device roadmaps, under technical governance and yield targets. Expansion must follow real demand and cost evaluation. Indicators: operating stability, products sold, engineer retention, and recovery after extreme events. [S08][S13] ### 118. Manaus: assembly and more domestic engineering The Manaus industrial hub concentrates production and assembly of electrical and electronics goods. Manufacturing scale presents opportunities for testing, engineering, component logistics, and selected packaging activities. Transportation costs and incentive rules, however, must be assessed alongside real value added. An operation can create employment without internalizing design or component production. The region's logistics also depend on river and air conditions subject to seasonality and environmental constraints. Industrial upgrading can proceed through engineering centers, reliability laboratories, regional supplier development, and products intended for Latin American markets. Benefits should reward knowledge and exports, not the number of assembly operations alone. Indicators: local engineering per product, defects, exports, and logistics cost. [S02] ### 119. Minas Gerais and Bahia: materials and transformation States with mining, chemical, and metallurgical-engineering capacity could specialize in turning raw materials into electronic materials, ceramics, alloys, and equipment. Natural-resource advantages exist only when processing, energy, water, and logistics are economically compatible. A purification plant's location must reflect its chemical flowsheet, permits, workforce, and customer access. Exporting unprocessed material may be rational in some markets; requiring loss-making refining by decree is not a durable strategy. Materials projects should begin with commercial letters of intent, pilot plants, and life-cycle assessment. Partnerships among miners, universities, and chemical manufacturers can increase the sophistication of regional production. Indicators: certified-material revenue, locally converted resources, and waste reduction per useful tonne. [S04] ### 120. Paraná, Santa Catarina, and electromechanical supply chains Automation, machinery, embedded-electronics, power, and metalworking firms could supply equipment, electrical panels, instrumentation, and power modules. Their contribution may be more economically significant than symbolic competition to host the country's main foundry. Moving into semiconductor markets requires tighter tolerances, cleanliness, documentation, and testing than conventional industrial standards. The transition can be progressive if customers and qualification laboratories are available. Regional programs can support certification, precision equipment, and maintenance training combined with export pathways. Public infrastructure must benefit multiple firms. Indicators: qualified suppliers, foreign revenue, rejection rates, and maintenance hours delivered to the sector. [S02] ### 121. Northeast Brazil: energy, logistics, and specific opportunities Northeastern Brazil offers opportunities in renewable power, chemicals, mining, ports, and university education, but conditions differ by state and city. Large plants demand precise assessments of water availability, grid performance, suppliers, and workforce, rather than treating average renewable abundance as guaranteed continuity. Power devices, materials, and electronics for renewable-energy systems could generate regional demand. Choosing a location only because of nominal electricity cost may create exposure to transport, drought, or a lack of industrial services. Development should connect inverter and energy-system manufacturers with universities, testing centers, and materials suppliers, including basin-level environmental assessment and workforce qualification. Indicators: delivered electricity cost, dry-season water availability, nearby suppliers, and exports through ports. [S12] ### 122. First three years: demand engineering and laboratories From 2027 to 2029, a national strategy could prioritize trustworthy import data by chip family, buyer portfolios, testing laboratories, technician training, and fabless design expansion. The first meaningful outcomes should be tape-outs, contracts, firms, and repeatable test procedures. The main risk is redirecting resources to visible construction before products are specified. Without a customer map and clarity on design ownership, factories could begin life dependent on subsidies. Commercial-data gaps should be addressed through consortia protecting confidential information. Competitive financing calls should support prototypes with anchor companies, install testing platforms, and retrain professors and technicians. Fab site selection must pass utility and demand studies. Indicators: products with paying customers, engineers trained, and multi-year supply contracts. [S03][S06] ### 123. Years four to eight: back-end scaling and specialized lines From 2030 to 2034, expansion in packaging, testing, materials, and power devices could generate industrial learning and exports. Specialized fabrication plants make sense only when processes, customers, staff, and suppliers cross verifiable readiness milestones. The risk is capacity exceeding the market, particularly in technologies with rapidly falling prices. Incentives are no substitute for comparing domestic costs with imports adjusted for supply security. Investment contracts should require yield trajectories, export plans, operator training, and purchaser commitments. Strategy must permit termination of projects that miss milestones without condemning the whole program. Indicators: capacity utilization, net exports, yield, and incentives as a share of revenue. [S03] ### 124. Years nine to fifteen: consolidating selected processes From 2035 to 2041, a more mature industry could assess new fabrication lines, heterogeneous packaging, and advanced electronic materials based on accumulated market evidence. The realistic objective is strong capability in selected product groups, not replication of the entire worldwide chain. The largest risks are personnel losses, technological shifts, equipment obsolescence, and fiscal shocks. Portfolio revision will be as important as the initial investment decision. Expansion must follow export products, patents in use, qualified suppliers, and private financing. Frontier scientific research can proceed in parallel without being mistaken for commercial commitments. Indicators: productivity, foreign-market share, supplier density, and declining subsidy dependence. [S01] ### 125. Years sixteen to twenty-five: global companies From 2042 to 2051, the strongest outcome would be several Brazilian firms selling products, software, materials, equipment, and services internationally. Some may manufacture chips themselves; others will remain fabless or specialize in critical parts. Diverse business models increase resilience and competition. This scenario depends on institutional continuity and is not a forecast. It could fail due to weak demand, fiscal restrictions, technological shocks, or loss of talent; it could advance faster in niches where private firms secure international customers. Evaluation must assess productivity against international standards rather than slogans of self-sufficiency. The industry is established when Brazilian firms are chosen for quality, price, and reliability outside protected markets. Indicators: foreign revenue, commercialized patents, firm survival, and technical wages sustained by productivity. [S01] ## XII — INVISIBLE INPUTS AND INDUSTRIAL EXECUTION ### 126. Helium, neon, and specialty gases Helium, neon, and other special gases may be important for cryogenics, optics, leak detection, and particular industrial processes. Their availability depends on global supply chains that do not necessarily overlap with those for silicon or final electronics. The risk is small quantities of difficult-to-replace substances capable of stopping expensive machinery. Brazil must map demand by molecule, purity grade, application, and tolerance for substitution. Domestic production may be infeasible for some gases without an economical source and market, making diversified contracts and correctly sized safety stocks indispensable. Industrial centers can share aggregate risk information without revealing trade secrets, qualify second sources, and train handling personnel. Universities could develop purification, recycling, and measurement methods targeted at particular applications. Indicators: replacement lead time by gas, qualified alternatives, loss rates, and actual cost per equipment cycle. [S01] ### 127. Vacuum systems, pumps, and precision sealing Deposition, implantation, lithography, and etching depend on stable vacuum and pumping systems. Leaks, seal wear, chemical residues, and pressure variations affect uniformity and contamination. An unsuitable sealing part can ruin a high-value lot while accounting for a negligible share of the factory budget. Domestic makers of pumps, valves, sensors, and maintenance services can enter through peripheral components. Materials and tolerances nevertheless differ: a part may be mechanically compatible yet release particles, react with plasma, or fail after chemical cleaning. Implementation should rely on documented part-qualification and maintenance programs, test benches, and warranty arrangements with original suppliers. Compulsory localization would be counterproductive without verifiable metrology results. Indicators: leakage, pump-down time, residual contamination, and mean time between failures. [S01] ### 128. Optics, lasers, and nanometer-scale positioning Inspection and lithography systems employ optics, light sources, motion stages, interferometry, and thermal compensation. Their precision results from combining materials, mechanics, electronics, software, and metrology. Controlling a light source in the laboratory is not the same as manufacturing a system that works continuously on a production line. Brazilian physics and precision engineering can contribute subsystems, sensors, specialized mirrors, and calibration software. Competing directly in the most complex equipment before establishing a global-scale supplier and customer base would be a high-risk choice. Public research should target problems shared by scientific instruments, healthcare, measurement, and semiconductors, broadening the learning market. Businesses can export qualified components and accumulate intellectual property from specialized niches. Indicators: thermal stability, positioning repeatability, measurement noise, and export revenue from subsystems. [S15] ### 129. Electromagnetism, compatibility, and certification Modern circuits operate with fast edges, high frequencies, and high power densities. Electromagnetic interference alters measurements, communications, and industrial controls. Board design, cabling, filters, shielding, and grounding form part of system performance rather than being an adjustment after the first commercial failure. Brazilian electronics manufacturers can advance without building chips by investing in compatibility laboratories, instrumentation, and simulation models. Late certification causes product delays and can require costly redesign. Regional laboratories should provide pre-compliance tests, calibration, and layout training. Manufacturers need to integrate testing into design from the outset, maintain version histories, and accept responsibility for post-launch corrections. Indicators: first-pass test success, field interference incidents, and time to certification. [S02] ### 130. Heat dissipation and systems engineering Device power density creates challenges for transferring heat from the die through the package, heat sink, and surrounding environment. Thermal resistance at interfaces, ageing of thermal compounds, and expansion cycles can shorten module life. In power and compute-intensive systems, thermal engineering often determines commercial performance. Brazil has metalworking, refrigeration, and automation firms capable of producing heat sinks, liquid-cooling systems, sensors, and enclosures. Competitiveness requires testing, thermal models, and electronic integration, not only mass mechanical manufacturing. Innovation programs can support thermal test platforms for inverters, servers, lighting, and medical equipment. Product design should optimize whole-system efficiency, including maintenance and auxiliary energy consumption. Indicators: thermal resistance, degradation after cycling, auxiliary power use, and failure rates in extreme heat. [S01] ### 131. Industrial distribution and counterfeit components A firm may design and assemble products correctly yet suffer failures from counterfeit, improperly stored, substituted, or poorly traceable parts. Extensive supply chains, emergency purchases, and unknown intermediaries increase quality and provenance risks. This is particularly important for healthcare, power, and long-life equipment. Brazil should strengthen authorized distribution, incoming inspections, traceability, and supply contracts. Purchasing solely on immediate lowest price can create liabilities that emerge months later, after the component is embedded in a finished product. Manufacturer associations and laboratories can develop identification protocols, nondestructive tests, and incident databases. Public procurement should require documentation for critical supplies without blocking competition through arbitrary criteria. Indicators: suspected-lot rates, supplier-attributed failures, and time needed to trace parts in the field. [S01] ### 132. Industrial decarbonization without accounting disguises Export competitiveness in materials and components may increasingly depend on emissions, energy consumption, and verifiable origin. Fabs use power and substances with climate impacts; a low average grid-emissions factor does not eliminate the need to account for process gases, transport, materials, and infrastructure. Brazil has renewable-energy opportunities but must measure actual emissions per product and compare technical routes. Equipment manufactured with low-emission electricity can still be environmentally problematic if its waste or gases are handled badly. Projects should use auditable emissions inventories, process-level mitigation, and appropriate electricity contracts without claiming neutrality through poorly verified offsets. Technical centers can offer common lifecycle-measurement methods. Indicators: emissions per functional unit, process energy consumption, gases treated, and net water use. [S12] ### 133. Labor relations and shift safety Fab operations involve shifts, controlled rooms, hazardous chemicals, and maintenance routines requiring rest, attention, and precise communication. Reducing costs through inadequate training or poorly designed working hours can cause accidents, yield losses, and turnover. Vocational training should include ergonomics, chemical safety, incident response, and shift-handover documentation. The industry needs pay and career paths commensurate with technical responsibilities and operational risks. Companies and worker representatives can establish safety protocols and ways to report near misses without improper punishment. Inspection should use prevention indicators, not simply count accidents after they happen. Indicators: near misses investigated, turnover, absences, training hours, and shift-handover errors. [S11] ### 134. Semiconductor markets are not homogeneous Memory, logic, analog, sensing, power, RF, and optoelectronics have different competitive structures, cycles, and customers. Growth in global revenue does not mean every product group grows at the same rate or offers attractive margins. A program allocating capital in proportion to the size of the aggregate market may invest in the wrong segment. Brazil needs separate studies by product family, covering unit prices, price elasticity, competitors, IP, and qualification times. The capital structure and cycles of large-scale memory production differ from those of agricultural sensors. A sector observatory should update statistics by product type, import origin, customers, and substitution barriers under a transparent method. Physical-capacity decisions should respond to real contracts, not industry-wide headline growth. Indicators: margins by family, utilization, contracted demand, and substitution rates after qualification. [S01][S09] ### 135. Regional policy without subsidy wars States and municipalities can compete to host large fabs through land, taxes, and infrastructure. Such competition may transfer public resources to an investor without changing the nationally preferred location, lowering aggregate returns. Economic benefits materialize when a cluster attracts suppliers, durable jobs, and technical services. A federal arrangement should publish costs and permit productive-specialization agreements, reducing duplication of cleanrooms and costly institutes. The same budget may generate higher returns by training suppliers across regions rather than replicating entire fabs. Intergovernmental governance should evaluate proposals based on ready infrastructure, water risk, human capital, externalities, and continuity, including tax-expenditure audits. Municipalities need both compensation and accountability for services delivered. Indicators: net fiscal cost per project, suppliers benefiting, and long-duration employment. [S03] ### 136. Standards-essential patents and software licenses Electronic products may incorporate communications standards, interfaces, and codecs covered by specific licensing terms. A Brazilian company can own the complete layout of its circuit board while still depending on software libraries or third-party rights. IP disputes can prevent export even after a product is technically finished. The risk rises for startups negotiating contracts without legal advice and working with poorly documented parts. Brazil could build advisory infrastructure and case databases without interfering with legitimate private negotiations. Industry consortia can finance freedom-to-operate analyses, participation in standards bodies, and specialist legal training. Creating national standards incompatible with global markets should be avoided unless justified by demonstrated strategic needs. Indicators: contracts audited, licensing disputes, interoperable certifications, and exports free of unexpected restrictions. [S01] ### 137. Open tools and technological-dependence risk Open-source EDA, processor architecture, and embedded-systems projects lower entry barriers and facilitate education. But real manufacturing requires validation, supported versions, PDK integration, and accountability for errors. Open source code does not guarantee that every industrial function is as mature as the commercial alternative. Brazil can support free and open software rigorously, complementing it with licensed tools where necessary. Investing in national developers of verification, simulation, compilers, and automation could create exports even without domestic chip fabrication. financing calls should require testing, maintenance governance, dependency security, and documentation. Tool selection needs to follow product requirements and transparent appraisal of risks and migration costs. Indicators: process compatibility, automated tests, maintainer availability, and use by paying companies. [S01] ### 138. Industrial data and process sovereignty Manufacturing recipes, test results, defect models, and maintenance histories have substantial strategic value. Even when machinery is owned by a firm operating in Brazil, contracts may leave technical data controlled by the equipment supplier or another company division. This limits the local team's ability to learn and correct faults. Data protection must respect trade secrets and cybersecurity but also allow domestic teams to preserve accumulated knowledge. Vague technology-transfer agreements can produce lasting dependence on foreign consultants. Public participation in projects should require training documentation, operating-access rights, and maintenance continuity. Proprietary processes need not be disclosed publicly to verify that local professionals control operations and key indicators. Indicators: autonomy in fault diagnosis, time operating without foreign assistance, data retained, and validated process changes. [S01] ### 139. Attesting origin and technological content Labels such as 'made in Brazil' may refer to assembly, packaging, design, diffusion, or complete fabrication—activities with different value added and different challenges. Without transparent definitions, consumers and public officials can mistake participation in a value chain for control over technology. Industrial policy needs separate metrics: domestic value added, Brazilian-owned IP, skilled employment, R&D intensity, wafers processed locally, and imported materials. One local-content ratio cannot represent the entire complexity. Disclosure standards can be auditable while protecting business secrets. Official communications should differentiate laboratory demonstrations, pilot plants, commercial operations, and exports, reducing incentives for announcements without results. Indicators: domestic content by function, certified industrial activities, and revenue share from proprietary technology. [S03] ### 140. Geopolitical stress tests for a national cluster A cluster must also be assessed against external shocks: closure of a shipping corridor, restrictions on software exports, shortages of specialty gases, or unavailable maintenance parts. Geographic supplier diversification reduces risk only when routes and technologies do not share the same single points of failure. Brazil should map deep dependencies, including tier-two and tier-three suppliers, without demanding impossible transparency across the entire global value chain. Firms must know which processes become unavailable when one input fails and how long remaining stock can sustain operations. Annual exercises can simulate interruptions and test substitutes, repair capacity, and communications with customers. Public resilience incentives should be tied to demonstrated improvements in recovery time. Indicators: recovery time objectives, operating days under shock, and share of products with a qualified second source. [S01] ### 141. An innovation portfolio for small and medium-sized firms Developing circuit boards, firmware, instruments, and controllers can create hundreds of engineering firms before the country has large semiconductor manufacturers. A diverse base enables experimentation and reduces the risk of a policy resting on a few champions. SMEs nevertheless face substantial fixed certification, instrumentation, and qualification costs. Brazil can offer paid and selectively subsidized access to laboratories, EDA, testing, prototyping, and regulatory advice. Such structures are most useful when open to competing firms and governed to prevent exclusive capture. Industry associations can organize pooled purchasing of components, training, and export development. Financing should reward products and contracts, not simply the number of startups registered at events. Indicators: revenue after five years, exports, reusable IP, and independent customer counts. [S06] ### 142. Energy demand as an industrial anchor Electrical grids, distributed generation, energy storage, and high-efficiency machinery all use power semiconductors, sensors, and controllers. The need to cut losses can support differentiated products offering temperature tolerance, reliability, and maintainability without frontier logic processes. Brazil has manufacturers of motors, automation, and energy equipment; connecting them with semiconductor firms could create structural demand. Buyers, however, must share specifications and participate in qualification from the outset. Pilot projects can test power modules under actual grid and industrial conditions, comparing efficiency, lifetime, and full cost with imported products. Contracts should allow termination when the promised benefit does not materialize. Indicators: avoided losses, operating hours, total conversion costs, and repeat-purchase volumes. [S12] ### 143. Sensor capabilities for health and the environment Air and water quality, medical diagnosis, and industrial monitoring need dependable sensors and analytical systems. Commercial value comes from calibration, selectivity, drift, and the preservation of data quality over time—not simply fabricating a membrane or circuit. Brazilian healthcare, sanitation, and environmental institutions can define concrete problems for sensor companies. Validation under real conditions takes time but may enable exports to countries facing similar environments. Consortia of hospitals, utilities, universities, and businesses should establish testing and interoperability protocols. Moving toward MEMS or custom chips depends on volume, specification stability, and economic gains over modular alternatives. Indicators: sensitivity and specificity by application, annual drift, calibration cost, and institutional adoption. [S06] ### 144. Industrialization and economic inclusion Advanced manufacturing typically needs highly skilled employees, but social benefits depend on who can enter these careers, how education is financed, and where facilities are located. Programs concentrated on PhDs and executives may raise technical capability without expanding regional opportunities. Brazil must connect federal institutes, technical schools, universities, firms, and mobility policy. Inclusion should be measured by graduation, employment stability, and productivity-supported pay rather than initial enrollment counts. Student retention grants, paid internships, teacher training, and access to distributed laboratories can broaden the talent base. Firms need technical career progression that does not force every specialist into administrative management. Indicators: student retention, wages by qualification, occupational mobility, and regional distribution of opportunities. [S11] ### 145. The ultimate test of successful industrial policy The success of a chip industry cannot be measured by construction, announcements, or the number of installed machines alone. It should appear in companies that sell repeatedly, technologies that continue functioning after a grant ends, suppliers winning foreign customers, and engineers able to solve complex problems domestically. International dependence will not disappear; it should become negotiable, manageable, and progressively less concentrated. Some fabrication stages will be viable at home; others will remain imported. The objective is to develop real choices rather than simulate absolute independence. Public and private projects should be assessed with common indicators for productivity, quality, exports, additionality, and supply security. Sustaining long-term goals also requires the willingness to abandon means that no longer work without abandoning industrial development itself. Indicators: competitive exports, yield, skilled incomes, supplier density, and persistence of outcomes after incentives. [S01][S03] ## Appendix A — Material chains from resource to chip Industrial transformation depends on moving from resources to product specifications. Each stage changes the potential buyers, required capital, waste streams, chemistry, and measurement methods. The following tables identify interfaces that can be addressed by independent projects without requiring every business to be vertically integrated. | **Resource/input** | **Critical transformation** | **Industrial product** | **Quality gate** | |---|---|---|---| | Quartz/silica | Characterization; metallurgy; purification; crystal; wafer | Electronic and photovoltaic Si; technical quartz | Chemistry, electricity, contaminant control | | Metallurgical silicon | Compound synthesis and distillation; deposition; refining | Polysilicon | Chemical processing, safety, scale | | Graphite | Purification, machining, heat treatment | Furnace parts, susceptors | Particles, stability, contamination | | Niobium | Refining; special materials and alloys | Targets, advanced materials | Customers and application-specific specifications | | Tantalum | Refining and powder metallurgy | Capacitors, barriers, targets | Purity, forming, intellectual property | | Tin | Metallurgy; alloys and solder pastes | Electronic solders | Fatigue, wettability, particles | | Copper | Refining; rolling and finishing | Interconnections, wires, PCBs | Oxidation, finish, geometry | | Bauxite/alumina | Refining; high-purity ceramics | Substrates and insulators | Porosity, heat conduction | | Gallium | Byproduct recovery; purification | GaN/GaAs precursors and compounds | Scale, price, epitaxy | | Germanium | Recovery; purification | Optics, materials, devices | Residual streams, niche demand | | Boron/phosphorus | Fine chemistry; dopant preparation | Dopant gases and sources | Safety, dosage, purity | | Fluorite | Fluorine chemistry; ultra-high-purity treatment | Etching and cleaning chemicals | Occupational and environmental risks | | Aluminum | Refining and deposition | Interconnections, contacts | Targets, particles, thin films | | Nickel | Refining; alloys and coatings | Contacts, barriers, batteries | Composition and reliability | | Lithium | Concentration; refining; battery materials | Storage for energy electronics | Battery-management and system integration | | Rare earths | Separation, oxides, technical materials | Magnets, polishing, optics | Waste handling and selective separation | | Technical ceramics | Powders; shaping; sintering | Power substrates, equipment parts | Thermal and dielectric precision | | Resins/polymers | Formulation; ultra-purity; packaging | Molding compounds, substrates | Moisture, delamination, thermal cycles | | Atmospheric gases | Separation; purification; distribution | Ultra-pure N2, O2, Ar | Point-of-use purity | | Raw water | Multiple treatments; polishing; reuse | Fab-grade ultra-pure water | Particles, resistivity, effluents | ### Electronic grade does not mean a rounded purity percentage Commercial classification requires specifying each contaminant: metals, carbon, oxygen, particles, inclusions, crystal defects, dissolved gases, and organics, according to the input. A purity of 99.99% can be excellent for one process and unsuitable for another. The composition of impurities, not just their aggregate concentration, determines whether the material can do its job. The industrial objective is repeatability backed by metrology under real transportation and operating conditions. ## Appendix B — Anatomy of a complete electronics value chain | **Stage** | **Participating organizations** | **Verifiable output** | |---|---|---| | Demand research | OEMs; telecom operators; hospitals; agriculture; electricity networks | Specifications, target prices, volumes | | System architecture | Product engineering; software | Functions, power consumption, interfaces, requirements | | Chip design | Fabless; EDA; IP; PDK | Netlist, layout, test patterns | | Masks | Specialized photomask vendor | Qualified mask set | | Wafers and materials | Substrate; chemicals; gases | Batch-qualified inputs | | Front-end fabrication | Foundry; metrology; maintenance | Processed wafers | | Wafer-level testing | Prober; automated test equipment; yield engineering | Wafer maps and selected dies | | Packaging | OSAT; resins; substrates | Protected, connectable components | | Final testing | Automated test equipment; environmental tests | Accepted, traceable parts | | PCBs and passives | Board manufacturer; component suppliers | Assembled boards | | Firmware | Systems team; toolchain | Programmable, updatable product | | Qualification | Certification; laboratory; customer | Authorization for commercial use | | Logistics and repair | Distribution; inventory; technical support | Sustainable product lifecycle | These thirteen stages can belong to different companies. Strategic control should be distributed according to supply risk, the value retained, and substitutability. A country that designs and integrates a chip can own meaningful technology while outsourcing the foundry; a country that only packages somebody else's die also participates in the chain, but acquires different competencies and margins. ## Appendix C — Equations for investment decisions | **Model** | **Relation** | **Interpretation and caution** | |---|---|---| | Saleable die count | D_good = D_potential × y_fab × y_test | Separate yield terms avoid counting defective parts as capacity | | Fabrication-stage unit cost | C_die = C_wafer / D_good | Does not include packaging, non-recurring engineering, royalties, or product maintenance | | Minimum ASIC volume | N* = NRE / (C_commercial − C_ASIC) | Requires a positive cost difference and recurring demand; ignoring risk and time makes the result optimistic | | Fab utilization | u = actual wafers / adjusted nominal capacity | Nominal capacity must account for maintenance and product mix | | Defect sampling (Poisson model) | Yield ≈ exp(−A × D0) | Simplification dependent on defect distribution and design structure | | Weighted average cost of capital | WACC = E/V × Re + D/V × Rd × (1 − T) | Debt, risk, and tax assumptions must be consistent | | Net present value | NPV = −I0 + Σ CF_t/(1+r)^t | Include expansion, maintenance, obsolescence, and closure | | Net water consumption | W_net = W_intake − W_adequately_returned | Internal reuse must not be counted twice | | Import dependence | Exposure = Σ input_share × supplier_risk | Internal index depends on transparent weights and qualitative assessment | ### Two yields, two economically different factories In the example of a hypothetical wafer with 600 possible die positions, a cost of R$12,000 and fab yield of 60%, 360 dies pass at R$33.33 each for that stage. At 85% yield, 510 dies pass at R$23.53 apiece. If final testing rejects another 5%, the results change again. None of these figures is a real-world market quotation: they demonstrate sensitivity of cost to yield. ### The decision to make an ASIC A Brazilian company considering R$18 million in non-recurring design and prototyping investment must compare total costs with the commercial alternative. If the net per-product cost difference is R$12 and no additional expenses arise, simple break-even volume would be 1.5 million units. At annual demand of 100,000 parts, that implies fifteen years without accounting for interest, risk, or redesign—a clear sign of fragility. If the same architecture is used in many products and reaches one million units annually, the economic case changes substantially. This calculation does not replace technical and contractual due diligence. ## Appendix D — Hypothetical public-private investment portfolio An illustrative allocation of R$12 billion over ten years permits comparisons among priorities without portraying these amounts as an official budget, market price, or government commitment. Approval of any project would depend on individual technical studies, permitting, contracting, and socioeconomic cost-benefit appraisal. | **Allocation** | **Share %** | **R$ billion / 10 years** | **Required delivery** | |---|---:|---:|---| | Vocational training and industrial residencies | 18 | 2.16 | Technicians and engineers employed in real operations | | Metrology and reliability centers | 14 | 1.68 | Multi-company services and certificates | | Tape-outs and fabless platforms | 16 | 1.92 | Commercial products, IP, new clients | | Back-end and testing modernization | 16 | 1.92 | Yield, export capacity, advanced processes | | Electronic materials and fine chemicals | 10 | 1.20 | Qualified lots, exports, safety | | Power, MEMS, and photonics pilot lines | 14 | 1.68 | Customer-qualified devices | | Shared logistics, electricity, and water infrastructure | 8 | 0.96 | Reliability, cost, reuse, multiple users | | Auditing, risk, and program contingency | 4 | 0.48 | External assessment, resilience, course corrections | Under this hypothetical design, all subsidies should be governed by transparent calls or contracts and subject to audit. Private participation varies by risk: shared public goods and fundamental research can justify higher public shares; commercially mature plants require predominantly private risk capital. The illustrative total is neither available Brazilian budget financing nor sufficient evidence that an advanced fab can be built at that cost. ### Fiscal opportunity cost A ten-year program competes with basic education, infrastructure, healthcare, sanitation, and other investments. Benefits should be measured through net skilled employment, productivity, exports, technology diffusion, future tax receipts, and supply security. Temporary construction jobs, permanent industrial employment, and estimates of indirect benefits must not be indiscriminately added. Fiscal decisions improve when expected benefits and risks are shown as annual flows and compared with alternative policies. ## Appendix E — Risks that could derail a twenty-five-year program | **Structural risk** | **Damage mechanism** | **Measurable response** | |---|---|---| | Insufficient demand | Idle fab and elevated unit costs | Customer agreements, pilot stages, export tests | | Below-target yield | Scrap, delays, and cash losses | Yield engineering and external process audits | | Technological change | Obsolete machinery and IP | Diversified portfolio, contracts, adaptation options | | Technician shortages | Downtime, accidents, poor productivity | Industrial residencies, certification, career progression | | Chemical contamination | Lost lots and health risks | Impurity measurement, safety, qualified suppliers | | Export restrictions | Interruptions in software or machinery | Multiple origins, compliance, redundancy | | Exchange rates and interest | More expensive capital expenditure and working capital | Hedging, long-term finance, foreign earnings | | Subsidy capture | Forgone tax revenue without learning | Public targets, audits, clawback provisions | | Regulatory uncertainty | Delayed investment and litigation | Stable contracts and technically grounded decisions | | Electrical outages | Lost wafers and line shutdowns | Redundancy, power-quality controls, tests, contingency | | Drought and water conflict | Compromised permits and operations | Reuse, basin mass balances, drought plans | | Cyberattacks on MES | Compromised recipes and shutdowns | Segmentation, backups, access controls | | Scarce maintenance suppliers | Excessive lead times | Spare parts, service contracts, local training | | Single-customer dependence | Excessive buyer bargaining power, cancellations | Diversified products and markets | | Talent not retained | Loss of cumulative know-how | Careers, compensation, equity/IP participation | | Geopolitical shocks | Logistics costs and trade blocks | Diplomacy, diversification, risk-weighted stocks | ## Appendix F — Professional development by competencies | **Education/career** | **Competencies** | **Indicative period** | **Validation** | |---|---|---|---| | Basic education | Mathematics, chemistry, physics, programming, statistics | 12–18 years | Practical labs and proficiency | | Process technician | Cleanrooms, chemical safety, measurements, shifts | 1–3 years | Practical certification and fab experience | | Maintenance technician | Vacuum, RF, sensors, robotics, HVAC, utilities | 2–4 years | MTTR, inspections, preventive maintenance | | Analog engineer | Circuits, noise, layout, instrumentation | 4–7 years | Tape-outs and post-silicon validation | | Digital engineer | RTL, architecture, verification, EDA, FPGA | 4–7 years | Test coverage and functioning silicon | | Process engineer | Chemistry, films, thermodynamics, statistical process control | 5–8 years | Yield and reproducibility | | Materials engineer | Crystals, purification, interfaces, defects | 5–10 years | Qualified lots and applied publications | | Test engineer | ATE, DFT, reliability, instruments | 3–6 years | Escaped defects and testing time | | Packaging designer | Thermomechanics, metallurgy, signal integrity | 4–8 years | Thermal failures and integrity | | Ultra-high-purity chemist | Separation, analysis, process safety | 4–8 years | Purity, lots, occupational protection | | EHS specialist | Occupational hygiene, effluents, incidents | 3–7 years | Prevention and compliance | | Supply manager | Qualification, export controls, inventories | 3–6 years | On-time-in-full delivery, lead time, second sourcing | | Fabless product manager | Non-recurring engineering, IP, buyers, support, quality | 5–10 years | Margin and recurring revenue | These ranges describe approximate education plus experience, not compulsory career durations or equivalences among occupations. Responsible policy provides routes into the industry for vocational graduates, experienced workers, and students from diverse socioeconomic backgrounds. Direct exposure to real industrial operations is essential at every level. ## Appendix G — Annual milestones, 2027–2051 | **Year** | **Phase** | **Conditional industrial milestone** | **Control** | |---|---|---|---| | 2027 | Foundations and demand | Map chip-family demand and purchasing organizations | External review of portfolio and indicators | | 2028 | Foundations and demand | Negotiate access to EDA, PDKs, and laboratories | External review of portfolio and indicators | | 2029 | Foundations and demand | Formalize internships and industrial consortia | External review of portfolio and indicators | | 2030 | Design scale and back end | Begin niche-market exports | External review of portfolio and indicators | | 2031 | Design scale and back end | Audit infrastructure utilization | External review of portfolio and indicators | | 2032 | Design scale and back end | Qualify chemical suppliers and metrology | External review of portfolio and indicators | | 2033 | Design scale and back end | Increase sales of fabless products | External review of portfolio and indicators | | 2034 | Design scale and back end | Qualify OSAT lines and power modules | External review of portfolio and indicators | | 2035 | Selective industrialization | Reach sustainable industrial yield | External review of portfolio and indicators | | 2036 | Selective industrialization | Build local maintenance supply chains | External review of portfolio and indicators | | 2037 | Selective industrialization | Qualify electronic materials | External review of portfolio and indicators | | 2038 | Selective industrialization | Test new power-device processes | External review of portfolio and indicators | | 2039 | Selective industrialization | Expand heterogeneous integration | External review of portfolio and indicators | | 2040 | Selective industrialization | Review fiscal policy against productivity | External review of portfolio and indicators | | 2041 | Selective industrialization | Expand capacity after firm contracts | External review of portfolio and indicators | | 2042 | Consolidation and diversification | Establish global brands and IP | External review of portfolio and indicators | | 2043 | Consolidation and diversification | Renew production technologies | External review of portfolio and indicators | | 2044 | Consolidation and diversification | Increase complex-product exports | External review of portfolio and indicators | | 2045 | Consolidation and diversification | Develop a second generation of firms | External review of portfolio and indicators | | 2046 | Consolidation and diversification | Raise productivity without permanent protection | External review of portfolio and indicators | | 2047 | Consolidation and diversification | Consolidate global brands and IP | External review of portfolio and indicators | | 2048 | Consolidation and diversification | Renew production technologies | External review of portfolio and indicators | | 2049 | Consolidation and diversification | Increase complex-product exports | External review of portfolio and indicators | | 2050 | Consolidation and diversification | Develop a second generation of firms | External review of portfolio and indicators | | 2051 | Consolidation and diversification | Raise productivity without permanent protection | External review of portfolio and indicators | This annual sequence is neither an approved government schedule nor a forecast of performance. Its economic purpose is to distinguish capabilities that may mature in a few years from those requiring decades. Portfolio reviews should preserve useful infrastructure, data, and talent even when individual company projects close. ## Appendix H — Decisions that must precede a fab | **Gate** | **Question requiring a documented answer** | |---|---| | Product | Is the function defined and compared with available alternatives? | | Customer | Who approves qualification, and what volume can be contracted? | | Intellectual property | Does the company have freedom to operate in target markets? | | Design | Are the PDK, IP, and verification team sufficient? | | Materials | Are there qualified suppliers for critical inputs? | | Equipment | Are service, spare parts, and contracts secured for an adequate period? | | Electricity | What is the maximum loss during an interruption, and how will it be prevented? | | Water | Is dry-season consumption environmentally permitted? | | Personnel | Will operating shifts and management be trained before startup? | | Metrology | Can parameters be measured with known uncertainty? | | Qualification | Who will conduct independent reliability tests? | | Logistics | Is 95th-percentile spare-part replacement time operationally acceptable? | | Financing | Can cash flow withstand yield below expectations? | | Exports | Is commercial and regulatory access to foreign customers available? | | Subsidies | Is there additionality, a fiscal cap, and an exit condition? | | Community | Have water, waste, and employment been discussed locally? | | Governance | Which events require stopping investment? | ## When learning becomes industrial power A chip industry does not spring from owning mineral deposits, buying a machine, or passing a law. It emerges when complex production systems reproduce quality and profit, when professionals learn to diagnose failures without relying entirely on foreign consultants, and when domestic companies accumulate designs, brands, contracts, and export capacity. Physical geography supplies resources; economic geography determines where knowledge remains. Brazil could become a significant supplier of specialized circuits, power devices, electronic materials, testing services, embedded software, equipment, and final products without immediately owning a foundry comparable to the largest worldwide. The opposing premise—that only the most advanced lithography deserves to be called a semiconductor industry—would destroy nearby opportunities and confuse prestige with productivity. The difference between twenty-five years of productive investment and twenty-five years of announcements will depend on discipline in selecting projects. Education must produce professionals capable of operating; science must yield reproducible processes; incentives must mobilize additional capital and learning; factories must generate yield and sales; minerals must become certified materials; and diplomacy must provide access to markets and technologies. Without these links, a country may finance facilities without financing the ability to keep them alive. ## Sources, legislation, and research **[S01] OECD.** Mapping the Semiconductor Value Chain (2025); Understanding the Semiconductor Value Chain (2026). https://www.oecd.org/en/publications/mapping-the-semiconductor-value-chain_4154cdbf-en.html **[S02] ABINEE.** *2026 Economic Outlook and Sector Performance*, consolidated 2025 electrical and electronics trade series. https://www.abinee.org.br/arquivos/decon/panorama/2026/ **[S03] Brazil: legislation.** Law No. 14,968 of September 11, 2024, establishing Brasil Semicon; Decree No. 13,065 of July 15, 2026, regulating the program and amending Decree No. 10,615/2021. Law: https://www2.camara.leg.br/legin/fed/lei/2024/lei-14968-11-setembro-2024-796221-publicacaooriginal-172984-pl.html ; decree: https://legis.senado.leg.br/norma/43548823/publicacao/43559630 ; MDIC: https://www.gov.br/mdic/pt-br/composicao/sdic/dial/complexo-eletroeletronico-e-de-semicondutores/programa-brasil-semicondutores-brasil-semicon **[S04] USGS.** Mineral Commodity Summaries 2026; Brazil Country Profile. https://www.usgs.gov/publications/mineral-commodity-summaries-2026 **[S05] Materials Research Bulletin.** Review of advanced purification technologies for high-purity quartz materials (2026). https://www.sciencedirect.com/science/article/pii/S0025540825006105 **[S06] Softex / CGEE.** Brasil e a Cadeia Global de Semicondutores; The Brazilian Landscape in STI Semiconductors. https://observatorio.softex.br/publicacao-geral/brasil-e-a-cadeia-global-de-semicondutores/ **[S07] NIST / CHIPS.** TSMC Arizona: public support, investments, and fab phases. https://www.nist.gov/chips/tsmc-arizona-phoenix **[S08] ABISEMI.** Development of Brazil's semiconductor industry presented at Chip in Sampa 2026. https://abisemi.org.br/abisemi/noticia/221/abisemi-apresenta-a-evolucao-da-industria-de-semicondutores-no-brasil--nos-ultimos-40-anos-durante-o-chip-in-sampa-2026- **[S09] SEMI.** 300mm Fab Outlook, Q3 2026. https://www.semi.org/en/products-services/market-data/300mm-fab-outlook **[S10] ITRI / NTU.** The Birth of Taiwan's Semiconductor Industry; History of Taiwan's Semiconductor Industry. https://itritoday.itri.org/114/content/en/unit_01-2.html **[S11] SIA / Oxford Economics.** Chipping Away: U.S. Semiconductor Labor Market Gap. https://www.semiconductors.org/chipping-away-assessing-and-addressing-the-labor-market-gap-facing-the-u-s-semiconductor-industry/ **[S12] IEA.** Energy Technology Perspectives 2026: Supply Chain Risks and Industrial Competitiveness. https://www.iea.org/reports/energy-technology-perspectives-2026/supply-chain-risks-and-industrial-competitiveness **[S13] Exame.** O chip Made in Brazil: survey of semiconductor companies in Brazil (2026). https://exame.com/revista-exame/o-chip-made-in-brazil/ **[S14] BNDES.** R$290 million in financing for Adata (2024). https://agenciadenoticias.bndes.gov.br/norte/Com-R%24-290-milhoes-BNDES-apoia-producao-de-tres-novos-semicondutores-no-pais-pela-Adata/ **[S15] European Commission JRC.** EUV lithography supply chain report (2023). https://publications.jrc.ec.europa.eu/repository/bitstream/JRC133850/JRC133850_01.pdf **[S16] Bank Negara Malaysia.** Malaysia's Position in Global E&E Value Chain and Prospects (2025). https://www.bnm.gov.my/insights/investment/emr2024b1 **[S17] Government of India / PIB.** India's First Chip Fabrication Plant at Dholera SEZ (2026). https://www.pib.gov.in/PressReleasePage.aspx?PRID=2252649&lang=1&noshow=1®=3 **[S18] European Court of Auditors.** Special Report 12/2025: EU semiconductor strategy. https://www.eca.europa.eu/pt/publications/SR-2025-12 [S01]: https://www.oecd.org/en/publications/mapping-the-semiconductor-value-chain_4154cdbf-en.html [S02]: https://www.abinee.org.br/arquivos/decon/panorama/2026/ [S03]: https://www2.camara.leg.br/legin/fed/lei/2024/lei-14968-11-setembro-2024-796221-publicacaooriginal-172984-pl.html [S04]: https://www.usgs.gov/publications/mineral-commodity-summaries-2026 [S05]: https://www.sciencedirect.com/science/article/pii/S0025540825006105 [S06]: https://observatorio.softex.br/publicacao-geral/brasil-e-a-cadeia-global-de-semicondutores/ [S07]: https://www.nist.gov/chips/tsmc-arizona-phoenix [S08]: https://abisemi.org.br/abisemi/noticia/221/abisemi-apresenta-a-evolucao-da-industria-de-semicondutores-no-brasil--nos-ultimos-40-anos-durante-o-chip-in-sampa-2026- [S09]: https://www.semi.org/en/products-services/market-data/300mm-fab-outlook [S10]: https://itritoday.itri.org/114/content/en/unit_01-2.html [S11]: https://www.semiconductors.org/chipping-away-assessing-and-addressing-the-labor-market-gap-facing-the-u-s-semiconductor-industry/ [S12]: https://www.iea.org/reports/energy-technology-perspectives-2026/supply-chain-risks-and-industrial-competitiveness [S13]: https://exame.com/revista-exame/o-chip-made-in-brazil/ [S14]: https://agenciadenoticias.bndes.gov.br/norte/Com-R%24-290-milhoes-BNDES-apoia-producao-de-tres-novos-semicondutores-no-pais-pela-Adata/ [S15]: https://publications.jrc.ec.europa.eu/repository/bitstream/JRC133850/JRC133850_01.pdf [S16]: https://www.bnm.gov.my/insights/investment/emr2024b1 [S17]: https://www.pib.gov.in/PressReleasePage.aspx?PRID=2252649&lang=1&noshow=1®=3 [S18]: https://www.eca.europa.eu/pt/publications/SR-2025-12