August 2026 Updates for Design Engineers
Read the latest semiconductor and electronics news and updates.
In this edition:
Semiconductor Sales Are Surging, but Availability Remains Uneven
ASELSAN's Growth Points to Rising Semiconductor Demand in Türkiye
Morocco's Gigafactory Could Reshape North Africa's Battery Value Chain
Tunisia's Automotive Sector Is Moving Up the Electronics Value Chain
Why Semiconductor Expansion Depends on Specialized Logistics
Semiconductor Sales Are Surging, but Availability Remains Uneven
Global semiconductor sales reached $403.3 billion during the second quarter of 2026, increasing 35.1% compared with the previous quarter, according to the Semiconductor Industry Association.
June sales reached $134.5 billion, up 123.6% compared with June 2025 and 9.7% from May. Growth was recorded across every major geographic market, reflecting the scale of demand flowing into AI infrastructure, data centers, advanced computing and other semiconductor-intensive applications.
The headline figures point to a rapidly expanding market. They do not, however, indicate that supply conditions are improving equally across every component category.
Growth Is Concentrated
Memory is the primary driver of the current expansion. World Semiconductor Trade Statistics projected memory revenue growth of approximately 250% in 2026, driven largely by high-bandwidth memory, AI infrastructure and accelerated computing.
Logic was forecast to grow approximately 37%, while microprocessors were expected to increase around 20%. Analog components, discretes, sensors and optoelectronics were projected to expand at considerably slower rates.
The result is a semiconductor market growing quickly but unevenly. Investment and manufacturing capacity are increasingly concentrated around the technologies supporting advanced AI systems.
What This Means for Procurement
Higher industry revenue should not be interpreted as greater availability across every bill of materials. Capacity allocation toward AI processors, advanced memory and related packaging technologies can create secondary pressure elsewhere in the supply chain.
Lead times, pricing and availability may therefore move differently across memory, analog, power, microcontrollers, discretes and other categories, even while the overall market expands.
For engineering and procurement teams, category-level visibility is becoming more important than headline market growth. The practical question is not simply whether demand is increasing, but where it is increasing fastest and what that means for the components required by a specific design.
The implication is clear: market growth must be interpreted at component-category level. Across its authorized manufacturer portfolio, McKinsey Electronics monitors where demand, capacity and lead times are moving at different rates and where those shifts could affect its customer BOMs.
Renesas Restores Production - What Happens Next for Supply?
Renesas Electronics has restored its Kawashiri semiconductor factory in Kumamoto, Japan, to its pre-earthquake wafer-input capacity following the earthquake that struck the region on July 28.
Production at both the Kawashiri and nearby Nishiki factories was suspended immediately while Renesas assessed employee safety, buildings, manufacturing equipment and wafers already in production. The company reported that employees were safely evacuated and no injuries occurred.
The Nishiki factory resumed phased production on July 29 and returned to its previous capacity on July 31. Kawashiri required additional recovery work following building damage and a temporary interruption to its pure-water supply.
A Controlled Recovery
Renesas initially planned a phased restart at Kawashiri for August 5 but resumed production one day earlier, on August 4. On August 24, the manufacturer confirmed that the factory had returned to its pre-earthquake wafer-input capacity on the evening of August 23.
The relatively rapid recovery demonstrates the importance of emergency planning, infrastructure resilience and controlled restart procedures in semiconductor manufacturing. Fabrication facilities depend on stable utilities, tightly controlled environments and complex equipment that must be inspected before operations can safely resume.
Why Wafer Input Is Only One Milestone
Returning to previous wafer-input capacity is significant, but it does not translate immediately into normal finished-product availability. Wafers already moving through production must still complete the remaining fabrication, assembly, testing and logistics stages.
For procurement teams, this distinction matters. A factory restart date should be treated as an important recovery indicator, not as a guarantee that downstream inventory and lead times have already normalized.
As an authorized Renesas distributor, McKinsey Electronics provides customers with verified manufacturer updates and clearer visibility into supply conditions as production and product availability gradually return to normal.
ASELSAN's Growth Points to Rising Semiconductor Demand in Türkiye
ASELSAN reported approximately $1.8 billion in revenue for the first half of 2026, representing 25% real growth compared with the same period last year. New contracts reached approximately $4.9 billion, while the company's order backlog grew to $23.2 billion.
The results reflect demand across radar, communications, electronic warfare, electro-optics, naval systems and air defense. They also show the scale of investment supporting Türkiye's ambitions in advanced electronics and locally developed microelectronics.
Investment Is Moving Beyond Finished Systems
ASELSAN increased research and development expenditure by 41% to approximately $804 million during the first half of 2026. Focus areas included microelectronics, low-orbit satellite technologies, quantum computing, underwater systems, propulsion and lasers.
More than 500 employees are reportedly involved in military-chip design and production. Production capacity is expanding in parallel: ASELSAN invested approximately $323 million in capacity and infrastructure, commissioned additional production and testing facilities, introduced 19 robotic automation lines and advanced work on its Oğulbey Technology Base.
Supported by approximately $1.5 billion in investment, the Oğulbey development is expected to more than double ASELSAN's production capacity, with its first phase scheduled to begin operations during the third quarter of 2026.
The Semiconductor Implications
Expansion at this scale creates demand beyond one manufacturer or one program. Advanced radar, communications, sensing and embedded systems depend on broad technology ecosystems that include RF and microwave devices, microcontrollers, sensors, power semiconductors, memory, timing components, interconnects and passives.
As Türkiye strengthens domestic design and advanced-electronics manufacturing, technical evaluation, qualification and long-term supply visibility become increasingly important. Component pricing remains relevant, but it is only one part of a design-driven purchasing decision.
With engineering and commercial teams in Türkiye, McKinsey Electronics supports this growing demand through authorized sourcing, technical component evaluation and design-in support across semiconductor and electronic-component technologies.
Micron's $10 Billion Bet on the Future of Memory and AI
Micron Technology plans to invest $10 billion over the next decade in Micron Research Labs, a research initiative focused on next-generation memory, computing architectures, advanced packaging and future semiconductor-manufacturing technologies.
Headquartered in Boise, Idaho, the initiative is expected to connect researchers from industry, academia, government and technology startups. Its purpose extends beyond current commercial product roadmaps toward the technologies that could shape future memory and computing systems.
AI Is Changing the Role of Memory
AI accelerators must process and move enormous volumes of data. Increasing compute capability alone is not sufficient if processors cannot access that data quickly and efficiently.
Memory bandwidth, capacity, latency and energy efficiency have therefore become system-level design considerations. High-bandwidth memory already plays an important role in advanced AI architectures by enabling larger volumes of data to move between processors and memory more efficiently.
The challenge extends beyond the memory device itself. Future architectures are expected to rely on closer integration between memory, processing, packaging, power delivery and interconnect technologies.
Packaging Becomes Part of the Performance Equation
Advanced packaging is another major area of Micron's research initiative. Positioning memory and processing components closer together can increase performance and reduce data-movement overhead, but it also introduces challenges involving thermal management, power delivery, manufacturing complexity and reliability.
Micron plans to connect the Boise facility with its wider research network across the United States, Europe, Japan, India, Singapore and Taiwan, while supporting university partnerships and satellite laboratories.
The investment reflects a broader shift in semiconductor design. Future performance gains will depend less on any single device and increasingly on how memory, processing, packaging, power and connectivity operate together as one system.
Oman Moves Deeper Into Solar and Battery Manufacturing
Oman is expanding its clean-energy ambitions beyond renewable-power deployment and into the manufacturing technologies behind it.
Future Fund Oman, managed by the Oman Investment Authority, is investing approximately $70 million in Orion Solar's planned $442 million manufacturing project in Sohar Free Zone. The facility is expected to produce up to 6 GW of solar cells annually, with industry reports indicating that the integrated development could also include 3 GW of solar-module capacity.
The portfolio also includes the Gallant Industrial Project, planned to produce approximately 66,000 metric tons of lithium iron phosphate cathode material annually. LFP is widely used in electric-vehicle batteries and stationary energy-storage systems where thermal stability, cycle life and durability are priorities.
From Energy Deployment to Industrial Capability
Together, the projects suggest that Oman is seeking a position further upstream in the clean-energy value chain. Manufacturing solar cells, modules and battery materials can attract related activity in assembly, power conversion, industrial automation, testing and energy storage.
The significance is therefore not limited to the announced production capacity. These investments could help build local technical capability and a wider industrial ecosystem around electrification and advanced manufacturing.
The Electronics Behind the Investment
Solar manufacturing, battery-storage platforms and automated production lines depend on power semiconductors, embedded control, sensing, industrial connectivity, circuit protection, magnetics, test equipment and thermal management.
Engineering teams must evaluate these technologies at system level, balancing efficiency, reliability, environmental conditions, availability and lifecycle requirements.
For McKinsey Electronics, these investments broaden the regional technology landscape beyond energy generation itself. The opportunity lies in the power, control, sensing and industrial systems required to turn new manufacturing capacity into reliable operating infrastructure.
Morocco's Gigafactory Could Reshape North Africa's Battery Value Chain
The African Development Bank has approved approximately $114 million in financing for Gotion Power Morocco to develop an integrated lithium iron phosphate battery gigafactory in the Rabat-Salé-Kénitra Free Trade Zone.
Led by Gotion High-Tech, the project represents an initial investment of approximately $1.3 billion. The Bank is also working to mobilize roughly $161 million in additional financing from investment partners.
The first phase is expected to produce battery cells and packs for electric vehicles at an initial annual capacity of 10 GWh. Longer-term plans could increase capacity to 100 GWh.
More Than Battery Assembly
Unlike a facility focused solely on final pack assembly, the project is designed to integrate several production stages, including cathode materials and battery-cell manufacturing. This could allow Morocco to retain more value locally while reducing reliance on imported battery components.
Morocco's established automotive sector, proximity to European markets and industrial infrastructure strengthen its position as a potential manufacturing base for electric mobility and energy storage. The first phase is expected to create more than 600 direct jobs and target a local industrial integration rate of approximately 70%.
A Wider Electronics Ecosystem
The implications extend beyond the battery cell. Large-scale battery manufacturing requires battery-management systems, power semiconductors, voltage and current sensing, embedded control, automation, thermal management, high-current interconnects, communications and test equipment.
Demand can also extend to the engineering companies, equipment suppliers and local technology partners supporting factory operations and the wider electric-mobility ecosystem.
With local presence across North Africa, McKinsey Electronics supports the engineering and component requirements emerging around battery manufacturing through authorized technologies, technical guidance and design-in support.
Tunisia's Automotive Sector Is Moving Up the Electronics Value Chain
Tunisia has developed one of North Africa's most established automotive-component manufacturing ecosystems. An August 2026 industry report estimated that the sector included approximately 280 companies and supported around 120,000 jobs.
Automotive-component exports reached approximately $4.4 billion in 2025, reflecting strong integration with European supply chains, particularly in France and Germany.
Wiring harnesses and other labor-intensive components remain important, but they no longer describe the full market. Tunisia is gradually expanding into sensors, electronic controls, mechatronic systems, vehicle-access technologies and energy-management solutions.
Investment Is Following the Shift
The International Finance Corporation disclosed proposed financing of up to approximately $59 million for the expansion of German automotive supplier Marquardt's operations in Tunisia. The proposal was scheduled for board consideration in August; a final approval announcement was not clearly available in the public sources reviewed.
If completed, the financing would support factory upgrades, industrial equipment and working capital. Marquardt has operated in Tunisia since 1991 and employs approximately 2,000 people across three facilities in the greater Tunis area, producing mechatronic and electronic systems for international vehicle manufacturers.
Capturing More Engineering Value
Tunisia's next opportunity is not simply to increase production volumes. It is to participate earlier in component selection, electronic-system design, embedded development, testing, validation and product industrialization.
That transition becomes more important as electrification, sensing, connectivity, safety and software-controlled functions increase the electronic content of vehicles.
McKinsey Electronics' technical presence in Tunisia provides a direct view of this transition. The next measure of progress will be whether local companies can participate earlier in design, testing and industrialization, contributing more engineering value to the international automotive programs they already serve.
Why Semiconductor Expansion Depends on Specialized Logistics Qatar Airways Cargo has expanded its TechLift service with specialized containers designed to transport semiconductor fabrication machinery and other sensitive, high-value electronic equipment.
The carrier added Van Riemsdijk Rotterdam's 16-foot RZY and 20-foot RGX containers to its portfolio. Both incorporate climate-control systems and enhanced shock protection and are certified for main-deck transportation aboard Qatar Airways Cargo's Boeing 777 freighters.
The technology addresses a part of semiconductor expansion that receives less attention than fabrication itself: safely moving the equipment required to manufacture chips.
Semiconductor Equipment is Not Conventional Cargo
Modern fabrication, inspection and testing equipment can contain precision optics, sensitive electronics and highly engineered mechanical assemblies. Temperature variation, vibration or physical shock during transportation can damage equipment or create problems that become visible only during installation and qualification.
A logistics failure can therefore affect more than one shipment. It can delay equipment installation, fab qualification and, ultimately, production schedules.
The containers build on the wider TechLift service launched in 2025, which supports integrated circuits, chipsets, manufacturing machinery, test equipment and wafer-processing materials through specialized handling and additional protection.
Resilience Extends Beyond the Fab
Expanding semiconductor capacity requires more than constructing factories. The industry depends on specialized logistics, equipment suppliers, materials, utilities, testing capabilities and infrastructure operating as an interconnected system.
As chip manufacturing expands across more regions, those supporting capabilities become increasingly strategic. Qatar's investment illustrates how regional logistics hubs can contribute to global technology supply chains.
The semiconductor supply chain is therefore not simply a network for moving chips. It is an interconnected industrial system for moving the materials, machines and technologies required to produce them.