Posted On: Jun-2026 | Categories : Semiconductor and Electronics
The Multilayer Ceramic Capacitor market is becoming strategically important for one simple reason: modern electronics cannot scale without stable power integrity.
MLCCs are not expensive headline components like processors, GPUs, memory chips, or power semiconductors. Yet they are embedded into nearly every high-growth electronics platform, from smartphones and servers to electric vehicles, telecom equipment, medical devices, factory automation systems, and defense electronics. Their commercial importance comes from scale, reliability, and production risk. A device may contain hundreds, thousands, or even tens of thousands of MLCCs depending on its complexity. If the correct capacitor grade is unavailable, production schedules can be delayed even when the major chips are ready.
That is why the MLCC market is no longer only a passive component story. It is becoming a supply-chain reliability story.
According to Strategic Market Research, the Global Multilayer Ceramic Capacitor Market is projected to grow from USD 9.4 billion in 2024 to USD 15.4 billion by 2030, expanding at a CAGR of 6.5%. The deeper market signal is not just rising capacitor consumption. It is the shift from commodity electronics demand toward high-reliability, high-capacitance, miniaturized, automotive-grade, and AI-server-ready MLCCs.
The biggest misconception about MLCCs is that they are simple, interchangeable parts. That may be true for some low-end applications, but it is increasingly false in high-growth electronics.
AI servers need dense power-delivery networks with stable voltage under rapid current swings. EVs need capacitors that tolerate vibration, heat, voltage stress, and long service lives. ADAS systems need components that meet strict reliability requirements. Smartphones and wearables need smaller packages with higher capacitance. Telecom systems need low-loss, high-frequency performance. Medical and industrial equipment need stable availability and long product lifecycles.
This is why the market is splitting into two layers.
The lower layer is commodity MLCC demand, where price, availability, and volume remain important. The higher-value layer is application-specific MLCC demand, where buyers care about reliability, qualification, capacitance density, temperature performance, low ESL, low ESR, voltage stability, and long-term supplier support.
The companies leading the future of MLCCs will not simply be the largest producers by volume. They will be the suppliers that can support the most difficult electronics platforms.
The AI infrastructure boom is changing the MLCC market in a way that is easy to underestimate.
AI servers are built around GPUs, CPUs, memory, accelerators, networking chips, and high-density power architectures. These systems operate under fast load changes and require stable power delivery across multiple voltage rails. MLCCs are used heavily in decoupling and noise suppression because they provide fast response at high frequencies.
The important insight is that AI servers do not only require more MLCCs. They require different MLCCs.
High-capacitance, low-ESL, thermally stable, compact MLCCs are becoming important because board space is limited and power density is rising. Samsung Electro-Mechanics has directly linked its MLCC strategy to AI servers and automotive electronics, noting that advanced AI servers can use more than ten times the MLCCs used in general-purpose servers.
This changes supplier economics. MLCC demand from AI infrastructure is not likely to behave like traditional PC or smartphone demand. It will favor suppliers that can deliver high-capacitance parts in small case sizes, maintain reliability under elevated temperatures, and support dense server power modules.
Taiyo Yuden’s 2025 commercialization of a 22 μF embeddable MLCC in 1005M size for AI server IC power-line decoupling also shows where the market is heading: closer integration, higher capacitance density, and parts designed specifically for AI power architectures.
In the AI era, MLCCs are no longer invisible support parts. They are becoming part of the power-integrity stack.
Automotive electronics is the second major demand force reshaping the MLCC market.
The rise of EVs, ADAS, autonomous driving features, battery management systems, infotainment, radar, lidar, camera modules, onboard chargers, and power-control systems is increasing the number and performance requirements of capacitors inside vehicles.
The key difference between consumer electronics and automotive electronics is consequence.
If an MLCC fails inside a smartphone, the result may be product malfunction or warranty cost. If an MLCC fails inside a safety-critical automotive system, the risk is much greater. This is why automotive-grade MLCCs must meet stricter durability, thermal, vibration, and long-life requirements.
Murata has described modern vehicles as heavily dependent on MLCCs, noting that even a typical engine-driven vehicle without automated driving features can use around 3,000 MLCCs, while advanced battery-electric vehicles with Level 2+ automated driving features can use more than 10,000 MLCCs.
Reuters also reported that TDK sees plug-in hybrid and battery-electric vehicles using 60% and 100% more multilayer ceramic chip capacitors, respectively, than gasoline vehicles.
This is why automotive MLCC capacity matters. EV growth does not only increase semiconductor demand. It increases demand for qualified passive components that can survive harsh environments over long vehicle lifecycles.
MLCC miniaturization has always mattered, but the meaning of miniaturization is changing.
In smartphones, wearables, and compact electronics, miniaturization helps reduce board space. In AI servers and automotive electronics, miniaturization also allows designers to place more capacitance closer to high-performance chips and power devices. That improves power stability and reduces layout constraints.
The market is moving toward a capacitance-density race: more capacitance in smaller packages, with higher voltage tolerance and stronger reliability.
Murata’s recent product updates reflect this direction. The company announced mass production of a 47 μF MLCC in 0402-inch size and introduced a 10 μF/50Vdc MLCC in 0805-inch size for automotive applications. It also introduced a 2.2 μF/100Vdc soft-termination automotive MLCC in 0805-inch size.
These product moves are commercially important because they show how MLCC innovation is no longer just about smaller components. It is about enabling denser and more reliable power designs in constrained layouts.
The companies that can combine smaller size, higher capacitance, higher voltage, and automotive-grade reliability will have a stronger position in premium demand segments.
The MLCC market has a history of supply-demand imbalances. Because MLCCs are used in enormous volumes across many applications, capacity allocation can shift quickly when smartphones, EVs, AI servers, or telecom equipment demand accelerates.
This creates procurement risk.
A component that appears low-cost at the unit level can become production-critical when unavailable. For OEMs and EMS providers, the risk is not simply price volatility. It is line stoppage, redesign cost, qualification delay, and supplier concentration.
The future procurement model for MLCCs will likely become more segmented.
Commodity MLCCs may still be purchased through price-driven sourcing. Automotive, AI server, medical, industrial, and telecom MLCCs will require deeper supplier relationships, lifecycle planning, multi-sourcing strategies, and earlier design involvement.
Buyers will increasingly ask:
Can the supplier guarantee long-term availability?
Can it support automotive or medical qualification?
Can it maintain quality consistency at high volume?
Can it provide parts that meet high-capacitance, low-ESL, high-voltage, or high-temperature requirements?
Can it support redesigns when package sizes shrink?
MLCC sourcing is moving from transactional purchasing toward risk-managed procurement.
A major trend across leading suppliers is the push toward high-reliability MLCC portfolios.
Kyocera AVX offers automotive MLCCs designed to meet or exceed AEC-Q200 requirements, including products with flexible termination systems intended to improve resistance to mechanical and thermal stress.
Yageo’s AI-server-oriented high-capacitance MLCC portfolio also reflects the shift toward application-specific performance. Its HC series includes high-capacitance MLCCs designed for miniaturization, higher voltages, higher frequencies, low ESR, reliability, and server power-design requirements.
Samsung Electro-Mechanics has also emphasized ultra-small, high-capacitance, high-temperature, and high-voltage MLCCs for AI servers and automotive electronics, positioning its portfolio toward high-growth, high-margin applications rather than traditional IT demand alone.
This is the most important competitive shift in the MLCC market: suppliers are trying to reduce exposure to commoditized demand by moving toward difficult applications.
The future of the market will be shaped by who can win the most demanding sockets.
Murata Manufacturing
Murata remains one of the most influential MLCC suppliers because of its strength in miniaturization, automotive-grade quality, high-capacitance development, and broad application coverage. Its recent product announcements show an aggressive push toward smaller packages with higher capacitance and higher voltage ratings, especially for automotive and high-density electronics applications.
Murata’s advantage is not only product breadth. It is process capability. MLCC manufacturing depends on ceramic materials, electrode layering, firing control, termination quality, and defect management. Companies with strong materials and process control can move faster in premium MLCC segments.
Samsung Electro-Mechanics
Samsung Electro-Mechanics is increasingly positioning MLCCs around AI servers and automotive electronics. The company has stated that demand is shifting from traditional IT sectors such as smartphones toward AI servers, xEVs, ADAS, and autonomous driving. It also notes that a single electric vehicle may require approximately 20,000 to 30,000 MLCCs, while advanced AI servers may use more than ten times the MLCCs found in general-purpose servers.
Samsung’s competitive strength lies in ultra-small, high-capacitance MLCCs and its ability to align product development with high-density electronics trends.
TDK Corporation
TDK is a major passive component supplier with strong exposure to automotive electronics, EV systems, sensors, and ceramic capacitors. Reuters reported that automotive accounts for almost a quarter of TDK’s sales and that the company sees plug-in hybrids and battery-electric vehicles using significantly more multilayer ceramic chip capacitors than gasoline vehicles.
TDK’s strategic position is tied to the growing electronic content of vehicles, especially where safety, durability, longevity, and high-reliability passive components become essential.
Taiyo Yuden
Taiyo Yuden is a key supplier to watch in high-capacitance and miniaturized MLCCs, especially as AI server and advanced information-device demand increases. Its 2025 commercialization of a 22 μF MLCC in 1005M size for AI server IC power-line decoupling signals its focus on dense power-delivery applications.
Taiyo Yuden’s positioning is especially relevant as MLCCs move closer to processor power rails and embedded substrate architectures.
Yageo Group / KEMET
Yageo Group has become an important MLCC supplier through its broad capacitor portfolio and its KEMET acquisition legacy. The company’s high-capacitance MLCC products for AI server applications reflect its strategy to serve miniaturized, higher-voltage, high-frequency, and high-reliability electronics designs.
Yageo is especially relevant for buyers seeking broad passive component sourcing across capacitors, resistors, and related components.
Kyocera AVX
Kyocera AVX is positioned strongly in automotive, industrial, high-voltage, RF/microwave, safety-certified, and specialty ceramic capacitor applications. Its automotive MLCC portfolio emphasizes AEC-Q200 qualification and stress-resistant designs, including flexible termination products for harsh operating conditions.
This makes Kyocera AVX particularly relevant in applications where mechanical stress, thermal cycling, and reliability qualification matter more than pure volume.
Vishay Intertechnology
Vishay remains an important passive component supplier with a wide capacitor portfolio serving automotive, industrial, computing, consumer, telecom, military, aerospace, and medical markets. Its strength is breadth and customer access across multiple electronic component categories.
For buyers, Vishay is relevant where capacitor procurement is part of a broader passive and discrete semiconductor sourcing strategy.
Walsin Technology
Walsin Technology is another important MLCC supplier, especially in Asia-based electronics supply chains. Its portfolio includes MLCCs, resistors, inductors, RF filters, protection components, and other passive products. Walsin is relevant for smartphones, networking devices, automotive electronics, industrial equipment, telecom, and energy applications.
The company’s value proposition is tied to broad passive component availability and cost-effective supply for multiple electronics categories.
The MLCC market is not heading toward one single growth path. It is splitting into multiple competitive arenas.
AI-server MLCCs will compete on high capacitance, low ESL, high-frequency decoupling, thermal stability, and compact footprints.
Automotive MLCCs will compete on AEC-Q qualification, high temperature, mechanical stress resistance, lifecycle support, and safety-critical reliability.
Consumer electronics MLCCs will compete on miniaturization, thin profiles, high capacitance, and cost efficiency.
Telecom and networking MLCCs will compete on high-frequency stability, low loss, and reliable performance in dense boards.
Industrial and medical MLCCs will compete on long lifecycle availability, quality documentation, and stable electrical performance.
This fragmentation means the market cannot be understood only through volume growth. The better question is: which applications require MLCCs that are hard to manufacture and hard to substitute?
That is where supplier value will concentrate.
Electronics buyers, OEMs, and procurement teams should watch several signals closely.
First, monitor AI server demand because it can absorb high-capacitance MLCC capacity and affect availability for other applications.
Second, track EV and ADAS adoption because automotive-grade MLCCs require specialized qualification and cannot be easily replaced by standard consumer-grade parts.
Third, watch miniaturization trends because smaller case sizes with higher capacitance can reduce board area but may create design and availability constraints.
Fourth, assess supplier exposure to high-reliability capacity. Not every MLCC producer can support automotive, medical, aerospace, or AI server requirements equally.
Fifth, evaluate lifecycle risk. MLCCs used in vehicles, medical devices, industrial systems, and telecom infrastructure require long-term availability and traceability.
Sixth, watch pricing cycles. MLCC pricing can shift when demand rises in smartphones, AI servers, EVs, or telecom equipment at the same time.
The lesson is clear: MLCC sourcing should be treated as a strategic supply-chain function, not a routine purchasing task.
The Multilayer Ceramic Capacitor market is entering a new phase. The old story was about electronics growth. The new story is about system reliability.
AI servers need stable power delivery. EVs need safety-grade capacitors. Smartphones need miniaturized components. Telecom systems need high-frequency stability. Industrial equipment needs uptime. Medical devices need qualified and traceable parts.
Across all these applications, MLCCs remain small in physical size but large in production consequence.
That is why the market’s future will be shaped by three forces: reliability, density, and availability.
Reliability will matter because more MLCCs are being used in mission-critical systems.
Density will matter because boards are becoming smaller while power requirements are increasing.
Availability will matter because production schedules depend on the right capacitor grade being ready when needed.
The suppliers that can deliver all three will define the next stage of the MLCC market.
Use Strategic Market Research for the market-size paragraph and report scope: the MLCC market is projected to grow from USD 9.4 billion in 2024 to USD 15.4 billion by 2030, at 6.5% CAGR, and leading players include Murata Manufacturing, TDK Corporation, Samsung Electro-Mechanics, Kyocera Corporation, Vishay Intertechnology, and KEMET Corporation.
Use Samsung Electro-Mechanics for AI-server and automotive MLCC demand: Samsung states its MLCC business is expanding from smartphones into AI servers, xEVs, ADAS, and autonomous driving; it also states a single EV requires about 20,000–30,000 MLCCs, and advanced AI servers use more than 10 times the MLCCs found in general-purpose servers.
Use Taiyo Yuden for the AI-server embedded MLCC trend: Taiyo Yuden commercialized and began mass production of a 22 μF MLCC in 1005M size for decoupling on IC power lines used in AI servers and other information devices.
Use Murata for automotive density and miniaturization: Murata says a typical engine-driven vehicle already uses about 3,000 MLCCs, while advanced BEVs with Level 2+ automated driving features can use more than 10,000 MLCCs.
Use Reuters/TDK for EV-driven passive component demand: Reuters reported that TDK sees plug-in hybrid and battery-electric vehicles using 60% and 100% more multilayer ceramic chip capacitors, respectively, than gasoline vehicles, and that automotive accounts for almost a quarter of TDK sales.
Use Murata product news for miniaturization and high-capacitance product signals: Murata’s ceramic capacitor page lists 2025–2026 product developments including a 47 μF MLCC in 0402-inch size, a 10 μF/50Vdc MLCC in 0805-inch size for automotive applications, and a 2.2 μF/100Vdc soft-termination automotive MLCC in 0805-inch size.
Use Kyocera AVX for automotive high-reliability MLCCs: Kyocera AVX states its automotive MLCCs meet or exceed AEC-Q200 requirements, and its FLEXITERM products provide resistance to mechanical and thermal stress.
Use Yageo/Arrow for AI-server MLCC product positioning: Arrow’s technical article notes Yageo’s HC-series MLCCs target AI server demands, with capacitance ranges, compact case sizes, low ESR, high reliability, and harsh-environment operation.
Use Vishay for broad passive-component portfolio positioning across automotive, industrial, computing, consumer, telecom, military, aerospace, and medical markets.
Use Walsin Technology for its broad passive-component and MLCC portfolio covering smartphones, networking devices, automotive electronics, industrial, telecom, and energy applications.