Passive Components Blog
No Result
View All Result
  • Home
  • NewsFilter
    • All
    • Aerospace & Defence
    • Antenna
    • Applications
    • Automotive
    • Capacitors
    • Circuit Protection Devices
    • electro-mechanical news
    • Filters
    • Fuses
    • Inductors
    • Industrial
    • Integrated Passives
    • inter-connect news
    • Market & Supply Chain
    • Market Insights
    • Medical
    • Modelling and Simulation
    • New Materials & Supply
    • New Technologies
    • Non-linear Passives
    • Oscillators
    • Passive Sensors News
    • Resistors
    • RF & Microwave
    • Telecommunication
    • Weekly Digest

    When More Capacitance Hurts Reliability: The Role of the Metallic Skeleton in Tantalum Anodes

    Why Power Inductors Use a Ferrite Core With an Air Gap

    Wk 16 Electronics Supply Chain Digest

    YAGEO Introduces High‑Current Y2/X1 Film Capacitors for Wide-bandgap Power Systems

    Amphenol Explanded Liquid Cooling Connectors for AI, ESS and EV Systems

    Hirose Introduced BGA connector for PCIe Gen6 for AI and Edge Computing

    YAGEO Introduces High Rel MLCCs Beyond MIL-Spec Limits

    Würth Elektronik Expanded Capacity for Validation and Services in Asia

    Samsung Introduces Ultra-High-Voltage 1500 V MLCCs for xEV Powertrains

    Trending Tags

    • Ripple Current
    • RF
    • Leakage Current
    • Tantalum vs Ceramic
    • Snubber
    • Low ESR
    • Feedthrough
    • Derating
    • Dielectric Constant
    • New Products
    • Market Reports
  • VideoFilter
    • All
    • Antenna videos
    • Capacitor videos
    • Circuit Protection Video
    • Filter videos
    • Fuse videos
    • Inductor videos
    • Inter-Connect Video
    • Non-linear passives videos
    • Oscillator videos
    • Passive sensors videos
    • Resistor videos

    Why Power Inductors Use a Ferrite Core With an Air Gap

    Transformer-Based Power-Line Harvester Magnetic Design

    Thermal Modeling of Magnetics

    Standard vs Planar LLC transformers Comparison for Battery Chargers

    How Modern Tools Model Magnetic Components for Power Electronics

    Advanced Loss Modeling for Planar Magnetics in the Frenetic Planar Tool

    2026 Power Magnetics Design Trends: Flyback, DAB and Planar

    Enabling Software‑Defined Vehicle Architectures: Automotive Ethernet and Zonal Smart Power

    Calculating Resistance Value of a Flyback RC Snubber 

    Trending Tags

    • Capacitors explained
    • Inductors explained
    • Resistors explained
    • Filters explained
    • Application Video Guidelines
    • EMC
    • New Products
    • Ripple Current
    • Simulation
    • Tantalum vs Ceramic
  • Knowledge Blog
  • DossiersNew
  • Suppliers
    • Who is Who
  • PCNS
    • PCNS 2025
    • PCNS 2023
    • PCNS 2021
    • PCNS 2019
    • PCNS 2017
  • Events
  • Home
  • NewsFilter
    • All
    • Aerospace & Defence
    • Antenna
    • Applications
    • Automotive
    • Capacitors
    • Circuit Protection Devices
    • electro-mechanical news
    • Filters
    • Fuses
    • Inductors
    • Industrial
    • Integrated Passives
    • inter-connect news
    • Market & Supply Chain
    • Market Insights
    • Medical
    • Modelling and Simulation
    • New Materials & Supply
    • New Technologies
    • Non-linear Passives
    • Oscillators
    • Passive Sensors News
    • Resistors
    • RF & Microwave
    • Telecommunication
    • Weekly Digest

    When More Capacitance Hurts Reliability: The Role of the Metallic Skeleton in Tantalum Anodes

    Why Power Inductors Use a Ferrite Core With an Air Gap

    Wk 16 Electronics Supply Chain Digest

    YAGEO Introduces High‑Current Y2/X1 Film Capacitors for Wide-bandgap Power Systems

    Amphenol Explanded Liquid Cooling Connectors for AI, ESS and EV Systems

    Hirose Introduced BGA connector for PCIe Gen6 for AI and Edge Computing

    YAGEO Introduces High Rel MLCCs Beyond MIL-Spec Limits

    Würth Elektronik Expanded Capacity for Validation and Services in Asia

    Samsung Introduces Ultra-High-Voltage 1500 V MLCCs for xEV Powertrains

    Trending Tags

    • Ripple Current
    • RF
    • Leakage Current
    • Tantalum vs Ceramic
    • Snubber
    • Low ESR
    • Feedthrough
    • Derating
    • Dielectric Constant
    • New Products
    • Market Reports
  • VideoFilter
    • All
    • Antenna videos
    • Capacitor videos
    • Circuit Protection Video
    • Filter videos
    • Fuse videos
    • Inductor videos
    • Inter-Connect Video
    • Non-linear passives videos
    • Oscillator videos
    • Passive sensors videos
    • Resistor videos

    Why Power Inductors Use a Ferrite Core With an Air Gap

    Transformer-Based Power-Line Harvester Magnetic Design

    Thermal Modeling of Magnetics

    Standard vs Planar LLC transformers Comparison for Battery Chargers

    How Modern Tools Model Magnetic Components for Power Electronics

    Advanced Loss Modeling for Planar Magnetics in the Frenetic Planar Tool

    2026 Power Magnetics Design Trends: Flyback, DAB and Planar

    Enabling Software‑Defined Vehicle Architectures: Automotive Ethernet and Zonal Smart Power

    Calculating Resistance Value of a Flyback RC Snubber 

    Trending Tags

    • Capacitors explained
    • Inductors explained
    • Resistors explained
    • Filters explained
    • Application Video Guidelines
    • EMC
    • New Products
    • Ripple Current
    • Simulation
    • Tantalum vs Ceramic
  • Knowledge Blog
  • DossiersNew
  • Suppliers
    • Who is Who
  • PCNS
    • PCNS 2025
    • PCNS 2023
    • PCNS 2021
    • PCNS 2019
    • PCNS 2017
  • Events
No Result
View All Result
Passive Components Blog
No Result
View All Result

Samsung Electro-Mechanics Unveils the World’s Highest Capacitance MLCC for EVs

18.5.2023
Reading Time: 3 mins read
A A

Samsung Electro-Mechanics announced it has succeeded in realizing the industry’s highest capacitance at high voltage MLCC ceramic capacitors applicable to electric vehicles and expanding its line-up for high-end level automotive electronic components.

The released MLCCs have been developed specifically with focus to EV electrical vehicle applications with 250V and 100V ratings and 125°C temperature range.

RelatedPosts

Samsung Introduces Ultra-High-Voltage 1500 V MLCCs for xEV Powertrains

Samsung Presents MLCC Selection Guide for Humanoids and Robotic Applications

Samsung Introduces 35V MLCCs Flying Capacitors for USB PD Fast Charging

  • 33nF/250V in 1206/3216 case size (CL31C333JEH1PN#) in C0G class is featuring low capacitance change rate and stable performance in wide temperature range.
  • 10µF 100V in 1210/3225 size X7S dielectric class (CL32Y106KCJ6PJ) is offering industry’s highest capacitance in high-voltage MLCCs. 

Electric vehicles operate based on high-voltage battery systems such as battery management systems (BMS) and on-board chargers (OBC). MLCCs used in electric vehicles must be able to withstand the high output voltages transmitted from the battery for ultra-fast charging and power delivery.

The 250V class 33nF product developed this time boasts the highest capacitance in the industry at the same voltage level. 22nF was the highest capacitance for the existing 250V class products. This product improves battery stability by removing high-frequency noise inside the battery module while having the durability to withstand high voltages.

The 100V class 10µF product is used in LED headlamps for electric vehicles and its electric capacitance has been doubled compared to the previous product. Semiconductors used in LED headlamps require high power consumption, so high-capacitance MLCCs that can store a lot of energy and supply it to semiconductors quickly and stably while having high voltage durability are essential.

In general, it is difficult for MLCCs to satisfy both voltage and capacitance characteristics at the same time. Designing thicker dielectrics to increase voltage characteristics reduces the number of internal electrodes that can be stacked, making it difficult to increase capacitance. Samsung Electro-Mechanics has realized high capacitance by refining dielectrics as core raw material in the form of nano-level fine powder. The company also explained that its proprietary surface coating method minimizes agglomeration between powders, enabling stable operation at high voltages.

Meanwhile, the MLCCs developed this time satisfies AEC-Q200, a reliability test standard for automotive electronic components, enabling them to be used in other applications such as ADAS, body, chassis, and infotainment in vehicles.

Samsung Electro-Mechanics CEO Chang Duckhyun said that “Samsung Electro-Mechanics has established the whole line-up for automotive MLCC by developing electric vehicle products,” and that “Samsung Electro-Mechanics will develop and manufacture core raw materials for MLCCs on its own to enhance technological competitiveness, and expand its market share for electronic device MLCCs by internalizing facilities and strengthening production capacity.”

Automotive MLCCs play a role similar to MLCCs for IT, but they are used in different environments than that of IT products, and above all, they require a high level of reliability and durability as they are closely related to human lives. Automotive MLCCs must operate reliably even in extreme environments such as high temperatures (150°C or higher) and low temperatures (55°C below zero), situations where impacts are delivered including bending stiffness, and high humidity (humidity of 85%). In addition, they can be supplied only after passing stringent manufacturing standards that require AEC-Q200 certification, which is a reliability test specification for automotive electronic components (certification specifications for passive components for automobiles), and rigorous verification by each customer. At least 3,000 to a maximum of 15,000 MLCCs are used in an automobile, and they are high value-added products with higher unit prices than IT products. In addition, with the expansion of related markets such as electrification of automobiles, electric vehicles, and autonomous vehicles, automotive MLCCs are considered to be a blue ocean in the industry. The global automotive MLCC market size is expected to continue growing by nearly 40% per year from USD 2.9 billion in 2023 to USD 4 billion by 2026.

Related

Source: Samsung Electro-Mechanics

Recent Posts

When More Capacitance Hurts Reliability: The Role of the Metallic Skeleton in Tantalum Anodes

20.4.2026
13

YAGEO Introduces High‑Current Y2/X1 Film Capacitors for Wide-bandgap Power Systems

17.4.2026
12

YAGEO Introduces High Rel MLCCs Beyond MIL-Spec Limits

16.4.2026
38

Samsung Introduces Ultra-High-Voltage 1500 V MLCCs for xEV Powertrains

16.4.2026
20

YAGEO Q1 2026 Results: AI Servers and Pricing Power Behind a Moderate Q2 Outlook

16.4.2026
58

YAGEO Releases Ferrite Shielded Power Inductors for High‑Density Designs

15.4.2026
14

Samsung Presents MLCC Selection Guide for Humanoids and Robotic Applications

15.4.2026
24

AI-Assisted Structural Diagnostics and Physics-Based Reliability Interpretation of Tantalum Capacitor Anodes

14.4.2026
31

KYOCERA AVX MIL-PRF-32535 BME NP0 MLCCs Approved to the DLA QPD

16.4.2026
28

Upcoming Events

Apr 21
16:00 - 17:00 CEST

Heatsink Solutions: Thermal Management in electronic devices

Apr 22
17:00 - 17:30 CEST

Magnetics in a high frequency GaN era

Apr 22
17:00 - 18:00 CEST

Derating Tantalum, Film, and Ceramic Capacitors

View Calendar

Popular Posts

  • Buck Converter Design and Calculation

    0 shares
    Share 0 Tweet 0
  • Boost Converter Design and Calculation

    0 shares
    Share 0 Tweet 0
  • Flyback Converter Design and Calculation

    0 shares
    Share 0 Tweet 0
  • LLC Resonant Converter Design and Calculation

    0 shares
    Share 0 Tweet 0
  • Dual Active Bridge (DAB) Topology

    0 shares
    Share 0 Tweet 0
  • MLCC and Ceramic Capacitors

    0 shares
    Share 0 Tweet 0
  • Capacitor Charging and Discharging

    0 shares
    Share 0 Tweet 0
  • Plastic Materials Dielectric Constant and DF

    4 shares
    Share 4 Tweet 0
  • Ripple Current and its Effects on the Performance of Capacitors

    3 shares
    Share 3 Tweet 0
  • MLCC Case Sizes Standards Explained

    0 shares
    Share 0 Tweet 0

Newsletter Subscription

 

Passive Components Blog

© EPCI - Leading Passive Components Educational and Information Site

  • Home
  • Privacy Policy
  • EPCI Membership & Advertisement
  • About

No Result
View All Result
  • Home
  • Knowledge Blog
  • PCNS

© EPCI - Leading Passive Components Educational and Information Site

This website uses cookies. By continuing to use this website you are giving consent to cookies being used. Visit our Privacy and Cookie Policy.
Go to mobile version