Murata Launches World’s First 0805-Size 10µF/50V MLCC for Automotive Applications
Murata Manufacturing Co., Ltd. has announced that mass production has begun for its new GCM21BE71H106KE02 multilayer ceramic capacitor (MLCC). This groundbreaking product is the world’s first MLCC in the compact 0805-inch size (2.0 x 1.25 mm) to deliver a capacitance of 10µF at a rated voltage of 50Vdc. Specifically designed for automotive use, the new MLCC represents a major leap forward in capacitor design by offering high capacitance and voltage in a significantly smaller form factor without compromising on reliability.
The rapid evolution of advanced driver-assistance systems (ADAS) and autonomous driving (AD) technologies is driving the need for more integrated circuits (ICs) within automotive systems. This growing complexity increases the demand for high-capacitance passive components while intensifying the challenge of fitting more parts into increasingly limited PCB space.
Engineered for 12V automotive power lines, the GCM21BE71H106KE02 MLCC utilizes Murata’s proprietary ceramic materials and thinning technologies to address these challenges. By enabling a reduction in both PCB footprint and the overall number of capacitors required, the new MLCC helps designers create more compact, efficient, and reliable vehicle electronics.
In terms of performance, the GCM21BE71H106KE02 offers approximately 2.1 times the capacitance of Murata’s previous 4.7µF/50V MLCC — all within the same 0805-inch size. Compared to the conventional 10µF/50V MLCC housed in a larger 1206-inch package (3.2 x 1.6 mm), the new component delivers an impressive 53% space reduction, making it ideal for dense automotive circuit designs.
Murata remains committed to advancing the miniaturization and performance of MLCCs. The company continues to expand its automotive-grade product lineup to support the industry’s shift toward more multifunctional and high-performance vehicles. Additionally, by shrinking component size and optimizing manufacturing efficiency, Murata aims to reduce material use, lower energy consumption at production sites, and minimize environmental impact.