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The EBMS322513A520 is a multilayer ferrite chip bead from the Max Echo EBMS series, designed for noise suppression in electronic circuits. It operates within a temperature range of -55°C to 125°C and utilizes an 1210 (3225 Metric) surface mount package with a maximum height of 0.035 inches (0.90 mm). The component provides an impedance of 52 Ohms at 100 MHz, supports a maximum current rating of 400 mA, and features a maximum DC resistance of 300 mOhm.
Verify the specific impedance tolerance and DC resistance values against the official Max Echo datasheet prior to procurement. Confirm that the 1210 package dimensions align with your PCB footprint requirements. Ensure the selected component meets the required operating temperature range of -55°C to 125°C for your specific environmental conditions. Cross-reference the part number with authorized distributors to ensure authenticity and traceability.
Select this component when designing circuits requiring noise attenuation at 100 MHz with moderate current handling capabilities. Consider the 300 mOhm DC resistance impact on voltage drop if used in low-voltage power paths. Evaluate the physical size constraints of the 1210 package against available board space. Compare performance characteristics with alternative ferrite beads if higher current ratings or different impedance profiles are necessary for the application.
This component belongs to the EBMS series of multilayer ferrite chip beads manufactured by Max Echo Technology Corp. The series is engineered for noise suppression across various frequency bands in modern electronic devices. Max Echo specializes in multilayer chip inductors and ferrite components, providing solutions for electromagnetic interference management in compact form factors suitable for surface mount technology.
Consult official substitution guides for compatible ferrite beads with similar impedance and current ratings. Verify that any substitute component matches the 1210 package dimensions and thermal specifications. Ensure the replacement maintains equivalent noise suppression performance at target frequencies.