beyerdynamic MC 930 (2023) Micrófono de estudio de condensador

Capturing the subtle nuances of acoustic instruments and vocals in the studio can be challenging without a microphone that offers both clarity and low self-noise. The beyerdynamic MC 930 (2023) is a true condenser microphone designed to deliver transparent, detailed sound with a cardioid pattern that focuses on the source while rejecting off-axis noise.

Who is it for

This microphone is ideal for studio engineers, producers, and musicians who need a reliable, high-quality condenser microphone for recording acoustic guitars, pianos, drum overheads, choirs, and solo vocals. Its low self-noise and high SPL handling make it versatile for both delicate and loud sources.

Main features

• True condenser capsule with back electret design for consistent performance
• Cardioid polar pattern reduces feedback and ambient noise
• Wide frequency response from 40 Hz to 20 kHz for natural sound reproduction
• High maximum SPL of 140 dB allows close miking of loud instruments
• Low equivalent noise level of 23 dB (A-weighted) captures quiet passages without hiss
• Rugged metal housing built for studio and live use
• Standard 3-pin XLR connector for compatibility with professional audio equipment
• Operates on 11-52 V phantom power

Specifications

• Transducer type: Condenser (back electret)
• Operating principle: Pressure gradient
• Polar pattern: Cardioid
• Frequency response: 40 Hz - 20 kHz
• Open circuit voltage: 30 mV/Pa (-30.5 dBV)
• Nominal impedance: 180 Ω
• Load impedance: ≥ 1 kΩ
• Maximum SPL: 140 dB (at 1 kHz)
• Signal-to-noise ratio: 71 dB (A-weighted)
• Equivalent SPL: 23 dB (A-weighted)
• Power supply: 11 - 52 V phantom power
• Current consumption: 4.7 mA
• Connector: 3-pin XLR male
• Housing material: Metal

Tips

For best results, use a high-quality microphone preamp with phantom power. Position the microphone 15-30 cm from the sound source, angled slightly off-axis to reduce plosives and sibilance. Always use a shock mount to isolate the microphone from mechanical vibrations.