Condenser VS Dynamic Microphone

Condenser VS Dynamic Microphone

Condenser VS Dynamic Microphone

Most of the time, we hear the terms “condenser microphones” and “dynamic microphones” in live sound and studio environments. We also often hear people say that condenser or dynamic microphones are only suitable for use in certain circumstances. Is this really the case? Are there any distinct differences between these two microphones? Let’s explore this topic in this article.

First, we must understand that the two microphones operate differently. In fact, there’s no “one mic fits all” theory in real world environment. Both mic can be used in studio or live sound environment depending on the type of application. All microphones are electro-acoustic transducers that convert acoustical energy into electric energy.

Operating Principle

Condenser Microphone

Front%20Plate%20(Diaphragm)

This type of microphone is also known as a “capacitor microphone” or “electrostatic microphone”. A capacitor is basically a passive electrical component that stores electrical energy. The structure of a condenser microphone usually includes an extremely thin diaphragm (some less than 5 microns), a backplate, a battery, and a resistor. The built-in material of the thin diaphragm has to be electrically conductive and usually uses a thin metal foil or Mylar coated with gold or aluminium (known as gold sputtered mylar).

To operate a condenser microphone, a DC voltage is required which supplied by the internal battery or phantom power line. The voltage required could vary from 24V-48V depending on the microphone. Some audio interfaces or sound mixers do have built-in 48V phantom power to support any condenser microphone. Condenser microphone usually has higher transducer impedance comparing to dynamic. That’s why it needs phantom power drive the output of the signal. As sound waves hit the diaphragm, it vibrates the diaphragm against the charged metal backplate behind it to convert acoustic energy to electrical energy.

 

Dynamic Microphone

Dynamic%20Mic%20Structure

The dynamic microphone has a different structure and operates differently compared to the condenser microphone. It is also known as a moving coil microphone. Most handheld microphones are dynamic microphones. Unlike condenser microphones, the dynamic microphone relies on electromagnetism, whereas the condenser microphone relies on variable capacitance. The structure of a dynamic microphone consists of a diaphragm, a coil, and a magnet. Whenever the sound wave hits the diaphragm, the coil vibrates within the magnetic field and creates an electrical current. Most of the time, since the transducer impedance of dynamic microphones is relatively low, they only require 5V power to operate.

Characteristics

Condenser Microphone

AKG%20P120

A condenser microphone usually has natural tonality, higher sensitivity, wider frequency response, faster transient response, better clarity, and lower noise as compared to a dynamic microphone. Therefore, it is highly appropriate to record any application such as vocals, guitar, piano, violin, saxophone, or room ambience where clear and detailed characteristics are required, especially in a studio. When using a condenser microphone, it’s also important to pay attention to how the room sounds. A well acoustically treated room will elevate your recording quality effectively.

Dynamic Microphone

A dynamic microphone is capable in capturing high SPL sound source comparing to a condenser microphone. This is relatively important when recording louder sound source such as snare drum and toms, brass instrument, loud vocal, keyboards, guitar amplifiers and so on. Although dynamic microphones can sometimes be used in a studio, they are mostly used in live sound environments due to their low sensitivity in capturing ambience noise and higher gain threshold.

 

Condenser MicrophoneDynamic Microphone
Working PrincipleVariable CapacitanceElectromagnetism
Tonality
Natural, Wide and Flat Frequency Response, Warm, DetailedRough, Emphasize On Low & Mid Frequency Response, Less Sibilance & Clarity
Power RequiredPhantom Power Required (24V – 48V)No Phantom Power Required (5V)
Transducer ImpedanceHigherLower
Polar Pattern
Can Have Multi-Polar PatternOnly One Polar Pattern
Self NoiseLowerHigher
Transient Response
HigherLower
Sensitivity to Ambience Noise
HigherLower
Capability to Sustain Greater Sound PressureLowerHigher
Capability to Handle Humidity
LowerHigher
Usage
Studio RecordingLive Sound

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