seemed reasonable what he explained. he could have explained better tho.
ps
transient response
is not that hard to understand
"The response in time of a control system is usually divided into two parts: the transient response and the steady-state response. Let
y (t) be the response of a system in continuous time, then:
where
yt (t) is the transient response, while
yss (t) is the steady state response.
The transient response of a control system is important since both its amplitude and its duration must be kept within tolerable or prescribed limits. It is defined as the part of the response in time that tends to zero when the time becomes very large. Thus,
All real stable control systems present a transient phenomenon before reaching the steady state response
....
In specifying the transient-response characteristics of a control system to a unit-step input, it is common to specify the following parameters associated with the underdamped response:
- Delay time, Td
- Rise time, Tr
- Peak time, Tp
- Percent overshoot (%OS) or Maximum overshoot (Mp)
- Settling time, Ts
These specifications are defined as follows:
Delay time (Td): it is the time required for the response to reach half the final value the very first time.
Rise time (Tr): it is the time required for the response to rise from 10% to 90%. In other words, to go from 0.1 of the final value to 0.9 of the final value.
Peak time (Tp): it is the time required for the response to reach the first peak of the overshoot.
Maximum overshoot (Mp): it is the maximum peak value of the response curve measured from unity. It is also the amount that the waveform overshoots the final value, expressed as a percentage of the steady-state value.
Settling time (Ts): it is the time required for the transient damping oscillations to reach and stay within ±
2% or ±
5% of the final or steady-state value.
"
And here is my AI bro to explain why is it imporant:
--
Great transient response in studio monitors is crucial for mixing because it accurately reproduces the sudden, sharp attacks of sounds (like drum hits, guitar picks), revealing their true character, impact, and dynamics, which helps mixers make precise EQ, compression, and timing decisions for a mix that sounds clear, punchy, and professional on any system, preventing muddiness or loss of detail.
Why it matters for mixing:
- Accuracy in dynamics: It shows you if a snare hit is sharp or dull, or if a bass note has a tight, fast attack or a muddy, lingering tail.
- Reveals instrument character: The very first moments (the transient) define an instrument's timbre (e.g., a flute vs. a guitar), letting you hear its true voice.
- Effective processing: You can accurately set attack/release times on compressors and EQ to shape sounds without making them sound smeared or lifeless.
- Mix clarity & punch: Handles the "start and stop on a dime" nature of sounds, making rhythmic elements more dramatic, expressive, and giving the mix energy and perceived width.
- Identifies problems: Reveals if your mix sounds bloated or lacks definition on your monitors, indicating issues that need fixing before they translate poorly.
What happens with poor transient response:
- Muffled/Bloated Sound: Fast sounds get smeared, losing their initial impact, making the mix sound unclear and sluggish.
- Loss of Detail: You miss crucial information about performance and articulation, leading to less impactful mixing decisions.
- Inaccurate Processing: You might over-compress or EQ incorrectly because the monitors aren't accurately showing you the sound's true, quick changes.
In short, monitors with great transient response act like a high-speed camera for sound, letting mixers see and shape the essential details that make music feel alive and powerful.