Blue Yeti on a USB-C iPad: does it just work?
Electrically yes: the iPad's port supplies 7.5 W and the microphone is class-compliant. What no app can change is the converter inside it — 16 bit, 48 kHz, and that decides how you should set the gain.
Signal Chain Compatibility Matrix
Select gear and parameters for live gain, impedance and SPL calculations.
Input Equipment Setup
PASS: Optimal Signal Chain
Requires minimum +60dB of clean pre-amp gain. Most budget entry interfaces max out at +50dB to +56dB and introduce hiss at max pot. An inline preamp booster (Cloudlifter CL-1 / FetHead) is strongly recommended.
The interface preamp provides sufficient headroom.
$538
$405
-25%Tonal & acoustic characteristics: Flat, wide-range frequency response for clean music and speech. Smooth, warm acoustic character with air-suspension shock isolation.
Technical advisory: With +69dB max gain, the Gen 4 Solo can drive demanding dynamics like the Shure SM7B natively without requiring an external inline booster.
Physical Interconnect Topology
Shure SM7B
Direct Cable Connection (No Intermediate Box)
1x Shielded Balanced XLR Cable (3-Pin XLR Male to XLR Female)
Focusrite Scarlett Solo (Gen 4)
Host: Apple MacBook Pro (M1/M2/M3/M4)
Short answer: yes, it works, and it needs no adapter beyond the right cable. The interesting part is not whether it connects but what it records.
The Yeti is a class-compliant USB device: iPadOS recognises it without drivers. It is bus-powered, and this database gives a USB-C iPad port 7.5 W — far more than a USB microphone draws, so no powered hub is required. Depending on which Yeti you have, the cable is USB-C to USB-C or Mini-USB to USB-C; a Lightning iPad needs Apple's camera adapter instead, and that is where powered hubs start to matter.
What you cannot change is what is inside. The Yeti carries its own preamp and its own converter, and that converter is 16 bit at 48 kHz. The gain knob on the back is analogue and sits in front of it.
The consequence almost no guide draws: an app set to 24 bit gets 16 bits of actual information padded into a 24-bit file. The extra bits come from the software, not from the microphone. Which makes the standard advice — "record conservatively at −18 dBFS and normalise later" — specifically wrong for this microphone. That advice exists because 24-bit interfaces have bits to spare; a 16-bit converter does not. Every 6 dB of unused headroom is one real bit discarded, and normalising afterwards amplifies the quantisation noise you created.
With a Yeti, set the analogue knob so that your loudest peaks land near −6 dBFS and watch them rather than trusting a target number. You lose the safety margin that −18 dBFS buys, so do a test take — but you keep the resolution, which you cannot get back later.