Microphone technique
How to Mic a Pulpit
Quick answer
Aim a pulpit microphone at the mouth from 8 to 10 inches, which on a 12 inch gooseneck means the capsule sits just above the top of the reading surface. That distance is 6 dB hotter than 16 inches and 12 dB hotter than 32 inches, and that margin is the difference between a stable sermon and a ringing one.
The pulpit is the hardest microphone position in most churches and the one most often solved with the wrong purchase. The source moves, looks away to read, leans back to make a point and is replaced every few weeks by a guest who stands at a completely different height. Meanwhile the loudspeakers are typically within 10 to 15 feet and often aimed straight down the centre line, and the pulpit itself is a large hard reflector placed directly under the capsule.
The number that fixes most of this is 8 to 10 inches. Get the capsule there and hold it there and a pulpit becomes an easy channel. Every inch further away costs you, following the inverse square law at 6.02 dB per doubling of distance, and there is no console setting that recovers what the distance takes. Before you buy anything, check what level the room actually needs at the back row with the SPL by distance calculator, because a pulpit microphone in a room whose mains are undersized is being asked to do a job that belongs to the amplifier.
On this page
Gooseneck length decides everything else
The gooseneck is not a styling choice. Its length has to place the capsule 8 to 10 inches below and in front of the mouth of a person standing at the pulpit, which means the length depends on how tall the pulpit is relative to the speaker.
A pulpit whose reading surface sits at chest height needs an 18 inch gooseneck to place the capsule 8 to 10 inches from the mouth, while a tall pulpit at chin height needs only 12 inches.
| Reading surface height | Gooseneck length | Resulting mouth to capsule | Example |
|---|---|---|---|
| Chin height, about 52 to 56 inches | 12 inches | 8 to 10 inches | Shure MX412/S Supercardioid Condenser Microphone, 12" Gooseneck with Attached XLR Preamp, Shock & Flange Mount, Snap-Fit Foam Windscreen |
| Chest height, about 44 to 48 inches | 18 inches | 8 to 11 inches | Shure MX418/C Cardioid Condenser Gooseneck Microphone |
| Low lectern, about 40 inches | 18 inches plus a riser block | 10 to 13 inches | Audio-Technica U857QL Cardioid Condenser Quick-Mount Gooseneck Microphone |
| Adjustable or shared by tall and short speakers | 18 inches, repositioned each service | 8 to 14 inches | Audio-Technica PRO49QL Propoint Gooseneck Microphone |
| Glass or acrylic pulpit with no mounting surface | Desk stand base with an 18 inch neck | 10 to 14 inches | Audio-Technica PRO49QL Propoint Gooseneck Microphone |
Heights assume a speaker of average height standing upright. A pulpit shared by a 5 foot 2 inch reader and a 6 foot 4 inch preacher cannot be optimised for both with a fixed neck, which is the strongest argument for a second microphone on the person rather than on the furniture.
Angle, pattern and the 250 Hz problem
Aim the capsule at the bridge of the nose, not at the mouth. A capsule pointed straight at the lips catches every plosive and every breath, while one aimed slightly above the mouth keeps the on axis response on the voice and lets the blast of a hard consonant pass underneath. Thirty degrees off the mouth axis costs almost nothing in level on a cardioid and removes most of the popping.
Pattern choice is between cardioid and supercardioid, and it depends on where the loudspeakers are. If the mains are in front of and above the pulpit, a cardioid such as the Shure MX418/C Cardioid Condenser Gooseneck Microphone puts its deepest null on them and is the right answer. If there is a floor wedge or a front fill behind and below the pulpit, a supercardioid such as the Shure MX412/S Supercardioid Condenser Microphone, 12" Gooseneck with Attached XLR Preamp, Shock & Flange Mount, Snap-Fit Foam Windscreen rejects better at the 126 degree angle where that wedge actually sits, at the cost of a small rear lobe. Getting this backwards is common and it costs 5 to 8 dB. The angles are laid out in the polar pattern chart.
Then there is the pulpit itself. A solid wooden reading surface a few inches below a cardioid capsule is a boundary, and the reflection off it arrives a fraction of a millisecond after the direct sound. The result is a broad reinforcement somewhere between 180 and 350 Hz that makes the voice sound chesty and boxy and eats gain before feedback. The standard fix is a cut of 4 to 6 dB at around 250 Hz with a Q near 4, plus a high pass filter at 80 to 100 Hz to remove floor rumble and the thump of a hand on the pulpit. Do not high pass a male preaching voice above about 110 Hz or you will remove the weight that made the voice worth reinforcing.
How to set up a pulpit microphone
- Measure the mouth position, not the pulpit. Have somebody stand at the pulpit as they will preach and measure from their mouth down to the top of the reading surface. That distance plus 8 to 10 inches of standoff is the gooseneck length you need. Guessing from the pulpit height alone is how churches end up with a 6 inch neck pointing at a chest.
- Mount through the surface, not on a clamp, where you can. A flange mount through the reading surface is rigid and cannot be knocked out of position by somebody setting down a Bible. A shock mounted flange also isolates the capsule from the thump of a hand on the pulpit, which on a hollow wooden pulpit is worth 15 dB of low frequency noise.
- Aim at the bridge of the nose from about 30 degrees off axis. Not at the lips. This keeps the voice on the useful part of the capsule response while letting plosive blasts pass below it. Thirty degrees off axis costs under 2 dB on a cardioid, which is far less than one pop costs you in the sermon.
- Set the preamp from a real reading voice. A gooseneck condenser on a preaching voice typically wants 45 to 55 dB of gain to land at an average of -18 dBFS. Set it from the quietest reader who will use this pulpit, not from the pastor with the biggest voice, then let the compressor handle the difference.
- High pass at 80 to 100 Hz and cut the boundary bump. The high pass removes floor rumble, HVAC and hand thumps. Then sweep between 180 and 350 Hz for the boxy reinforcement off the reading surface and cut it 4 to 6 dB at a Q around 4. These two moves alone usually return 3 to 4 dB of gain before feedback on a wooden pulpit.
- Compress gently and gate honestly. Around 4 dB of gain reduction at a 2.5 to 1 ratio keeps a preacher who whispers and then shouts inside a usable range. Set the gate threshold about 10 dB below the quietest reading voice, which on a pulpit channel is usually around -45 dBFS, so the channel closes during music without chopping the start of a sentence.
- Ring it out on its own. Mute everything else, raise the master until this channel rings, place up to four narrow cuts, then back off 6 dB. Follow the full procedure in the feedback guide. A pulpit channel that has been rung out individually is the single most reliable channel in most churches.
- Brief every guest speaker in thirty seconds. Show them where the capsule is, tell them to stay within a hand span of it, and tell them it will follow their voice if they stay behind the pulpit. Guests who have preached in a room with an area microphone will instinctively project and step back, and both habits cost you 6 to 12 dB.
Two microphones, and why the second one usually wins
Most churches eventually run both a pulpit gooseneck and a body worn microphone on the preacher, and they mix between them rather than choosing. The gooseneck is the reliable default that always works and never needs a battery. The body worn microphone, whether a lavalier such as the Shure Centraverse CVL Lavalier Condenser Microphone or a headset such as the Shure SM35 Performance Headset Condenser Microphone - TQG, is the one that lets the preacher walk.
The gain difference between them is large and worth stating. A headset boom at about an inch from the corner of the mouth is roughly 18 dB hotter at the capsule than a gooseneck at 8 inches, which is why a headset almost never rings and a pulpit microphone sometimes does. A lavalier at 8 to 10 inches on a lapel is about level with the gooseneck, so it inherits the same margin and adds the risk of clothing rustle and a jacket being buttoned over it. The comparison in full is in lavalier versus headset for preaching, and the wireless options are in best headset microphones for preaching.
Run both channels, gate both, and let the operator ride whichever is in use. Do not run both wide open at the same time: two open microphones on one voice arriving with a path difference of a foot or more cause comb filtering that makes the voice sound thin and hollow, and doubling the open microphone count costs about 3 dB of system gain before feedback for nothing.
What it costs and what to buy first
A complete pulpit channel is not expensive relative to what it does. An Audio-Technica U857QL Cardioid Condenser Quick-Mount Gooseneck Microphone at $239.00 or a Shure MX418/C Cardioid Condenser Gooseneck Microphone at $296.00 covers the microphone, the mount is often included, and the console channel already exists. For a church plant or a portable setup where nothing is mounted permanently, the Audio-Technica PRO49QL Propoint Gooseneck Microphone on a desk stand is the pragmatic answer and costs $129.00.
Spend the money there rather than on processing. A dbx 286s Microphone Processor. channel strip is a reasonable addition on an analogue desk that has no per channel compression, but on any digital console the compressor and the parametric equaliser are already in the channel and are more than good enough. The full field is in best pulpit and lectern microphones, and the role specific version of this page is microphone for a pulpit or lectern.
One caution on used gear. Gooseneck condensers are durable and a secondhand MX or U857 series microphone is usually a sound buy, but check the connector type: a TQG or TA4F terminated microphone is built for a bodypack and will not simply plug into a console XLR without the right adapter. That trap and others are covered in buying used church sound equipment.
Sources
- Shure published specifications for the MX412 and MX418 gooseneck microphones
- Audio-Technica published specifications for the U857QL and PRO49QL gooseneck microphones
- Inverse square law, 6.02 dB per doubling of distance
Frequently asked questions
How far should a pulpit microphone be from the preacher?
Eight to ten inches from the mouth. At that distance the channel has enough gain before feedback to stay stable in almost any sanctuary. Sixteen inches costs 6 dB and 32 inches costs 12 dB, following the inverse square law, and those decibels come straight out of your feedback margin. No amount of equalisation or processing gets them back.
Should a pulpit microphone be cardioid or supercardioid?
Choose by where the loudspeakers are. If the mains are in front of and above the pulpit, a cardioid puts its deepest rejection on them. If there is a monitor wedge or front fill behind and below, a supercardioid rejects better at the roughly 126 degrees where that wedge sits. Getting this the wrong way round typically costs 5 to 8 dB of gain before feedback.
Why does my pulpit microphone sound boxy?
The reading surface is acting as a reflective boundary a few inches under the capsule, and the reflection reinforces a band somewhere between 180 and 350 Hz. Sweep for it and cut 4 to 6 dB at a Q near 4, then high pass at 80 to 100 Hz for rumble. Those two moves usually also return 3 to 4 dB of gain before feedback on a wooden pulpit.
Can one microphone cover both the pulpit and a guest speaker beside it?
No. A gooseneck aimed at the pulpit position is 8 to 10 inches from one mouth and 4 or more feet from anybody standing beside it, which is over 13 dB of difference. The second position needs its own microphone, either another gooseneck or a body worn transmitter. Trying to cover both with one capsule means gaining for the far position and ringing at the near one.
What preamp gain does a gooseneck condenser need?
Typically 45 to 55 dB with 48 volt phantom power engaged, to land at an average of -18 dBFS on a preaching voice. Set it from the quietest person who will read from that pulpit rather than from the loudest preacher, and let a gentle compressor at about 4 dB of gain reduction handle the difference between them.
Is a wireless lavalier better than a pulpit microphone?
It is more flexible and about equal on gain, since a lapel lavalier sits 8 to 10 inches from the mouth just as a well placed gooseneck does. It adds clothing rustle, battery management and frequency coordination. Most churches end up running both and switching between them, which costs one console channel and removes a whole category of Sunday failure.
Researched, not professional advice. This page is compiled from published manufacturer specifications, operator manuals, FCC rules, published standards and owner-review consensus, not hands-on testing. Sound system design, rigging loudspeakers overhead, and any electrical work are jobs for a qualified professional: have flown loudspeakers and their attachment points signed off by a structural engineer or a certified rigger, and have all wiring done by a licensed electrician to your local code. Wireless microphone rules change, so confirm the current FCC position before buying. As an Amazon Associate we earn from qualifying purchases.