Daniel sent us this one — he picked up a clip-on speaker for listening to podcasts while looking after Ezra, and got curious about something most people never think about. He started experimenting with clipping it onto different surfaces, different angles, different positions around the room, and realized that even tiny changes made a noticeable difference to how the audio sounded. So the question is, if you're using just one speaker, what's actually the optimal placement, and what are all these position changes doing to the sound? It's one of those things where the answer turns out to be way more interesting than you'd expect.
It really does. And the clip-on speaker is actually the perfect laboratory for this, because it removes all the friction. You don't have to move furniture or buy stands or run cables. You just unclip it and clip it somewhere else. That ease of experimentation is genuinely valuable.
The cockroach of personal audio, as I believe I've said before. Surviving in niches nothing else can occupy.
So let's start with the fundamental thing that most people get wrong about speaker placement. The single biggest variable isn't distance, and it isn't height exactly. It's the relationship between the speaker and your ears, specifically whether the speaker is on-axis or off-axis relative to your listening position.
On-axis meaning pointed directly at you.
Imagine a line coming straight out of the speaker driver, perpendicular to the front face. That's the on-axis line. When your ears are on that line, you're hearing the speaker's intended frequency response. The manufacturer designed and measured that speaker pointing straight at the listening position.
Off-axis is everything else.
And here's where it gets interesting. When you move off-axis, different frequencies behave differently. High frequencies are very directional. They travel like a beam. If you're thirty degrees off-axis, you might lose a significant amount of treble — above eight kilohertz starts dropping off noticeably. But bass frequencies are omnidirectional. They radiate in all directions pretty much equally.
Off-axis listening is basically a built-in treble cut.
It's a physical equalizer. And that's not always bad. If you've got a bright, harsh-sounding speaker, listening slightly off-axis can actually smooth it out and make it more pleasant. But if you want accuracy, if you want to hear what the recording actually sounds like, you want to be on-axis.
Which brings us to the first rule of single-speaker placement. Point it at your head.
Point it at your head. That's the starting point. But then the question becomes, where is your head, and what's around it?
Daniel mentioned clipping it to the light above his bed, and to the side. Those are very different acoustic environments.
If the speaker is above your head and pointed down at you, you're getting direct on-axis sound, which is good. But you're also introducing a very short reflection path off the ceiling, because the speaker is right next to it. Sound radiates from the speaker in all directions, hits the ceiling almost immediately, and bounces down to your ears a fraction of a millisecond after the direct sound.
Is that bad?
It's complicated. Very short reflections, under about two milliseconds, are generally perceived by the brain as part of the direct sound. They don't create a sense of space or echo. But they can cause something called comb filtering.
That sounds made up.
It sounds like a hair salon for audio engineers, but it's real. Comb filtering happens when a direct sound and a delayed reflection combine at your ear. At some frequencies, the direct wave and the reflected wave arrive in phase, reinforcing each other and creating a peak. At other frequencies, they arrive out of phase and partially cancel, creating a dip. If you plotted the frequency response, it would look like a comb, with regular peaks and dips spaced across the spectrum.
This is happening with a podcast voice.
It's happening with everything. With speech, you might not consciously notice the frequency response anomalies, but you'll perceive it as a slight coloration, a kind of boxiness or hollowness. The voice sounds like it's coming from inside something.
Which it is. It's coming from inside the comb.
The metaphorical comb. Now, in practice, with a small clip-on speaker and a podcast, this is subtle. We're not talking about a high-end studio monitoring setup. But it's one of those things where once you hear it, you can't unhear it. And it explains why moving the speaker from above the bed to the side of the bed changes the sound. You've changed the reflection pattern entirely.
What's the ideal? If you're in bed, listening to a podcast on a single clip-on speaker, where do you put it?
The ideal is roughly ear level, on-axis, with some distance from nearby surfaces. So if you can clip it to a headboard, or a nightstand, or even the edge of a pillow, positioned so it's pointing at your ears and not pressed right up against a wall, that's going to give you the cleanest direct sound with the least destructive interference.
What if you can't do that? What if your setup doesn't allow for ideal placement?
Then you make informed trade-offs. If the speaker has to be against a wall, you're going to get what's called boundary reinforcement. When a speaker is placed near a boundary — a wall, a floor, a ceiling — the sound that would have radiated into the space behind or beside the speaker instead gets reflected forward. At low frequencies, this can add up to six decibels of boost per boundary.
Against a wall is plus six decibels in the bass.
In a corner, where you've got two walls, it's more like twelve. In a tri-corner, the junction of two walls and the floor or ceiling, you can get up to eighteen decibels of bass boost.
Eighteen decibels is a lot.
It's a huge amount. That's the difference between background music and a thumping party. And for a clip-on speaker, which typically has a very small driver and not much bass to begin with, boundary reinforcement can actually be useful. If you want a fuller sound from a tiny speaker, putting it in a corner or against a wall can fill out the low end in a way that sounds pleasing.
For a podcast, you might not want that.
For speech, too much bass boost can make voices sound muddy, boomy, less intelligible. The frequency range that matters most for speech intelligibility is roughly between two hundred hertz and six thousand hertz, with the critical consonant sounds living around two to four kilohertz. Adding a big bass bump from corner placement doesn't help you understand words better. It just makes everything sound like a radio announcer from nineteen seventy-two.
The golden age of excessive proximity effect.
And that's another factor here. Proximity effect is something that happens with directional microphones, but here we're talking about the inverse. You're the microphone now. Your ears are the microphone. If the speaker is very close to your head, you get more direct sound relative to reflected sound, which is good for clarity. But you also lose any sense of space or ambience.
There's a sweet spot, then. Not too close, not too far, not too high, not too low, not against a wall unless you want the bass bump.
That sweet spot depends on the room, the speaker, and what you're listening to. But the general principle is: ear level, on-axis, arm's length away, away from boundaries. That's your baseline. Then you adjust from there based on what you hear.
Let's talk about what's actually happening physically when you angle a speaker. Daniel mentioned experimenting with position, clipping it to different things. What changes when you tilt a speaker up versus down versus sideways?
We talked about on-axis versus off-axis horizontally. But it applies vertically too. Most speaker drivers have what's called a dispersion pattern. A typical cone driver has wider dispersion at low frequencies and increasingly narrow dispersion as frequency goes up.
The higher the note, the more laser-like it becomes.
A cymbal crash, sibilance in a voice, the air frequencies above ten kilohertz — those are beaming out in a relatively narrow cone. If your ears aren't in that cone, you're not hearing them. So when you tilt a speaker, you're aiming that cone. Point it at your face, you get the full frequency range. Point it at your chest, you lose the highs.
Which for a podcast might actually be pleasant, if the host has a sibilant voice.
Or if the recording is harsh. A slight off-axis tilt can be a very effective de-esser. It's the poor man's audio processing. But here's the thing about a clip-on speaker specifically. Because the driver is tiny, the dispersion pattern is actually wider than a larger speaker at the same frequencies. Small drivers have wider dispersion. So a clip-on speaker is more forgiving of placement than a bookshelf speaker would be.
That's counterintuitive. You'd think the tiny speaker would be more finicky.
It's the opposite. A large woofer, like an eight-inch driver, starts beaming at a relatively low frequency. By the time you get to the upper midrange, it's acting like a spotlight. That's why hi-fi speakers have multiple drivers — a small tweeter for the highs, a larger woofer for the lows, and a crossover circuit to divide the signal between them. The small tweeter maintains wide dispersion up to the highest frequencies. A single tiny full-range driver, like what's in a clip-on speaker, has naturally wide dispersion across most of its range.
The clip-on is more idiot-proof.
More placement-proof, let's say. But not entirely immune. You still want to point it roughly at your ears.
What about the surface you clip it to? Daniel mentioned clipping it to a light. That's a hard surface. What if you clip it to something soft?
This is where it gets really interesting. The surface you attach a speaker to becomes part of the speaker system. It's called baffle loading. When a speaker driver moves, it radiates sound forward and backward. The backward radiation is out of phase with the forward radiation. If the driver is mounted in a baffle — a flat panel — the baffle separates the front wave from the back wave, preventing them from canceling each other out.
The thing you clip onto is the baffle.
It becomes the baffle. If you clip onto a large hard surface, like a wooden headboard, that surface acts as a baffle extension. It reinforces the low frequencies and prevents front-to-back cancellation. If you clip onto something small and acoustically transparent, like a thin fabric lampshade, you get very little baffle effect. The sound wraps around and cancels more at low frequencies, so you lose bass.
Clipping to a metal light fixture?
Metal is highly reflective and rigid. It'll act as a good baffle, but it might also resonate. You could get ringing at certain frequencies if the metal has a resonant mode that gets excited. That's why speaker cabinets are usually made of dense, well-damped materials like MDF. They don't ring.
The ideal clip-on surface would be something like a dense wood shelf. Rigid, non-resonant, large enough to act as a baffle.
A wooden headboard is actually great. Even a thick piece of furniture. The worst would be something like a loose piece of paper or a thin plastic container that's going to buzz and rattle.
This is all very practical. I feel like we're giving people a framework for walking around their house and evaluating surfaces.
That's exactly what it is. Once you understand the principles, you look at a room differently. You see potential baffles and reflection points. You start thinking about where your head is relative to the speaker and what's between you and it.
Let's talk about the room itself. Same speaker, same placement, different room.
The room is the other half of the speaker system. What you hear is never just the direct sound from the speaker. It's the direct sound plus all the reflections from the walls, floor, ceiling, and furniture, arriving at your ears at different times and from different directions. Your brain processes all of that and constructs a perception of the sound source.
You're always hearing the room.
Even if you don't notice it. In a very live room, with hard surfaces everywhere — tile floors, bare walls — the reflections are strong and prolonged. That's reverberation. It can make speech sound distant, washed out, harder to understand. In a very dead room, with carpets, curtains, soft furniture, the reflections are absorbed. The sound is drier, more direct, more intimate.
Which is better for a podcast?
Drier is generally better for speech intelligibility. You want to minimize the room's contribution so you're hearing the direct sound clearly. But you don't want completely dead, because that sounds unnatural and claustrophobic. A little bit of room sound gives a sense of space and realism.
The acoustic equivalent of a comfortable chair.
You want to feel like the person is in the room with you, not in a padded cell and not in a cathedral.
If someone's listening to a podcast in a bathroom, which a lot of people do, the tile is working against them.
A bathroom is an acoustic nightmare for speech. All those hard reflective surfaces create strong early reflections and long reverberation times. Consonants get blurred. You have to concentrate harder to understand what's being said.
Yet people do it every morning.
And the clip-on speaker is actually helpful here, because you can position it very close to your head, which increases the ratio of direct sound to reflected sound. If the speaker is six inches from your ear, the direct sound is so much louder than the reflections that the room becomes acoustically irrelevant. That's the nearfield principle.
That's a term from studio monitoring, right?
Nearfield monitors are designed to be placed close to the listener, typically on the mixing console, so the engineer hears mostly direct sound and very little room sound. It's a way of taking the room out of the equation. With a clip-on speaker, you can achieve a similar effect. Clip it to your collar, or your pillow, or the headrest of your chair, and you're in the nearfield. The room disappears.
Which explains why Daniel's experiments with clipping it to the light above the bed versus the side of the bed produced different results. The light is farther away, probably outside the nearfield, so the room reflections become more significant.
Distance is everything. The inverse square law applies. Double the distance from the speaker, and the sound pressure level drops to one quarter. But the reflected sound level stays roughly the same, because the reflections are coming from all over the room. So as you move the speaker farther away, the direct-to-reverberant ratio drops. The room takes over.
This applies to any speaker, not just clip-ons.
The physics is the same whether it's a two-inch driver clipped to your headboard or a twelve-inch woofer in a floor-standing tower. The principles scale.
Let's talk about scaling. What can someone learn from experimenting with a clip-on speaker that they can apply to a larger system? A home theater, a stereo setup, even a PA system?
The most transferable lesson is that small changes in position produce audible changes in sound. Most people buy speakers, put them where they look nice, and never move them again. But moving a speaker six inches can completely transform the bass response. That's because of room modes.
The standing waves.
Every room has resonant frequencies determined by its dimensions. Sound waves at those frequencies bounce between parallel walls and create standing wave patterns. At some points in the room, the bass is boosted. At other points, it's canceled out almost completely. If your listening position happens to be in a null, you'll wonder why your speakers have no bass. Move your head two feet to the left, and suddenly the bass is overwhelming.
It's not the speaker's fault.
Most of the time, no. It's the room. And the only practical solutions are acoustic treatment, which is expensive and ugly, or moving the speakers and the listening position. With a clip-on speaker, you learn this intuitively. You move it around, you hear the bass come and go, and you realize placement isn't just about convenience. It's the primary tone control.
The primary tone control. I like that. No EQ knob can fix a placement problem.
It really can't. EQ can adjust the overall frequency balance, but it can't fix a null. If a frequency is being canceled by a room mode, boosting it with EQ just makes the cancellation deeper. You're fighting physics, and physics always wins.
For someone setting up a proper stereo system, what's the starting point?
The classic starting point is the equilateral triangle. The two speakers and the listening position form an equilateral triangle. The tweeters should be at ear height. The speakers should be pulled out from the wall if possible, to reduce boundary interference and give the soundstage room to develop.
That's the sense of instruments or voices existing in space, right?
A good stereo setup creates a three-dimensional illusion. You can point to where the vocalist is standing, where the guitar is, how far back the drums are. That illusion depends critically on the speakers being properly positioned. If one speaker is farther away than the other, the image collapses. If the speakers are too close together, the soundstage narrows. If they're too far apart, you get a hole in the middle.
None of this applies to a single clip-on speaker.
No, because you can't have stereo imaging with one speaker. But the principle of direct versus reflected sound still applies. With one speaker, you're not trying to create a soundstage. You're trying to deliver clear, intelligible direct sound with a pleasant amount of room ambience. The goal is different, but the physics is the same.
What about height? We've talked about ear level being ideal. What happens when the speaker is above you versus below you?
Our ears are very good at localizing sound in the horizontal plane, left to right. We're less good at vertical localization. But we do have some ability to detect height, primarily through the shape of our outer ear, the pinna. The pinna imposes frequency response changes on sound coming from different elevations. Your brain learns to interpret those changes as height cues.
If a speaker is above you, your brain knows it's above you.
It does, and it can be slightly disorienting if the sound is supposed to be coming from in front of you. For a podcast, where it's just a voice, height probably doesn't matter much. But for music or film, having the sound come from above when the visual action is at eye level can create a subtle disconnect. It's one of those things you might not consciously notice but that contributes to a feeling that something is off.
The uncanny valley of speaker placement.
That's a great phrase. The uncanny valley of speaker placement. And you can climb out of that valley by just putting the speaker at ear level.
What about the angle of the speaker relative to the listener's ears? We talked about on-axis versus off-axis horizontally. But what about the vertical angle? If the speaker is at ear height but tilted up or down?
Same principle as horizontal off-axis response, but in the vertical plane. Most speakers are designed to have their flattest response on the horizontal axis. The vertical off-axis response is usually less smooth. There are often lobes and nulls in the vertical plane caused by the interaction between multiple drivers, like the tweeter and woofer.
Even with a single-driver clip-on speaker?
With a single driver, the vertical and horizontal dispersion are theoretically identical, assuming the driver is perfectly circular and symmetric. In practice, there might be slight differences due to the shape of the cone and the surround, but it's close enough. The main thing is just to point it at your ears. Don't overthink the tilt.
So we've covered on-axis versus off-axis, boundary reinforcement, room modes, nearfield versus far-field, baffle loading, reflection patterns, comb filtering, and the uncanny valley of speaker placement. Is there anything we haven't touched on?
There's the psychoacoustic side. How our brains process what we hear and fill in gaps.
The human auditory system is incredibly sophisticated. We don't just passively receive sound. We actively construct a perceptual model of the acoustic environment. One of the most important phenomena here is the precedence effect, also called the Haas effect.
The Haas effect. Sounds like a German car option.
It's named after Helmut Haas, who described it in nineteen forty-nine. The basic idea is that when two identical sounds arrive at your ears within about forty milliseconds of each other, your brain fuses them into a single auditory event. You perceive the sound as coming from the direction of the first arrival, even if the second arrival is louder.
Your brain locks onto the direct sound and ignores the reflection.
Not ignores, but integrates. The reflection still contributes to your perception of loudness and spatial impression, but it doesn't create a separate echo. This is why we can understand speech in a reverberant room. Without the precedence effect, every reflection would sound like a separate repetition, and speech would be an unintelligible mess.
The brain is doing heavy lifting to make speaker placement forgiving.
Tremendous heavy lifting. The auditory system is constantly separating direct sound from reflections, grouping sounds from the same source, and suppressing echoes. It's a miracle of neural processing that we take completely for granted.
Until something goes wrong. Until you clip the speaker in a weird spot and suddenly the voice sounds hollow or distant.
When the placement is bad enough that the brain's normal processing can't compensate, you notice. The reflection pattern becomes too strong, or too delayed, or too colored, and the illusion breaks.
The illusion being that you're hearing a person talking, not a small plastic device vibrating.
Good speaker placement supports the illusion. Bad placement undermines it.
Let's get practical for a minute. Someone's listening to this episode on a clip-on speaker right now. They want to optimize their setup. What's the checklist?
Step one, get it roughly at ear level. Step two, point it at your head. Step three, keep it within arm's length if possible, to stay in the nearfield. Step four, avoid placing it directly against multiple hard surfaces unless you want the bass boost. Step five, clip it to something rigid and non-resonant — a wood surface, not a flimsy plastic thing. Step six, listen. Move it around. Trust your ears.
Trust your ears. The audiophile's mantra and curse.
It's both, because once you start trusting your ears, you start hearing things you never noticed before. You become sensitized to frequency response anomalies, to reflections, to room modes. You can't unhear them. It's a one-way street.
Ignorance is acoustic bliss.
It really is. There's a reason why most people are perfectly happy with whatever speaker placement happens by default. Their brains compensate, and they don't think about it. But once you do the experiment Daniel did, once you move the speaker around and hear how much it changes, you cross a threshold. You become a placement person.
A placement person. That's a diagnosis.
It's a condition. Symptoms include rearranging furniture for acoustic reasons, evaluating rooms by their reverb characteristics, and feeling mild distress at poorly positioned Bluetooth speakers in other people's homes.
I feel seen.
You are seen. We're both placement people. We're recording this in a treated room with the microphones positioned to within a centimeter of optimal.
Yet we're talking about clip-on speakers.
The physics doesn't care about the price tag. A fifty-dollar clip-on and a fifty-thousand-dollar studio monitor obey the same laws of acoustics. The clip-on just makes those laws more accessible, because you can experiment without consequence.
That's actually a profound point. The democratization of acoustic experimentation.
For most of audio history, experimenting with speaker placement meant moving heavy wooden boxes around, running cables, possibly drilling holes in walls. Now it's a thirty-gram device and a clip. Anyone can learn the fundamentals of acoustics in an afternoon.
The clip-on speaker as pedagogical tool. Somebody should write a curriculum.
Acoustics one-oh-one, taught entirely with a clip-on speaker and a bedroom. Unit one, the nearfield effect. Unit two, boundary reinforcement. Unit three, comb filtering and you.
Comb Filtering and You. The self-help book nobody asked for.
Chapter one, why your voice sounds like it's coming from a metal tube.
Chapter two, it is coming from a metal tube, you clipped it to a lamp.
But seriously, this is one of those areas where hands-on experimentation teaches you more than any article or video. Reading about comb filtering is abstract. Moving a speaker six inches and hearing the voice suddenly get boxy — that's a lesson you remember.
What about the specific use case of listening to speech versus music? Does the optimal placement change?
It does, because the goals are different. For speech, the priority is intelligibility. You want maximum clarity in the two to four kilohertz range where consonants live. That means on-axis, nearfield, minimal reflections. For music, you might want a more spacious presentation, which means pulling the speaker back a bit, allowing some room sound to develop, maybe even placing it near a boundary for some bass reinforcement.
The podcast listener wants the speaker close and direct. The music listener might want it farther away.
But it also depends on the music. For critical listening, where you're trying to hear every detail in a mix, nearfield is still ideal. That's why studio engineers use nearfield monitors. For background music, where the goal is ambiance rather than analysis, a more distant placement that engages the room can be more pleasant.
For a podcast host who's also a parent holding a baby?
You want the speaker close enough that you can keep the volume low and still hear clearly. Low volume means less sound transmitted through walls, less chance of waking the baby. And the nearfield placement means you're not fighting room reflections at low volume.
That's the real-world application. Daniel's use case is minding Ezra, probably at low volume, probably in a room that's not acoustically treated.
That's where the clip-on speaker really shines. It can be positioned inches from the listener's ear, at low volume, with no cables to get tangled, no headphones to block ambient sound. You can still hear if the baby makes a noise. You're not isolated.
The open-ear thing is actually a huge practical advantage.
It's massive for parents. Headphones, even open-back headphones, create a sense of separation from the environment. A clip-on speaker at low volume lets you stay present in the room. You hear the podcast, and you hear the baby. Both are clear.
Which brings us back to placement. If you're wearing the speaker clipped to your collar, you're in extreme nearfield. The speaker might be six inches from one ear and eighteen inches from the other.
That creates an interesting perceptual situation. With a single speaker that close to one ear, you're getting a very strong interaural level difference. The sound is much louder in the near ear than the far ear. Your brain interprets this as the sound source being located very close to the near ear.
Which is accurate.
Which is accurate. But it's a very intimate presentation. It can feel like the podcast host is whispering directly into your ear. Some people find that pleasant. Others find it slightly uncomfortable.
The ASMR threshold.
There's a line between intimate and invasive, and it's different for everyone. The beauty of the clip-on is you can experiment. Clip it to your collar, see how it feels. Clip it to the headboard, see how that compares. Clip it to the nightstand. Each position creates a different perceptual experience.
None of them are wrong. They're just different.
They're different tools for different situations. The only wrong placement is one that makes the content harder to understand or less enjoyable. Everything else is preference.
Let's talk about one more thing. The interaction between speaker placement and volume. Does optimal placement change with volume?
It does, because of how our ears work. Human hearing is not flat. Our sensitivity to different frequencies changes with volume. This is described by the equal-loudness contours, also known as Fletcher-Munson curves.
The Fletcher-Munson curves. Another name from the golden age of audio research.
Harvey Fletcher and Wilden Munson, nineteen thirty-three. They measured how loud different frequencies need to be to sound equally loud to human listeners. The key finding is that at low volumes, we're much less sensitive to bass and treble. Our hearing is most sensitive in the midrange, around three to four kilohertz, which is conveniently where speech consonants live.
At low volume, we're basically hearing the midrange.
As volume increases, our perception flattens out. Bass and treble become more apparent. This is why stereo receivers used to have a loudness button — it would boost bass and treble at low volumes to compensate for the Fletcher-Munson effect.
How does this relate to speaker placement?
If you're listening at very low volume, like a parent with a sleeping baby nearby, you're already losing bass and treble due to your ears' natural response. If you also place the speaker off-axis, which cuts treble further, you might end up with a very muffled sound. So at low volumes, on-axis placement becomes even more important. You need all the high-frequency energy you can get to maintain intelligibility.
Conversely, at high volumes, off-axis might be fine because you've got plenty of treble to spare.
And at high volumes, you might actually want to go off-axis to reduce listening fatigue. Bright, on-axis sound at high volume can be harsh over time.
Volume and placement are interconnected. You can't optimize one without considering the other.
They're all part of one system. The speaker, the placement, the room, the volume, the listener's ears, the listener's brain. Change any one variable, and the whole perceptual experience shifts.
That's both the frustration and the joy of audio.
It's why audio people are never done. There's always another variable to tweak, another placement to try, another combination that might sound slightly better. It's a bottomless rabbit hole.
Daniel entered it with a thirty-dollar clip-on speaker.
The gateway drug. Today it's clipping a speaker to a light fixture. Tomorrow it's acoustic panels and calibrated measurement microphones.
Let's not scare the listeners.
But the point stands. The clip-on speaker is a legitimate tool for learning about acoustics. It lowers the barrier to experimentation to essentially zero. Anyone can do this.
I think the takeaway for people listening is that speaker placement isn't voodoo. It's physics. And the physics is accessible. You don't need a degree in audio engineering to hear the difference between good placement and bad placement. You just need to move the speaker and listen.
The specific recommendations we've given — ear level, on-axis, nearfield, rigid mounting surface — those are starting points. They'll get you ninety percent of the way there. The last ten percent is personal preference, and that's where the fun is.
The fun is in the last ten percent. That's a good note to end on.
Now, Hilbert's daily fun fact.
Hilbert: In eighteen thirteen, a British postal clerk named Thomas Witherings the younger was convicted of forging a Penny Black prototype three decades before the stamp was officially issued. The forged document, a hand-drawn revenue stamp on a piece of parliamentary correspondence, was discovered in a mislaid ledger and is now held in the Postal Museum's restricted archive as the earliest known attempt at postal fraud using an adhesive stamp.
...right.
That was a lot of information very quickly.
The Penny Black didn't exist yet and he forged it anyway. That's ambition.
That's something. This has been My Weird Prompts. Thanks to our producer Hilbert Flumingtop. If you enjoyed this, leave us a review wherever you get your podcasts. It helps more than you'd think.
We'll be back soon with another one.
