Chapter 25: How to Practice Mycology and Build a Career in It

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Welcome to the deep dive.

You know how it is sometimes you look at a subject, maybe you've seen some incredible photos or heard about groundbreaking research, but you find yourself wondering, how do people actually do this?

What does the day to day look like, you know, in the field or maybe in the lab?

Today, we're venturing into a really practical deep dive, drawing directly from Bryce Kendrick's The Fifth Kingdom.

We're tackling a chapter that, well, it promises to pull back the curtain on mycology, not just what it is, but how do you actually do mycology and how can you earn a living doing it?

Yeah, this chapter is, it's a fantastic bridge, really taking you from the theoretical, the stuff you read about to the hands on.

It's just a wonderful guide for anyone who's been curious about moving beyond, say, pictures in a book and truly engaging with the fungal kingdom.

It offers a clear roadmap.

Exactly.

So our mission today is to kind of distill the most impactful insights from this guide.

We want you to walk away understanding not just what mycologists study, but how they do it step by step from those first explorations in the field right up to, well, cutting edge research and crucially, how you might even build a career immersed in fungi.

Think of this as your shortcut, maybe, to understanding the practical side of mycology, even if you don't have a microscope sitting in your living room yet.

Okay, let's unpack this journey then.

Many of us might feel mycology is a bit, well, remote, perhaps because there aren't as many dedicated lab classes or field trips sometimes.

Right, it can feel that way.

But the truth is fungi are just everywhere,

you know, from the familiar gild mushrooms and those bracket fungi you see on trees to the delicate coral and jelly fungi.

And then there's that whole hidden world of microscopic molds.

Which you can find with just a bit of tape.

Exactly.

They're often much closer than you think and they're out there thriving for, you know, months in the year.

So once you actually start noticing them,

the natural next question is, what do you do?

And the chapter makes a really compelling case for photography as your first practical tool.

Yeah, the power of modern digital photography is just, well, undeniable here, isn't it?

The chapter really emphasizes that with, you know, instant feedback from an LCD screen and these amazing macro settings, often even on your smartphone, you can capture those tiny intricate details that are vital for identification.

Definitely.

Gone are the days of taking a shot with film and just hoping it was in focus.

Out of focus fungi are useless fungi, as the chapter says.

And what's particularly helpful about digital, I think, is the sheer volume of images you can take.

You can snap away, review them right there on the spot, delete the bad ones.

Instantly.

Yeah, and then easily upload, edit, store them, share them, maybe even use them for assignments.

And some cameras now offer techniques like image stacking or focus stacking.

Oh yeah, for that incredible detail.

Exactly, combining multiple photos for amazing depth of field.

It can turn out details words just can't capture.

And like you said, even through a microscope, your phone can be a pretty powerful recording device.

But okay, as useful as photos are, and they really are, they can't fully replace an actual specimen for, you know, precise identification, right?

No, they can't.

So collecting becomes the next crucial step.

Absolutely.

So many of the diagnostic characteristics, the things you need to tell one species from another require microscopic examination.

And importantly,

if your work is going to contribute to science, you need what are called voucher specimens.

Voucher specimens.

Yeah, these are physically preserved samples, usually housed permanently in a herbarium.

Think of it like a library for dried plants and fungi.

Right.

And these permanent records allow other scientists, maybe years later, to verify your findings or even extract DNA for molecular work.

So you're saying even people new to the field, maybe like undergraduate students, they can actually make significant discoveries.

Oh, absolutely.

The chapter highlights this students regularly find rare fungi, sometimes undescribed ones, even species completely new to science.

One example mentioned was found by a student and later published by a European mycologist.

Wow.

So this collection work is just vital for establishing baseline data, especially in places like North America, where we're still building that really comprehensive understanding of our fungal biodiversity compared to, say, Europe with their red lists informed by decades of data.

That's incredible.

Okay.

So for the bigger fungi, the macro fungi, how do you collect them properly?

What's the method?

Right.

Well, first off, you need something sturdy, like a hard -sided container, a basket, maybe to stop things getting crushed.

And you'll want brown paper or waxed paper to wrap each specimen individually.

A knife is essential, too, for cutting fungi off trees or importantly, for digging up mushrooms.

Digging them up.

Yes, it's vital to get the entire specimen.

You need to dig down deep enough to include the very base of the stock, the stipe, because critical identification features may be like a sheath or vulva in an amanita or a really deep stipe in pheocalibia.

They're often hidden underground.

Okay.

So don't just pick the pretty cap.

You need the whole story.

And I guess equally important are the field notes.

Oh, precise field notes are absolutely critical.

You need to record the basics, date the exact locality, who collected it, a unique collection number for that specimen.

Okay.

Also things like abundance, was it rare, common, the host or substrate, what was it growing on, the general habitat elevation, but then also capture those ephemeral details.

Ephemeral, like things that disappear.

Exactly.

Associated trees nearby, the color of the cap, gills, stipe, those can fade.

Any distinct smell, taste, but only if you're absolutely certain it's not poisonous.

Right.

Be careful there.

Very careful.

And any bruising reactions, does it change color when handled?

You need to note anything you might forget later.

And crucially, number each specimen to match your notes precisely.

And I guess don't collect too many.

That's a key point.

No more than maybe 20, the chapter suggests, or they'll likely spoil before you can study them properly, quality over quantity.

And the chapter also mentions that while having good books like Aurora's Mushrooms Demystified is helpful, having experienced guidance is, well, almost essential.

It really, really is.

Especially when you're starting out.

And before you even dive into complex identification keys, the chapter stresses something else, making a vertical cut through a fresh specimen right there in the field.

Okay.

Why do that?

It lets you observe crucial internal characteristics.

Things like how the gills attach to the stipe, whether it produces any latex or milk, if the stipe is hollow or solid, or if there are any color changes inside when it's exposed to air.

Details you'd lose otherwise.

Exactly.

And of course, another fundamental characteristic is the spore print color.

Right.

Getting the spores to drop onto paper.

Yeah.

Just place a mature cap gill side down on a white sheet overnight.

The color of that spore deposit is a major clue for identification.

What about all the tiny stuff, the microscopic fungi?

They sound even harder to deal with.

They're often even more diverse, actually, and offer perhaps a greater chance of finding something entirely new.

For those growing on wood, you'd carefully cut them off with a bit of the wood and just air dry them.

Okay.

If they're causing plant diseases, maybe spots on leaves, you'd press them flat, just like botanists do with plants using a plant press.

Right.

But some are really delicate, like downy mildews or many zygomyces.

They tend to collapse easily when they dry out.

So for those, you really need to prepare microscope slides while they are fresh and actively sporulating.

Okay.

So you've collected your specimens.

You've taken meticulous notes.

Now comes the art of preservation.

You might not be ready for full identification yet, but documenting and preserving seem crucial.

Absolutely.

And the two secrets really to drying the larger macrofungi are gentle warmth and moving air.

Gentle warmth and moving air.

Yep.

Those inexpensive electric fruit dryers, they work wonders.

You can often dry specimens perfectly overnight.

What about big fleshy ones?

Good question.

They might need to be cut in half bisected or maybe even sliced thinly, but definitely avoid drying them in a static oven like your kitchen oven.

You'll just cook them basically.

Right.

Not preserving them.

No.

And some fungi like the shaggy main, Coprinus carmodus, they have enzymes that make them self digest.

So they simply won't dry well at all.

So what happens after they're dried?

I imagine they look quite different.

Oh, they often look like a shriveled parody of their former selves.

But the crucial thing is their DNA typically survives drying really well, and they can still be used for microscopic work.

You can take a tiny piece, gently heat it in a dilute potassium hydroxide, KOH, and that helps the cells swell back up to a more natural state.

Letting you see the structures again.

Exactly.

It allows for measurements of important structures like the basidia, which bear the spores, the basidia spores themselves, and maybe specialized cells called cystidia.

And for, you know, real long -term storage.

Yeah.

Keeping them safe for science.

Well, dried specimens can last indefinitely if you protect them from moisture and pests, like dermistid beetles, which love dried things.

Beetles.

Yeah.

But for true long -term preservation and scientific access, donating properly documented collections to a herbarium is the ideal way to go.

The fungal library again?

Right.

Often at a university, a government institute, or a museum, they have the facilities to keep them safe and accessible.

And it's really important to give your specimens a unique identifying code, maybe your initials and a sequential number, along with the date in a format like year, month, day.

So they can always be found easily.

Okay.

This next step feels like where it gets really interesting for the truly curious.

Using the microscope, the chapter makes it clear you can't really identify many fungi without it.

That's absolutely right.

You'll likely start with a binocular dissecting microscope.

These usually offer up to maybe 40x magnification.

Their big advantage is the working space, the distance between the lens and the specimen.

It lets you easily manipulate the fungus with your fingers,

or fine forceps, or maybe a tiny scalpel to remove minuscule bits for higher power slides.

So those tiny bits you take, they're key for the next stage, the slide preparations under a compound microscope.

Yes.

And when I say tiny, I mean really tiny.

Most beginners grab like 10x too much material.

You just need a standard glass slide and then a liquid mountain to suspend your tiny fungal fragment in.

A mountain.

Yeah, a liquid.

For many gilled fungi, the Basidiomycetes, it's often that dilute KOH we mentioned, or maybe Melter's reading?

Melter's, that sounds specific.

It is.

It's a special iodine -based solution, and it's great because it stains amyloid spores, a distinctive blue -gray color, which is a key diagnostic feature for some groups.

For other fungi, like Escomycetes or common molds, things like lactic acid, or lactophenol, or maybe glycerin jelly, or more common mountains.

And then you put the cover slip on top.

I always seem to get air bubbles when I try that.

Any secrets in the chapter for avoiding those?

Ha!

Yes, the dreaded air bubbles.

It's a common challenge.

One really good trick is to place the clean cover slip down first on your workbench.

Then put your drop of mountain with the specimen on the slide, invert the slide, and gently lower it straight down onto the cover slip.

Ah, lowering the slide onto the cover slip significantly reduces the chance of trapping air.

And afterwards, gently pressing on the cover slip, maybe warming the slide slightly, can help push out any remaining tiny bubbles and also helps the stain penetrate the fungal tissue.

Clever.

Okay, so once you're viewing under high power, maybe 400x or even 1000x with oil immersion, how do you measure those microscopic features accurately?

They're so small.

Right.

You'll need a microscope that's equipped with an eyepiece graticule.

A graticule?

Yeah, it's basically a tiny measuring scale, like a little ruler, engraved on glass right inside the eyepiece.

Now, this needs to be calibrated just once for each objective lens you use against a special slide that has an absolute scale on it, a stage micrometer.

Okay, calibration first.

Yes.

Then, when you're measuring, say, spores or basidia, don't just measure one.

Scan around the slide and measure at least 10, preferably 20, examples of each structure.

This gives you a reliable range of sizes, and you can calculate a mean or average size.

Get a proper sense of the variation.

Exactly.

And just like with the whole mushroom, use your digital camera or phone adapter to take pictures through the microscope.

Shapes and surface ornamentation on spores can be incredibly complex and often really hard to describe accurately just with words alone.

A picture is invaluable.

I really like the tip in the chapter about using tapelifts or molds.

That sounded quite ingenious.

Yes, tapelifts.

They're fantastic.

You just use clear adhesive tape like regular sticky tape.

You make a little handle on one end, press the sticky surface gently onto the mold colony.

Right onto the fuzzy stuff.

Right on it.

Then you carefully lift it off and adhere the tape sticky side down onto a clean glass slide.

You usually add a small drop of lactic acid or lactophenol under the tape before pressing it down fully just to help distribute the mountain.

And why is that so good?

Well, the beauty of the tapelift is that it allows you to view the mold in a relatively undisturbed condition.

You get to see how the structures like canidiophores,

the spore bearing stalks, and the canidiogenous cells that produce the spores, and the canidia, the spores themselves, are naturally oriented relative to each other.

Ah, you don't just get a jumble of bits.

Precisely.

It preserves the architecture, which is often a huge aid in identification, especially for molds.

It's actually quite remarkable when you think about it that every time you make a collection, take good notes, maybe make some slides,

you are essentially describing a fungus.

You're building that foundation for what seems like the ultimate step, describing a new fungus, one unknown to science.

It's true.

Each careful observation contributes.

Now, the question of how you even know if it's truly new, well, that's not easy.

It usually requires collaboration with professional mycologists who have access to global literature and collections.

Right, you need the experts.

Definitely.

But if it does turn out to be unique, then you get the exciting task of preparing a formal diagnosis, writing a detailed description, and choosing a name for it.

And the naming process itself, that has some interesting rules, or at least strong suggestions, mentioned in the chapter.

It does.

While some mycologists might name fungi after friends or colleagues,

the chapter strongly advises against that.

Why then?

Well, the idea is that a well -chosen name should ideally offer some clues to the fungus's identity or its relationships.

It should be informative.

For example, the genus Sympodiola literally means little sympodium, reflecting its particular sympodial growth pattern.

And one of its species, Sykola, means needle dweller, indicating it was found growing on pine needles.

So the name itself, Sympodiola sykola, tells you something meaningful about the fungus.

That makes a lot of sense.

So if you find a new species, you write up a full detailed description in English, systematically covering everything from how the colony looks if you grew it, down to the shape, size, and ornamentation of the spores.

Precisely.

And if you're describing a whole new genus, not just a species,

the initial description is usually more qualitative and generalized.

You avoid putting in super -specific measurements right away.

Why avoid the measurements for a genus?

It leaves room, conceptually, for other related species that might be discovered later and fit within that same genus description, even if their measurements differ slightly.

Then for the individual species description, that's where you put in all those precise measurements, usually expressed as ranges,

like spores 10, 12 micrometers long, often with the calculated mean in brackets.

And interestingly, historically, a diagnosis written in Latin was also required for formal publication.

But that rule, it's actually been removed fairly recently, so just the English description is needed now.

The chapter gives a really great worked example, doesn't it?

With Zanclospora novasilandiae and Zanclospora brevispora, which were described by Stan Hughes and the author, Bryce Kendrick himself, way back in 1965.

Can you walk us through how two species that seem quite similar are actually differentiated based on those detailed descriptions?

Certainly.

That's a perfect illustration of meticulous taxonomy in action.

If you look closely at the detailed descriptions provided for those two Zanclospora species, you start seeing subtle but consistent differences.

Okay.

Like what?

Well, one immediate difference mentioned is how the cells at the very tip, the sterile apex of the knidiofor behave.

In Zanclospora novasilandiae, those cells tend to get longer towards the apex, whereas in Zanclospora brevispora, they actually get shorter.

Wow.

That specific.

Yes.

And you can also compare other features listed, like the average number of whorls or rings, aphioles, those are the actual spore producing cells, or the length of the knidia, the spores themselves.

Maybe the branching pattern of the knidiofor is slightly different, or whether there are tiny bumps or excrescences on the apex of the knidiofor.

That level of attention to detail is just incredible.

But then what makes them congeneric?

I mean, members of the same genus, Zanclospora, if they have all these differences?

That's a really good question.

They are considered congeneric because they share fundamental characteristics in their basic structure.

Things like the overall form of phylophores, the structures bearing the phyleids, and the fact that they both produce their phylospores, the spores, in a characteristic slimy mass.

So the underlying blueprint is the same, even if the details vary.

Exactly.

Even if the precise measurements or some minor structural details differ between the species, the core boplan, or body plan, is consistent within the genus.

And if we connect this back to the bigger picture, this kind of meticulous observation and noticing both the overarching similarities and the subtle consistent differences is exactly what good taxonomists do.

I think that's perfectly captured by that Stephen Jay Gould quote included in the chapter.

He talks about how fancy quantitative lab work often wins all the kudos, while field naturalists with their detailed and specific knowledge are unfairly dismissed as stamp collectors.

It's such a powerful reminder, isn't it, that there is absolutely no substitute for detailed knowledge of natural history and taxonomy.

The ability to observe subtle morphological effects like the geneticist Dobzhansky did is just crucial.

This foundational knowledge informs really all other areas of biological research, and the chapter even includes a dichotomous key for the Xenclospera genus, which is a practical tool built directly from these observations.

It shows how you distill these specific details into a series of two -choice questions like do the Canadian forests have sterile branches, yes or no?

What's the shape and size range of the canidia that allows someone else to identify an unknown Xenclospera specimen?

Okay, so after all that observation, collection, microscopy, and identification,

sometimes you actually need to get a fungus into the lab and grow it, right?

That's where culturing comes in, and it sounds like, well, a delicate dance with sterility.

It absolutely is.

To really study many fungi effectively, especially their physiology or genetics, you often need to grow them in pure culture, or what's called axenic culture.

Axenic, meaning?

Meaning it's grown completely alone, free from any other contaminating microorganisms like bacteria or other fungi.

Okay.

And this involves using sterile -nutritive media, the food source, usually solidified with agar prepared in sterile test tubes or petri dishes.

And then you have to inoculate it, introduce the fungus under sterile conditions.

Can you do this at home?

Well, you can sterilize media and equipment at home using a pressure cooker, which acts like a small autoclave,

but maintaining a truly sterile environment for the inoculation part outside of a proper lab with filtered airflow, like a laminar flow hood, that's incredibly difficult because fungal spores are literally everywhere in the air.

Right.

The contamination risk is huge.

Huge.

And I imagine there's a massive variety of these growth media recipes out there.

Oh, a huge range.

The book mentions the dictionary of the fungi as a great resource for recipes.

You'll find everything from general purpose options that support lots of different fungi, like malt extract agar, often called MEA, or potato dextrose agar, PDA, to really specialized ones, sometimes quite bizarre sounding, like rabbit dung agar, or even V8 juice agar, believe it or not.

V8 juice, wow.

Yeah.

But some fungi are just too fussy,

especially those that are obligate pathogens, meaning they need a living host, or biotrophs like powdery mildews or rust fungi.

They often can't be grown in pure culture on artificial media.

For those, you might need what's called dual culture, where you try to grow them together with their host plant tissue in sterile conditions.

Fascinating.

So what does all this lab work, this culturing, lead to in terms of the real cutting edge?

We're talking molecular biology now, right?

Right.

What's the biggest conceptual leap mycology has made recently?

Yeah, this is where things get truly transformative.

Molecular techniques, especially DNA analysis, have absolutely revolutionized fungal taxonomy, ecology, everything really.

It usually starts with DNA isolation or extraction.

Getting the DNA out of the fungus.

Exactly.

You typically grow the fungus in culture first, if possible, to get enough material, enough mycelium.

Then you often have to grind it up, sometimes frozen in liquid nitrogen to make it brittle.

Then you use an extraction buffer,

a chemical soup containing things like CTAB, Trish HCL, EDTA, SDS, basically detergents and salts designed to break open the tough fungal cell walls, dissolve membranes, and remove proteins and other unwanted stuff.

It's like a process.

It is.

After a few steps, often involving precipitation with alcohol, like ethanol, you're hopefully left with relatively purified DNA.

And then comes PCR, which, you know, you hear that term thrown around a lot, polymerase chain reaction.

Yes, PCR, it's been a cornerstone.

For phylogenetic studies, understanding evolutionary relationships, the nuclear ribosomal DNA, or rDNA region, is a really common target in fungi.

It contains genes that evolve at different rates, useful for different levels of comparison.

So the PCR process itself, first described by Saiki and colleagues, involves repeated cycles of heating and cooling.

You heat the DNA to separate the two strands, that's denaturing.

Then you cool it slightly to allow specific short pieces of DNA called primers to bind, or anneal, to the target region.

Then you add DNA building blocks, DNTPs, and a special enzyme,

that extends from the primers, copying the DNA strand.

And you just repeat that cycle?

Exactly.

You repeat this cycle maybe 30 or 40 times.

Each cycle doubles the amount of the target DNA sequence.

So you end up creating millions, even billions of copies of just that specific gene or region you're interested in.

And it's all fully automated now in machines called thermocyclers.

Making it much easier.

Much easier.

There are even handy, though more expensive, options like ready -to -go PCR beads, which have all the necessary ingredients pre -mixed in a little pellet.

You just add your DNA and primers, which really helps minimize contamination risks.

And finally, after you've amplified all that DNA, you need to read its sequence, right?

Figure out the actual genetic code.

That's the next step.

After cleaning up the PCR products to remove leftover primers and DNTPs, you send it for sequencing.

Automated machines now read the sequence of bases, the A's, T's, C's, and G's, often using fluorescently labeled markers.

And that raw sequence data, the string of letters, is then analyzed using sophisticated computer programs like PAUP mentioned in the chapter, specifically designed for phylogenetic analysis.

They help build those evolutionary trees, showing how different fungi are related.

And this whole field is constantly evolving, I suppose?

Oh, constantly.

Techniques are always improving, becoming more sensitive, and crucially, sequencing is getting dramatically cheaper all the time.

This is allowing for massive studies, like the one by Talbot and colleagues mentioned, where they found DNA evidence of something like 10 ,000 different fungal species, just from 600 soil samples across North America.

Incredible diversity hidden right beneath our feet.

Exactly.

The future of mycology, as the chapter suggests, really relies heavily on integrating these powerful molecular insights with traditional observation.

Which raises, I think, a really important, maybe more fundamental question.

How do scientists even come up with these research problems in the first place?

Where do the ideas start?

That's a great question.

And the answer is, well, science always begins with observations.

Always.

The chapter gives a wonderful personal example from the author.

He was hiking in a Haida Gwaii, off the coast of British Columbia, and he just kept encountering this one particular lichenized mushroom,

Lichenonphalia aericitorum.

It was everywhere in the early spring.

Just noticing something common.

Exactly.

But that simple observation led to a whole cascade of questions.

Why was it so common right then?

Did its symbiosis, its partnership with the alga Cocomixa, give it some kind of competitive edge in that environment?

How long did it take for those little mushrooms to develop?

Or how extensive were the underground colonies, the mycelium?

What specific conditions, temperature, moisture, light, nutrients, soil pH, were actually stimulating its fruiting at that time?

Wow.

So just noticing one common mushroom on a walk in the woods can potentially spark multiple PhD theses.

Absolutely.

Those initial observations, seeing that pattern, led directly to questions.

And those questions can then be refined into specific testable hypotheses.

And that is the core of the scientific process.

Observe, question, hypothesize, test, maybe rehypothesize based on the results, and observe again.

It's a cycle.

It's a cycle.

And the exciting thing is there are still countless unanswered questions about fungi.

Just countless.

And that's really the invitation the chapter extends to you, the reader, the listener.

Mycology is a field wide open for those eager to ask those questions and find those answers.

And for those who do decide to pursue those answers, what does a career in mycology actually look like?

The chapter kicks off this section with a really intriguing quote, I thought, from the Globe and Mail back in 2002, which apparently rated biologists as the single best job based on things like low stress, high compensation, autonomy, and hiring demand.

Yeah, it's a great starting point.

And since mycology is, of course, a branch of biology, the connection is pretty clear.

There are indeed many, many fulfilling and often well paid avenues where mycological knowledge is valuable.

It's far beyond just identifying edible mushrooms for fun, although that's part of it too.

The list of potential career paths included in this chapter is just, it's astounding.

It covers so many different areas.

It truly does highlight the incredible diversity of applications for this field.

I mean, you could be an aerobiologist studying airborne fungal spores, maybe related to allergies or plant disease spread, or an environmental biologist assessing the impact of fungi or using them for assessment.

A food technologist ensuring safety for molds or using fungi in production.

Like brewing or cheese making.

Exactly.

A brew master or a cheese maker relies heavily on fungal processes.

Then there are roles in antibiotics research, still a huge area or biological control, using fungi to manage pests, bioremediation, using fungi to clean up pollution, even fungal genomics delving into their DNA.

So it really isn't just about being a mycologist in the traditional sense, maybe stuck in a lab somewhere.

Oh, not at all.

The list goes on with highly specialized roles.

Think about a forensic mycologist using fungal evidence in crime scenes.

Or a forest pathologist studying diseases that impact our forests.

A medical mycologist focusing on fungi that cause human diseases.

A mycotoxicologist studying the dangerous toxins some fungi produce.

Right, like aflatoxins.

Precisely.

And then there are niche areas, like becoming a truffle grower or a winemaker.

And of course, many vital roles involve education, being a professor or a teacher or science communication, maybe as a science writer specializing in biology or fungi.

So what this all really boils down to is that the world of fungi offers just this vast, exciting and highly relevant array of opportunities for basically anyone with curiosity and a desire to explore.

That sums it up perfectly.

Wow, what an illuminating deep dive that was into the practical world of mycology.

We've really journeyed through it all, haven't we?

From the basics of how to properly photograph and collect specimens out in the field.

Getting that whole story.

Right.

To the intricate steps of slide preparation and microscopy.

Then the detailed process of describing new species, the technical world of culturing fungi in the lab.

Daddling those contaminants.

Yeah.

And finally, touching on the real cutting edge realm of DNA isolation, PCR and sequencing.

And throughout it all, we've seen how scientific inquiry, really at its heart, just begins with simple observation, noticing things, which leads to complex questions and then the systematic, careful pursuit of answers.

The field of mycology truly offers such a rich tapestry of knowledge and just countless opportunities for people to make significant contributions.

So whether you're just starting your journey, maybe just getting curious about the mushrooms you see on a walk, or perhaps you're actively looking for a fascinating and impactful career path, the fungal kingdom is definitely waiting.

The tools and techniques, as we've heard, are actually quite accessible, maybe more than you'd think.

They really are.

And the need for curious, dedicated minds is clearly there.

We truly hope this deep dive has given you, our listeners, a clearer picture of how mycology is actually done day to day.

And perhaps it's even sparked an aha moment about where you might fit into this incredible and sometimes weird, wonderful field.

Thank you for joining us on this exploration today.

Now, maybe just a final thought to ponder until next time.

As our understanding of fungi continues to explode and global challenges like climate change and disease keep evolving, what new frontier of fungal research or maybe a new application do you think will become the most critical in the next decade or so?

That's a great question.

Something to definitely mull over.

Indeed.

Until our next deep dive.