Episode 17

full
Published on:

16th Apr 2025

Douglas Mulhall - #17 - Apr 12, 2025

Unraveling the Secrets of Elastin: Its Impact on Health and Aging with Douglas Mulhall

Join host Michael Passmore in this episode of the Neurostimulation Podcast as he discusses the fascinating world of elastin with biotech entrepreneur and author Douglas Mulhall. They delve into the importance of elastin fiber in the human body, its role in various health conditions, and how it differs from collagen. Douglas highlights groundbreaking research in elastin therapies aimed at reversing arterial damage, healing wounds, and preventing calcification. This educational podcast aims to provide listeners with a comprehensive introduction to elastin and its critical functions in maintaining vitality and health. Note: This episode is for educational purposes only and not intended as medical advice.

Douglas' latest book: https://www.amazon.ca/Discovering-Nature-Longevity-Restoring-targeting/dp/1738926737

Douglas' first book: https://www.amazon.ca/Our-Molecular-Future-Nanotechnology-Intelligence/dp/1573929921

00:00 Introduction to the Neurostimulation Podcast

01:34 Meet Douglas Mulhall: Biotech Entrepreneur and Author

02:46 Understanding Elastin: A General Introduction

05:41 The Role of Elastin in the Human Body

13:00 Factors Affecting Elastin Degradation

26:17 Innovative Treatments and Research on Elastin

38:01 Conclusion and Final Thoughts

Transcript
Mike:

Welcome to the Neurostimulation Podcast.

2

:

I'm Michael Passmore, clinical

associate professor in the Department

3

:

of Psychiatry at the University of

British Columbia in Vancouver, Canada.

4

:

The Neurostimulation podcast is all about

exploring the world of neuroscience and

5

:

clinical neurostimulation, how it works,

the latest research breakthroughs, and

6

:

how that research is being translated

into real world treatments that

7

:

can improve health and wellbeing.

8

:

This podcast is separate from my

clinical and academic roles, and

9

:

is part of my personal effort to

bring neuroscience education to

10

:

the general public free of charge.

11

:

Accordingly, I would like to emphasize

that the information shared in

12

:

this podcast is for educational

purposes only and is not intended

13

:

as medical advice or a substitute

for professional medical guidance.

14

:

Today's episode is presented

by ZipStim neurostimulation.

15

:

Full disclosure, ZipStim is

the neurostimulation clinic

16

:

that I own and operate.

17

:

You can find out more about our clinical

neurostimulation programs at zipstim.com.

18

:

That's Z-I-P-S-T-I-M.com.

19

:

Today I am really looking forward to

a discussion with Douglas Mulhall.

20

:

Douglas is a science journalist,

researcher, and author of Discovering

21

:

the Nature of Longevity, a groundbreaking

book on how hidden stress silently

22

:

erodes our health and how new

therapies are turning the tide.

23

:

With a foreword by Columbia University's

chief of cardiology and a recommendation

24

:

from the American Institute of Stress,

Douglas brings to life little known

25

:

but deeply relevant topics like why

elastin proteins and not collagen are

26

:

key to vitality, and how reversing

arterial damage is helping patients

27

:

to avoid amputations and aneurysms.

28

:

He joins us today from Canada's

east coast to share his expertise on

29

:

elastin and the impact of elastin on

aging and various health problems.

30

:

Douglas: Hello everybody.

31

:

My name is Douglas Mulhall and

I'm here to present to you today

32

:

this presentation, which is called

Restoring the Elastic of Life?

33

:

And you'll see why the question mark is

there as we go through the presentation.

34

:

Elastin fiber from a bird's eye view.

35

:

The reason I put that in is

because this is really a general

36

:

introduction to elastin fiber.

37

:

It's not very technical but the

reason that we're doing it this way is

38

:

because actually a lot of patients and

even a lot of medical experts might

39

:

have heard something remotely about

elastin, but quite often don't have the

40

:

faintest idea what it actually does.

41

:

And so this is a beginning introduction

to that call it elastin for dummies.

42

:

And we might in, in future presentations,

delve into some of the more specific

43

:

conditions that surround elastin fiber.

44

:

So without further ado, there is a

really important thing that everybody

45

:

who deals with elastin has to understand.

46

:

And that is the nomenclature because

there's a lot of confus about it.

47

:

And you'll see why.

48

:

First of all, there's the ELN gene that

actually codes for elastin protein.

49

:

This is where, the whole thing

gets started, and that's happening,

50

:

of course inside the cell.

51

:

Then there is a precursor to

elastin protein and elastin fiber,

52

:

which is called tropo elastin.

53

:

And this is one of the

key building blocks.

54

:

It's also used in therapy

as we'll get to later.

55

:

Then there is actually the elastin

protein itself which comes out of

56

:

this assembly process from tropo,

elastin, and other substances.

57

:

And finally, and the main topic

of the presentation today there is

58

:

the elastin fiber, which is a very

sophisticated combination of elastin

59

:

precursors in the extracellular matrix,

which I'll talk about in a moment.

60

:

And these come together with microfibers

and other substances to weave into

61

:

this extremely flexible, extremely

tough and long lived elastin fiber.

62

:

The problem in the literature

is that even in some of the best

63

:

scientific publications about it,

they used elastin for short to

64

:

refer to one or several of these.

65

:

So when you're reading through

some of the literature, it's just

66

:

important to understand that there

are at least these four aspects

67

:

when we're referring to elastin.

68

:

And so when I refer to elastin here,

mostly I'm gonna be talking about the

69

:

fiber and in some cases the protein.

70

:

So everyone's familiar with collagen.

71

:

It's of course in volume, far

more plentiful than elastin.

72

:

But they are closely connected

cousins and together they do really

73

:

some miraculous things in the body.

74

:

So I just thought I'd give a brief

introduction to how they fit together.

75

:

First of all, collagen

provides strength and firmness.

76

:

This is the most important

thing about collagen.

77

:

But elastin provides the flexibility,

the recoil, and the support for tissue.

78

:

And this, these two things together

are what make up most of the

79

:

extracellular matrix that connects

almost everything in the body.

80

:

And they are referred to variously

as fascia the interstitium and

81

:

a connective tissue, all of

which are slightly different.

82

:

But they're basically made up of similar

components that I just described.

83

:

And by the way a couple of

years ago, the interstitium was

84

:

named an organ in the body and

actually the body's largest organ.

85

:

So you can see how pervasive

the role of this collagen and

86

:

elastin mix is in the body.

87

:

So elastin fiber, you can see here on the

left hand side, this is a actual elastin

88

:

fiber that is, it's a bovine sample.

89

:

And that's the stuff that

that stretches and recoils.

90

:

It makes up anywhere between a half of

1% and 70% of most connective tissues.

91

:

And I'll get to the details in a moment,

but what you're looking at here is

92

:

basically the the elastin protein, and

it has a really miraculous quality,

93

:

and that is that it can expand and

contract to eight times its standing

94

:

length in a fraction of a second.

95

:

Billions of times in a

lifetime without any turnover.

96

:

It's half life is 70 years.

97

:

And so it, this makes it one of

the toughest and most unusual

98

:

tissues in the human body.

99

:

So elastin is in so many places in

the body and plays a fundamental role.

100

:

The arteries, especially

the larger arteries.

101

:

It is between five and 50 percent

especially around the aorta.

102

:

It's there's a large amount

of elastin there, which is

103

:

crucial, as I'll explain later.

104

:

Heart valves about 10 to 15%.

105

:

Again, a critical aspect.

106

:

And it's interesting because one

side of heart valves has less elastin

107

:

and one side has more elastin which

actually explains why heart valves

108

:

stop working, and I'll get to that.

109

:

In a moment.

110

:

Pulmonary lungs between three and 17%,

and most critically it is found in the

111

:

air sacks, and that's what allows the

air sacks to expand and contract to,

112

:

get the oxygen in and out of the body.

113

:

Muscle connective tissue.

114

:

Yeah, more or less, 15%.

115

:

But what's interesting is that, when you

look at the literature, it says there's

116

:

really not that much elastin in muscle.

117

:

But actually elastin is critical for

muscular function because they're

118

:

tiny strings of it that are actually

connecting the different muscle fibers

119

:

that allow muscle to expand and contract.

120

:

If that elastin wasn't there,

they wouldn't be able to do that.

121

:

The eyes the eyes have it,

and it's interesting because

122

:

it's all throughout the eye.

123

:

It's in, especially in the

trabecular meshwork that

124

:

controls intraocular pressure.

125

:

So it's a key player in controlling eye

pressure, but it's also in the sclera.

126

:

And most, perhaps most importantly it

surrounds the optic nerve and it protects

127

:

the optic nerve from variations in.

128

:

Intraocular pressure.

129

:

So it's a very small amount, but it

plays critical roles and it's also a big

130

:

player in disease as we'll see later,

tendons, one to 3%, but a critical one

131

:

to 3% because tendons and ligaments could

not extend and contract without elastin

132

:

fiber and variously in the stomach,

the lining of the stomach the bladder

133

:

the bowel and reproductive organs.

134

:

And I can't emphasize enough that

none of these organs would be able

135

:

to function without elastin fiber,

which, when you think of it, explains

136

:

a lot about why we start having

problems with our organs later in life.

137

:

It, this is a major factor

here, is elastin fiber.

138

:

And to be clear, it's in the wall

of the artery in the medial layer.

139

:

That is where the elastin fiber is found,

which as we'll see later, explains why

140

:

calcification happens in the medial layer.

141

:

Healthy elastin can stretch and

recoil and degraded elastin frays.

142

:

Now all of that is fine as long as

your body is, producing elastin fiber

143

:

because then you can replace it.

144

:

But most of the elastin fiber in your body

is actually generated when you're a child.

145

:

And more, does come along in

your teens, but then it starts

146

:

to it starts to just not happen

anymore, and that's the problem.

147

:

The body stops assembling elastin fiber

when you get into your late twenties.

148

:

The world's top experts cannot explain

why all the experts who are, developing

149

:

therapies for this, I've asked them.

150

:

And it's just, it's something

that's programmed into us.

151

:

And the big problem with that is, is

that after the body stops assembling

152

:

elastin, and I wanna emphasize, it's

interesting because the building

153

:

blocks of elastin fiber continue

to be produced, but they don't

154

:

assemble in the extracellular matrix.

155

:

And that's when the trouble starts.

156

:

Because there's nothing to

replace the elastin fiber when

157

:

it is injured and damaged.

158

:

So it starts falling apart.

159

:

It starts falling apart

slowly and causing a lot of.

160

:

Trouble that you don't really

realize until later in life.

161

:

So elastin degrades in

absolutely everyone.

162

:

And you can see here these nice

smooth tendrils of elastin in a

163

:

five-year-old, and then this mass of

frayed stiff elastin in a 90-year-old.

164

:

And I think this is one of the best visual

representations of why we get stiff.

165

:

So that brings us to the patient.

166

:

How elastin affects the patient

and is affected by the patient.

167

:

And one thing to emphasize is

that the modifiable risk factors

168

:

that affect elastin are in many

ways similar to cardiovascular

169

:

risks modifiable risk factors.

170

:

Not all of them, but many of them are.

171

:

Which again, explains why you have these

these problems developing after the

172

:

age of 30 with cardiovascular system.

173

:

So stress, all kinds of stress,

emotional stress toxic stress

174

:

re repetitive stress injuries.

175

:

All of those things contribute

to degrading elastin fiber

176

:

smoking and wildfire smoke.

177

:

Is a big problem for elastin fiber

because it contains a lot of heavy

178

:

metals that are particularly bad for it.

179

:

Poor diet too much junk food.

180

:

Red meat and dairy products tend to

be pro-inflammatory, so anything that

181

:

promotes an inflammatory cycle in the

body, any type of food is going to cause

182

:

oxidative stress that damages elastin.

183

:

If you drink too much,

it's gonna cause a problem.

184

:

Elastin doesn't like too much alcohol.

185

:

Any carcinogen again, generates this

oxidative stress that causes this damage.

186

:

Injuries and injuries include

by the way, surgical scars.

187

:

So the and any kind of scar

because scarring happens.

188

:

Largely because the elastin fiber

is completely destroyed when it's

189

:

wounded when you cut into it.

190

:

And that's why when you get the healing

the scar is tough because the elastin

191

:

is basically destroyed radiation.

192

:

So astronauts in space, one of the reasons

that they start to have many of them

193

:

start to have cardiovascular problems

is because radiation is knocking bits

194

:

and pieces off of the elastin fiber

and promoting an inflammatory cascade.

195

:

Sheer stress sheer stress is.

196

:

The, oddly enough the physical stress of

red blood cells bumping along the side of

197

:

the artery, and this sheer stress actually

creates micro injuries that are constantly

198

:

being healed and repaired in the artery,

except when we start to get older.

199

:

Heavy metals is a big one.

200

:

For those of you who might not be

aware heavy metals such as lead

201

:

cadnium and chromium, I believe were

declared last year by the American

202

:

Heart Association to be a major risk

factor for cardiovascular disease.

203

:

It's the first time that an

environmental factor has actually

204

:

been listed as a cardiovascular risk.

205

:

And part of that is because of the

damage that they do to elast fiber.

206

:

And finally infection.

207

:

But not just any infection, but low

grade infection that often escapes.

208

:

Notice when testing is done

anything from gingivitis to any

209

:

type of very low chlamydia, for

example, is another example.

210

:

Some things which are not tested for

and are there at very low levels.

211

:

Helicobacter pylori which is

the cause of stomach ulcers.

212

:

And many of us are infected with it.

213

:

We just don't get the ulcers.

214

:

So all of these infections have an

impact on elastin fiber and covid.

215

:

So COVI attacks the

lining of the arteries.

216

:

And that is a major reason why so many

people who were hospitalized or died

217

:

from covid had cardiovascular problems.

218

:

And it's a major reason why some people

who had severe covid went on to develop

219

:

cardiovascular problems because it

attacks the lining of the artery, and

220

:

that's where the elastin is found.

221

:

So those are some of the examples.

222

:

Now, if you're trying to say to a

patient, if you're trying to explain

223

:

to them what is elastin fiber, I always

do something called the pinch test.

224

:

And actually anybody can do it right

now who's watching or listening.

225

:

What you do is you take the skin

between your thumb and your forefinger,

226

:

and you hold it up for about five

seconds and then you let it go.

227

:

And if you're young,

it'll snap right back.

228

:

If you're older, it'll

go down more slowly.

229

:

And if you're very old,

it doesn't go down at all.

230

:

It just stays up there.

231

:

That is not the collagen in your skin,

that is principally the elastic fiber

232

:

the cosmetics companies would have.

233

:

You think that it's collagen because

they've figured out how to fix collagen

234

:

more or less, or there are some

things that they can do to improve it.

235

:

Not so with elastin.

236

:

So that's why until very recently, they

haven't been talking about it that much.

237

:

For patients, why do we get wrinkles?

238

:

Once again, as I said, cosmetics

manufacturers are happy to

239

:

tell patients that collagen

is responsible for wrinkling.

240

:

But the reason we wrinkle is because

we lose the elasticity in our skin.

241

:

So yes, collagen has something to

do with that if you're losing the

242

:

firmness, but it's principally the

elastin that causes this wrinkling

243

:

same internally, the bladder.

244

:

One of the major reasons why people have

to pee more frequently as they get older

245

:

is because the bladder wall stiffens.

246

:

And that bladder wall, as you

can see at the inset is actually,

247

:

has got elastin fiber in it.

248

:

And that is what allows the bladder

to expand and contract so easily.

249

:

So you can imagine when elastin

gets damaged and starts to harden

250

:

what happens to your ability to pee?

251

:

Whoops, sorry.

252

:

Back we go.

253

:

This is a really interesting one.

254

:

There's all kinds of reasons that are

given for blood pressure increasing.

255

:

It all comes down to vascular stiffening.

256

:

But that stiffening is often

attributed to plaque, for example.

257

:

But quite often before the plaque ever

comes along and calcify and stiffens

258

:

in the medial layer of the artery,

the elastin gets damaged and you get a

259

:

cascade that I'll talk about in a moment

that leads to fibrosis, stiffening,

260

:

and calcification of the medial

layer, which results in hypertension.

261

:

So yes, it's a major

contributor to hypertension.

262

:

So here's the sequence that happens.

263

:

After Healthy Elastin is

no longer replaced all of

264

:

these antagonists damage it.

265

:

And when elastin is damaged, it actually

lets out a bunch of substances that call

266

:

to the immune cells and say, help me.

267

:

I need to be fixed.

268

:

And so you get this inflammatory

response, and so the cells release

269

:

all these inflammatory substances,

cytokines, et cetera, et cetera, and

270

:

they go and they clean up the mess.

271

:

But if the elastin isn't being replaced

anymore, this becomes a vicious cycle

272

:

because the more that they clean it

away the more that the inflammation

273

:

is caused because nothing is actually

cross-linking the elastin to repair it.

274

:

So after couple of years of this

going on, the body goes to plan B.

275

:

And plan B is to do what the body

does quite well for certain injuries,

276

:

and that is to wall off the offender.

277

:

For example, I froze my earlobe

when I was skiing many years ago.

278

:

And the body actually surrounded

the frozen dead tissue

279

:

with a, a calcified wall.

280

:

And eventually it kicked it out.

281

:

It, so it just popped out of my ear.

282

:

So these types of cysts are very useful

except there's a problem when it comes

283

:

to your vascular system and your organs.

284

:

That doesn't work very well to

wall them all off, but that's

285

:

exactly what the body tries to do.

286

:

In fact.

287

:

It appears to be a defect

in our immune response.

288

:

Our immune system, unlike the immune

systems of certain species of whale

289

:

and shark that live to be 350 years,

hasn't quite figured out the mechanisms

290

:

by which these longer term insults

can be dealt with effectively.

291

:

And so it tries the same short term stuff.

292

:

And the result of that ultimately

is that it tries to wall

293

:

it off with calcification.

294

:

And in fact, elastin is the site of these

tiny little nanometer sized calcification

295

:

crystals that are brought to the site by.

296

:

Membrane vesicles exosomes.

297

:

So the cells emit these

calcifying exosomes.

298

:

They go to the site of

the damaged elastin.

299

:

They release the these microcalcifications

which at that point are just crystals.

300

:

And then they start to

aggregate, and that's when you

301

:

start to get calcification.

302

:

And this does not show up on any scans

until it starts to get really big.

303

:

So the process starts at a very young age.

304

:

Autopsies of young people who died

in war, for example, show that these

305

:

streaks these fatty streaks on the

artery show up very early in life,

306

:

but they just, they aren't detected.

307

:

So this, I think is a very

nice representation of what

308

:

happens when you end up with.

309

:

Elastin gone bad, and all the

white stuff that you see there

310

:

is calcification of the arteries.

311

:

This is actually a 3D image

of an actual calcified artery.

312

:

The other way that calcification

occurs is it does occur as

313

:

plaque builds up in the arteries.

314

:

These two things the calcification of

the medial layer and the calcification

315

:

in the plaque in the arteries

seem to be different mechanisms.

316

:

But you get the same thing in the plaque.

317

:

You get the formation of calcified

nodes that destabilize the plaque,

318

:

and those calcified nodes are actually

coming from damage elastin fragments.

319

:

That are released from the artery

wall into the into the plaque in an

320

:

attempt to repair the elastin there.

321

:

So again, it's suspicious cycle.

322

:

Okay you can see from that there's

a whole bunch of medical conditions

323

:

that elastin is associated with.

324

:

On the cardiovascular, you've got

hypertension, aneurysms, stroke,

325

:

arterial sclerosis, and heart failure.

326

:

Also heart valves as I mentioned

earlier, pulmonary, COPD, emphysema PAH,

327

:

kidneys, CKD incontinence, as I

mentioned earlier, vision loss

328

:

damage elastin is, you can see it.

329

:

Actually in in age related macular

degeneration and in glaucoma, especially

330

:

in glaucoma around the optic nerve.

331

:

You can see that the elastin

has been knocked off at

332

:

injury and wound scarring,

as I mentioned earlier, skin

333

:

aging and cancer progression.

334

:

The substance is known as elastin

derived particles are called EDPs and

335

:

EDPs have been shown to promote the

rapid growth of tumors, which is very

336

:

interesting when you think about it.

337

:

Damage elastin is actually

very closely associated with

338

:

the the progression of cancer.

339

:

And there is some evidence

that cancer actually promotes.

340

:

The partial formation of incomplete

elastin fibers and then breaks them down

341

:

to feed on the resulting byproducts.

342

:

It's an ingenious survival tactic.

343

:

But not many people are aware of

this, even though there's quite

344

:

a few papers published about it.

345

:

So we get to prevention and treatment.

346

:

First of all, as I described,

you can easily describe explain

347

:

elastin fiber to your patients.

348

:

Just, with the pinch test, you can

tell them that the same modifiable

349

:

risk factors that are associated with

cardiovascular disease also delay

350

:

the degradation of elastin fiber.

351

:

So there is something that they can do.

352

:

Treatment is still at a very early stage.

353

:

It is coming fast, but I.

354

:

Really it has taken at least 30 years to

figure out how to restore elastin fiber.

355

:

And I'm just gonna describe

a couple of examples of that.

356

:

Right now, in clinical trial, there

is a technique that was developed by

357

:

professor Tony Weiss's team at the

University of Sydney in Australia.

358

:

And they have developed

tropo elastin scaffolds.

359

:

I know I put elastin there, but in

this case, the elastin comes on along

360

:

later for wound and skin repair.

361

:

And what they do is I'll just show you

the mechanism of action here in a minute.

362

:

So this is what a tropho elastin scaffold

looks like, which is, electro spun.

363

:

It doesn't have the

tropho elastin on it yet.

364

:

So pu scaffolds are not just used

for populating with trophoblast and

365

:

they're also used for populating

with cells, et cetera, et cetera.

366

:

So it's an established technology.

367

:

The mechanism of action

works something like this.

368

:

You get the scaffold, which is

electro spun from a solution.

369

:

Then the tropo elastin, the scaffolds

are seeded with tro elastin and they're

370

:

applied to the wound bed where they

integrate with the tissue and they

371

:

accelerate the wound healing process.

372

:

And what that does is it

absolutely minimizes scarring.

373

:

So it's, and it's also being used for

example, to eliminate scarring from acne.

374

:

So the way it works is the tro

elastin releases these peptides that

375

:

attract other cells for wound healing

and promote angiogenesis as well.

376

:

So this contributes to the

elasticity of the new tissue.

377

:

So that is a very bird's eye view of

how a very complicated process works.

378

:

Now, there's another one elastin is

comprised, as I mentioned earlier, of

379

:

this elastin core elastin fiber core.

380

:

And then it's wrapped in these

microfibril and these microfibril help

381

:

it expand and contract horizontally.

382

:

But they also get damaged by all of the

antagonists that I mentioned earlier.

383

:

The, this is the one

on the top is healthy.

384

:

The one on the top is damaged.

385

:

And so this is actually what's

going on inside the human body.

386

:

The result of that is that

the exposed elastin fiber.

387

:

Has a particular protein signature

that it that it displays when the

388

:

microfibers are knocked off of it.

389

:

And this is a unique therapeutic target.

390

:

So in 2007 researchers led by Dr.

391

:

Viri at Clemson University in South

Carolina discovered, and the way

392

:

that they discovered this is Dr.

393

:

Viri was trying to understand

why one side of a heart valve

394

:

calcify and the other side doesn't.

395

:

And when he did the biochemical

analysis of it, he found out that the

396

:

elastin content in one side of the

valve is much higher than the other.

397

:

And it was the side that

gets the higher percentage of

398

:

elastin that actually calcify.

399

:

So from there he started doing a

bunch of in vitro experiments to try

400

:

and figure out how to decalcify it.

401

:

And he went through dozens

and dozens of chemicals.

402

:

But he had heard that tannins can be

effective in restoring some tissues.

403

:

He went through the tannins.

404

:

And the reason that you see this

picture on the right is because one of

405

:

the tannins is something called penta

gall oil glucose, or PGG for short.

406

:

And it is derived from the the

rind of the pomegranate fruit.

407

:

The next time you're, I dunno, have

any of you taken apart a pomegranate,

408

:

but you tend to take the seeds

out and then throw out the rind.

409

:

Don't throw it out.

410

:

Eat it because it's full of PGG.

411

:

That's, that's where it's found.

412

:

But it's also found in tree bark.

413

:

It's found in in grapes.

414

:

It's found in some vegetables.

415

:

Primarily it's just, it, its highest

concentration is in just a few plants.

416

:

It's naturally derived polyphenol

extracted from plants and it

417

:

conserves elastin that conservation

of elastin allows the body to

418

:

kickstart the reassembly process.

419

:

So the PGG appears not to itself restore

the elastin, but rather conserve it

420

:

in a way that allows the body to then

assemble what it has stopped em, because

421

:

all the building blocks are there.

422

:

So the really promising thing

that's gone on is that in a

423

:

phase one clinical trial I.

424

:

Aortic aneurysms were stabilized.

425

:

Now, for those of you who have

any familiarity, and I'm sure most

426

:

people watching this do with aortic

aneurysms, you will know that they

427

:

threaten the lives of more than

10 million people in North America

428

:

alone, and they can burst at any time.

429

:

So the patient is living in fear of this,

and when they reach five millimeters

430

:

in size, you have to take fairly risky

surgery, although the surgery is being

431

:

improved but it can be life-threatening

and it doesn't always work.

432

:

So these aneurysms are a

real problem until now.

433

:

So this phase one clinical trial

actually succeeded in stabilizing

434

:

aneurysms and the therapy.

435

:

Which was developed by Nectar

Medical also based on Dr.

436

:

Viva Hari's work at Clemson University

was, it was sub licensed from Clemson to

437

:

Nectar Medical that is now being used.

438

:

And the phase two three clinical

trial is currently underway.

439

:

And I believe that they're

still recruiting patients even

440

:

though the trial is ongoing.

441

:

Anyone who knows someone who has

an aneurysm that they're concerned

442

:

about should definitely look into the

recruitment of this clinical trial.

443

:

So here's how it works.

444

:

Basically, you've got a balloon

catheter that it's a specialized balloon

445

:

catheter that seals off the artery

at both ends for about 10 minutes.

446

:

And then it inserts the PGG.

447

:

And so the the wall of the artery

gets a good exposure to the PGG

448

:

after which the catheter is removed.

449

:

So it's, there's no

permanent invasiveness.

450

:

It's a pretty standard procedure,

but the balloon catheter, which

451

:

is called the Bullfrog catheter is

actually a very specialized one.

452

:

There's actually two

catheters that are used.

453

:

PGG has this high affinity for elastin.

454

:

It sticks to it.

455

:

And it inhibits all of the elastases,

the enzymes and the MMPs, everything

456

:

that attacks elastin fiber.

457

:

It inhibits those processes.

458

:

And as I mentioned earlier, the

protected elastin fiber can regenerate.

459

:

So that, again, is a very bird's eye view.

460

:

Now preclinical therapeutic innovation

that has been successful in lab animals

461

:

is a combination of combination, a

drug filled nanoparticle or liposome.

462

:

Which is conjugated with an antibody

that is specific for elastin fiber.

463

:

This antibody was developed by Dr.

464

:

Charles Rice again at Clemson University.

465

:

He worked with Dr.

466

:

Viva to do this, and they have published

several papers on this that have shown

467

:

that they were actually able to restore

lung function in emphysema models.

468

:

And they were able to reverse

calcification in other animal models

469

:

and actually restore functionality

and actually reverse senescence.

470

:

And for those of you who are familiar

with senescence, that's quite a phenomenal

471

:

thing to have senescence reversed

when the the cell is decalcified.

472

:

So this is in the works and

the former NIH director, Dr.

473

:

Francis Collins, when he saw

this, he did a blog on it.

474

:

And this is what he said, using these

nanoparticles may enable medical treatment

475

:

without requiring surgical interventions.

476

:

Fixing the vessels may ultimately

reverse the course of the disease.

477

:

And the disease that he was talking

about was cardiovascular disease.

478

:

So you can see the tremendous

potential of this approach.

479

:

So here are some of the

people that I've mentioned Dr.

480

:

Rice, Dr.

481

:

Weiss, and Dr.

482

:

Viva Hari.

483

:

I know them all.

484

:

They are all brilliant.

485

:

And you should watch this

space because I think they're

486

:

going to be doing great things.

487

:

By the way, they're not the only ones

because there are at least three or four

488

:

other therapies that I haven't talked

about that are in earlier stages, and

489

:

that's something to watch for as well.

490

:

Here's some literature on clinical

studies, which you can look at later.

491

:

I just did these three because

they're quite recent and there's

492

:

not that much literature on it.

493

:

There are thousands of published

papers on elastin but on the clinical

494

:

studies, it's still pretty sparse.

495

:

And as a detail, I have written a

book called Discovering the Nature

496

:

of Longevity, which I believe is

the first book for general audiences

497

:

that actually describes what elastin

is, who made the discoveries of the

498

:

therapies that can actually restore it.

499

:

And Dr.

500

:

Cio Lama at Mount Sinai Institute

and Columbia University is

501

:

the chief of cardiology there.

502

:

He wrote the forward to the book and

yeah, you can just have a look at it.

503

:

So as disclosure, I co-founded Elastin

Therapeutics, which has this preclinical

504

:

method that I described, the nanoparticle

conjugated with the the antibody.

505

:

I've been studying

calcification for since:

506

:

And when I saw Dr.

507

:

Viva Hari's paper in 2015, the light went

on because the missing factor was elastin.

508

:

And I immediately flew over and

said, we need to start this up and

509

:

we need to get investors involved.

510

:

So that's what we're doing.

511

:

And that's it.

512

:

If you want to get ahold of me, you

can write me at info@calcify.com

513

:

and the website is www.calcify.com,

514

:

which contains a lot more

information than just about elastin.

515

:

But there is a nice short video on the

homepage and you can have a look at that.

516

:

So I'm gonna wrap this up.

517

:

Thank you very much

518

:

Mike: I really appreciate,

Douglas, it's super interesting.

519

:

Definitely.

520

:

And yeah, so thanks again for a

wonderful presentation and yeah, I'm

521

:

sure that this is gonna stimulate a

lot of interesting conversation and

522

:

consideration among audience members.

523

:

I don't remember getting a lot of

instruction in this area in medical school

524

:

and I think that it's surprising in some

ways because, obviously when you have a

525

:

specific substance, all the associated,

it really affects so many different

526

:

kinds of physiological systems in the

body that has such a wide ranging effect

527

:

on health that it's pretty surprising.

528

:

So very interesting to, to learn about

it and we really appreciate your time and

529

:

your expertise in presenting this Douglas.

530

:

So thanks a lot.

531

:

Douglas: Thank you very

much for having me.

532

:

And that's why I say to borrow

from Sting, every move you make.

533

:

Every breath you take is done by elastin.

534

:

Yes, and thank you again

very much for having me.

Listen for free

Show artwork for The Neurostimulation Podcast

About the Podcast

The Neurostimulation Podcast
Welcome to The Neurostimulation Podcast, your go-to source for the latest in clinical neurostimulation! Here, we dive deep into the revolutionary techniques that are shaping the future of health care.

Whether you're a healthcare professional, a student, or simply passionate about neuroscience, this podcast will keep you informed, inspired, and connected with the evolving world of neurostimulation.

Subscribe for episodes that stimulate your mind and enhance your understanding of brain health and treatment.

About your host

Profile picture for Michael Passmore

Michael Passmore

Dr. Michael Passmore is a psychiatrist based in Vancouver, BC, with expertise in neurostimulation therapies. Having completed specialized training in multiple neurostimulation modalities, including electroconvulsive therapy at Duke University and transcranial magnetic stimulation at Harvard University, Dr. Passmore brings a robust clinical and academic background to his practice. Formerly the head of the neurostimulation program in the department of Psychiatry at Providence Health Care, Dr. Passmore now serves as a clinical associate professor at the University of British Columbia’s Department of Psychiatry. From his clinic, ZipStim Neurostimulation (zipstim.com), Dr. Passmore offers private, physician-supervised, home-based transcranial direct current stimulation (tDCS) treatments tailored to clients across Canada.​