ABOUT THIS EPISODE
Most red light therapy devices look impressive, but many do not deliver meaningful results. The real difference comes down to power, depth, and how the body actually responds at the cellular level.
In this episode of the Regeneration Effect Podcast, Dr. Yi and Lee Weinstein break down what truly matters when choosing a red light therapy device. They explain why irradiance, not marketing claims, determines effectiveness, and how most low-power devices fall below the therapeutic threshold. You will also hear how red light interacts with mitochondria, supports ATP production, and why timing matters for outcomes like fat metabolism and recovery.
This conversation also explores practical applications, from collagen support and joint health to immune modulation and recovery from minor injuries. The discussion blends modern biophysics with a deeper understanding of how the body restores balance, aligning with both Western science and traditional healing principles.
If you are considering red light therapy, this episode offers a grounded, evidence-based perspective to help you make informed decisions.
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TRANSCRIPT 🔗
[0:05] scaling up with the brightness of the light. When you're below the threshold, you're not increasing your ATP supply at
[0:11] all. I wouldn't want somebody who's sitting at home to just assume that I can just take this thing and I can treat
[0:17] anything and it's going to automatically make it better. It might, but it might not.
[0:24] Welcome to regeneration effect podcast. We're talking about everything from
[0:29] ancient Chinese medicine practices for health and longevity to modern
[0:35] technology. So, we're pleased to have Lee Weinstein here again for a second
[0:40] episode talking about red light. So we already delved in the first episode
[0:45] about the mechanism of red light and also we talked about many other information most readers or listeners
[0:53] don't even hear about and I have not ever heard about it even though I've
[0:58] already studied red light somewhat for a while. Um so now we're going to talk
[1:03] about what device is good for you for your particular body and particular purpose.
[1:10] Okay. So, um let's talk about this first because this is portable, easy to use,
[1:19] and it's affordable for most people. Yes. Because if you look into the market,
[1:26] there are people selling something like this portable for $1,000 or even north
[1:33] of $1,000. Yep. And if you compare them, yours actually has way more strength than
[1:41] their product usually. Yes. There might be a couple of them that are close. So what are the the other ones that are
[1:48] I don't remember because I don't keep track of the ridiculously expensive ones. Okay. But they are still selling for
[1:54] thousands of dollars. Some of them like cost like $2,000$5,000 for $5,000. It comes in a really jeweled
[2:01] case and gold and Yes. So I know the importance for people to
[2:09] know is when you get red light therapy, you need to have certain strength of
[2:14] light, right? Certain power wattage of light to shine on your skin to make it
[2:20] effective. So the you do need a certain amount of power
[2:28] per unit area, right? So people get very wrapped up in
[2:35] seeing different u things like let's suppose one product is saying
[2:42] let's say it's a red light panel and it says 300 equivalent watts.
[2:48] What's an equivalent watt? You know well they mean it puts out as much light as a
[2:55] 300 watt incandescent bulb. Well, that's a weird thing to compare to because it's an LED. You know, maybe that's useful in
[3:03] terms of replacing light bulbs in your house, but what is that going to tell you about treatment? So, the the thing
[3:10] that's relevant is millwatts per square cimeter.
[3:16] That is uh I think the the term is irradiance,
[3:22] right? And is the word people use for that. So the sun is about 100 millatts per square
[3:31] centimeter at noon. And this
[3:37] is a little more than 100 mills per square centimeter, but it's all in the
[3:43] red. So the sun, it's all spread over the whole spectrum from ultraviolet down
[3:49] to deep infrared.
[3:54] If you went below, let's say
[4:04] a tenth of a millatt per square cm, you would be down at a level where
[4:10] there's no noticeable effect. So when we talked in the last episode about the mitochondrial chain,
[4:18] what you're doing there is the red light is providing energy to kick nitric oxide
[4:25] molecules off of binding sites where they're getting in the way.
[4:30] Well, they kick themselves off now and then. You know, statistically they're
[4:35] they're leaving and they're coming and going. So, if you are only going to kick, let's
[4:41] say, one off every five minutes, but they're kicking themselves off 20 times
[4:48] that fast, well, then your red light therapy isn't doing anything.
[4:53] But if, let's say, that molecule kicks itself off once per second and now you
[5:00] shine red light on it and it kicks it off a 100 times per second, well then you're having a huge effect. So there's
[5:06] a threshold and I don't know exactly where the threshold is. This is way
[5:11] above the threshold. Okay. So when you're way above the threshold,
[5:17] you're uh increasing your ATP supply
[5:23] at a rate that's scaling up with the brightness of the light. When you're below the threshold, you're not
[5:30] increasing your ATP supply at all. So when you're above the threshold, it's
[5:36] useful to get brighter and brighter and brighter up to a point. And there's two
[5:43] ways that you could say what that point is. One is where you're creating so much
[5:48] heat that you're causing some damage. Um this is not near that. Uh, and the
[5:55] other is where you've done the treatment for long enough in time that you've
[6:01] built up as big a reserve of ATP in the cells as is useful to have.
[6:10] And if you go longer than that, some people claim that you get
[6:17] some reducing in effectiveness. What that would come from exactly, I don't know, but it is possible.
[6:23] Okay. So the normal treatments that most medical protocols use is one sun worth
[6:30] of brightness for 10 minutes is as high as you need to go. So when those
[6:38] shoulder treatments were done, that's one sun worth of brightness of red light. So uh 100 mills per square
[6:47] centimeter uh for 10 minutes. Now, this is more like
[6:54] I think you said yours is 240 m walls per square centimeter. So, so less than five minutes you would
[7:01] get to the peak and I think 3 minutes is about three or four minutes with this is
[7:07] as long as you need to go in one treatment. So, how do you measure? Say I
[7:14] know your measurement is at 6 in distance from say either this one or
[7:20] this one, right? Uh, most of my measurements are on contact cuz these are both these are both made to be contact.
[7:26] So, do you use a specific device to measure the power?
[7:32] Yes. What do you use? I use a military laser power measuring device.
[7:38] Oh, okay. So then you just put it there. It will show you how many millow.
[7:44] Yeah. It'll just read read out. Well, it'll read out total mills and then you divide into the area.
[7:50] Okay. Okay. Because when a lot of consumers buy stuff online,
[7:56] y they do show you the power they have at 6 in distance from the
[8:04] panel or the device. Most of the time they're lying. So that's a problem to begin with.
[8:09] Okay. Uh so there really is not a good way for
[8:15] consumers uh to know from looking at the stuff
[8:22] they're seeing. First of all, are they being told the truth? And second of all, are the numbers they're being told, do
[8:28] they even matter? So, the good news is that the
[8:37] the red light panels, almost all the red light panels, the the big ones that
[8:42] people hang on the back of a door like the the ones that are branded under US
[8:48] brand names are like JV or um MTO Red Light,
[8:53] Biomax. Biomax. Um, and then there's Huga, which is an American company that rebrands,
[9:00] but they're it they're all Chinese manufactured, 100% of them. And they are
[9:06] repurposed horicultural lights. So, what these lights were originally designed to
[9:11] do was grow vegetables indoors. When they're sold for that purpose, they have a different spectrum. They have red and
[9:18] they have some blue and they have um other things. they tend to leave out the green because the reason that plants
[9:25] look green is because green is the only wavelength at which plants don't absorb
[9:31] energy really well. So if you want to make an artificial light thing for a for
[9:36] a plant, you put in ultraviolet, you put in blue, you put in red, but you leave
[9:42] out the green. Mhm. So, those panels, which could range from
[9:48] anywhere from like this long to as short as this, will have a lot of little circular
[9:53] lenses on them. Um, and they're usually maybe that thick. They have a power supply inside.
[9:59] They have fans. Yeah. That run. All of them that are made like that
[10:06] are about um 300 m per lens. Okay.
[10:13] Output. And those are all decent red light therapy devices. It doesn't matter the
[10:20] brand that you get. Huga is a perfectly decent brand. Um, if you want to pay a
[10:25] lot more money for the same thing, you can pay for a JV one.
[10:30] But the ones that are not worth getting are the ones that have a lot of tiny
[10:37] little LEDs mounted in a in a thing that doesn't have any fans in it.
[10:44] And the fact that it doesn't have any fans in it tells you it doesn't need to be cooled. And the reason it doesn't
[10:49] need to be cooled is because it doesn't put out much power. Exactly. So those ones you can also get in big
[10:58] panels for a lot less money, but they don't do much.
[11:03] So that's the main difference. And then you'll see all these belts and gloves
[11:09] and hats blankets and blankets. And those are all
[11:15] now low power devices. They might have a tiny bit of benefit, but not much.
[11:21] Mostly they have psychological benefit. You know, somebody buys this and you know there's placebo effect. So I just
[11:28] spent this money. This thing must be good for me. I feel better. Yep, it's working. So, but the the ones that are
[11:34] in a metal box that have a power cord that connects to it separately that have
[11:39] a fan and where you can see, you know, the lenses are about this big around. Yeah. Uh and there's hundreds of them.
[11:46] Those are all decent. But then this one you made, how many LED are there?
[11:55] I don't remember the number I put in this.
[12:01] It's about 50. 50. I think it's 7 by7 49.
[12:06] So, um, this the LEDs are small, but they're
[12:14] mounted on a heat sink, and this does have a fan in it, right? Cuz this dissipates quite a bit of
[12:20] power. Exactly. And, uh, so this one puts out a similar,
[12:27] actually, this puts out a higher intensity than the panels do, but this
[12:33] is meant not to treat your whole body, right? This is meant to treat an area where you have an injury or if you're uh
[12:42] I don't know if your listeners would be interested in hearing this.
[12:47] When you exercise, if you do red light treatment just after
[12:53] the exercise, the amount
[12:58] of ketones that your fat cells will release
[13:04] depends on the amount of red light they're getting. They'll release some certain amount without. So you exercise
[13:12] and now your body needs to draw some energy from its fat stores, right?
[13:18] So it signals, I need some energy from the fat stores and all your fat cells
[13:23] start releasing uh ketones, right? If you shine red light on a certain spot
[13:30] on your body, okay, those fat cells release more ketones than the other ones do. So if you wanted
[13:37] to do sculpting of your body, weight loss, well weight loss from a specific spot
[13:44] from the belly. Yeah. Like like let's say you want to lose more fat here and less fat
[13:50] somewhere else. You can actually tune that by shining red light where you want
[13:56] to lose the fat just after you exercise. Now, I think some of the products will
[14:04] advertise that you can do body sculpting with them, but what they don't tell you
[14:09] is it has to be after the exercise because if you just shine it on your body in general, your body is not
[14:17] demanding ketones at that time. So, it's not going to change the amount
[14:24] that it consumes from here. Whereas if you just did a workout in the gym and
[14:29] for 10 minutes following the workout, you shine red light on your tummy, you will reduce the fat there more than you
[14:36] reduce it in other places. But do you think if people are on ketogenic diet
[14:42] and then they use red light shining on the abdomen, would that help?
[14:49] I don't know. It's a good question. So, you're saying they push themselves into ketosis because they don't
[14:55] consume any carbohydrates? Exactly. Yeah, probably. Probably. Yeah. Okay.
[15:01] I never thought about that before. Or if people
[15:07] do cold plunges, cryos theapy. I don't know anything about that.
[15:14] And then after that, they use a red light. Does does a cold plunge or
[15:20] cryotherapy put you into ketosis? No, but it puts your body into some kind
[15:26] of metabolic a different metabolism because of the
[15:32] cryotherapy. It's like a minus 190. So I I I'd have to say I don't know.
[15:39] I've never looked into that and I don't know what the what the difference in that metabolism is. For example, I
[15:45] actually did a genetic testing of myself and I know I have a gene that's not
[15:51] ideal for energy conversion or something. I have to look into the real
[15:57] the actual name of that particular gene. So basically my genetic composition
[16:02] tells me I actually if I do cryotherapy or co-plunches it's not going to help me
[16:10] that much because I I have that particular composition of the gene for the
[16:16] um so so maybe that explains why I do
[16:22] have a hard time losing weight for a long time even though I don't I don't need to lose a lot of weight.
[16:28] Yeah. Well, you're not a big fat blob, so you've got that going for you. You don't need to lose the weight.
[16:35] But but I do have a hard time losing weight. Okay. So, so, so then I was
[16:41] thinking, you know, if if I'm not, you know, if my body is not that innately
[16:48] being able to do the say ketosis or something to push myself to lose that
[16:55] weight. But if I do the cryotherapy and then after that I do this red light,
[17:01] would that push myself to ketosis easier?
[17:07] This doesn't push you into ketosis. You have to be in ketosis already for this to help you.
[17:12] Okay. So, I don't know whether the cryotherapy or anything pushes you into ketosis. You
[17:18] said it changes the metabolism, but how you know I do know that after you do a
[17:23] workout, like you do a weightlifting workout in a gym or you do a cardio workout in a gym, you will get your uh
[17:33] your energy consumption up by enough by doing that workout that it your body
[17:40] will afterwards ask for some energy from the fat stores in the body.
[17:46] Okay? Now, maybe that's not true if you just ate five candy bars before you did the workout, but but if it's been a
[17:54] while since your last meal and you did the workout, it is true. Okay. So, then you also mentioned that
[18:00] you use a military laser device to measure the intensity.
[18:05] It that just is because the best devices for measuring optical
[18:11] power are made uh for measuring weapons systems.
[18:16] So, is that something people can get to measure it for a couple of thousand dollars? Yeah.
[18:23] Okay. And um and then is that something like you know
[18:30] there are devices on the market they say when you are at 6 in um from the device
[18:37] they get 131 mills per square cm and
[18:42] which is almost half of what yours have. Yeah that's right.
[18:47] So do you think that one would be sufficient or no?
[18:53] it is suff if if the specification is real. If they're not lying,
[18:59] um then it is sufficient to do the treatment if you do the treatment long
[19:06] enough and if you are not trying to go too deep into the tissue. So that's a
[19:12] separate issue. Oh, so remember when I said there's a threshold level at which when you're
[19:18] displacing that nitric oxide molecule in the mitochondria, it displaces itself every now and then anyway. So if you're
[19:26] only displacing it as often as it displaces itself, you're not helping anything, right?
[19:31] But as soon as you get the light intensity above that, you begin to help
[19:36] things. So, this is meant for treating specific injuries or with the eye
[19:43] adapter, it's meant for uh doing vision treatments. A lot of the people who will use this
[19:50] maybe they have rheumatoid arthritis. So, they have an immune problem in their joints. So, you want this light to be
[19:59] above the threshold in the middle of the joint. Well, the middle of the joint is
[20:04] that far in. Okay? Right. So you can see kind of the red
[20:10] profile there. This is enough to do that and the panel
[20:16] is not. So that's that's why this is brighter because this is designed for spot
[20:23] injury, you know, maybe carpal tunnel or something like that where you know you need to get into a certain depth to
[20:30] treat the thing that you're going to treat. Now, if what you're treating is right at the surface, the panels are
[20:35] fine. And so, like if if uh
[20:41] somebody wants to look younger, all right, so red light increases collagen
[20:48] production, right? And that's all in the first few millimeters of the skin,
[20:53] right? So, all the panels uh that are the the panels that have fans in them,
[21:00] not the cheap ones that don't. Um, all of those are bright enough to do that.
[21:06] So, if you stand you hang that on the back of the door and you stand in front of it and close your eyes and treat your
[21:13] face, that's going to be fine. Or, you know, you can use this thing to treat
[21:18] your face, too. So, I turn that on, my eyes close.
[21:24] At this distance, this thing is about the same intensity as a panel.
[21:30] Okay. But when it's right up to your skin, it's much more intense.
[21:36] So, do you think if I hold it very close to my face, that will be even better?
[21:43] Hold this very close to your face. You don't need to go. Well, so if I
[21:50] can't see what this looks like when it projects on my face, but this puts out a circular pattern. So at
[21:56] some distance, the circle is going to be the size of my face. Tell me when that is.
[22:02] Still bigger than your f. Oh, right. Right. Right now. Okay. So
[22:09] this is uh a little bit better than treating yourself with a panel because at that
[22:16] distance this is a little bit more intense. Okay. And I make a stand for this so that you
[22:22] can sit in front of it. You don't have to hold it. Right. I asked you that.
[22:29] You asked me about Yes. I asked you about the adapter, too. No, you didn't ask me about the stand.
[22:35] You asked me about the adapters.
[22:44] Well, I showed you the picture that you'll show me, but then you So, if you were if you were going to treat yourself, you know, you would you
[22:50] would sit at a table and just do that.
[22:55] Okay. But the panels are just as good for
[23:01] doing that. You just treat yourself a little longer. But the panels are much bigger than this. So you are also saying
[23:06] those panels are made in China with uh horiculture
[23:13] LEDs. They were originally all made for horiculture. China grows a huge amount
[23:19] of food indoors. So what LEDs does your device have? This has 50% 660
[23:29] nanometer and 50% 850 nanometer. And
[23:35] that just happens that that array was available that way. Um
[23:43] 850 nmters penetrates a little better. Not a lot better, but a little bit
[23:48] better. And originally all the red light devices that were being sold were 660
[23:55] nanometer. And then some people wanted to differentiate themselves for marketing
[24:01] purposes. So they said, well, we're going to mix in 850 nanometer and we're
[24:06] going to claim that we penetrate deeper. And it does a little bit, but it's also
[24:11] a little bit less of an efficient LED. So whether it wins in the end, I'm not sure.
[24:17] You mean if it has more A50 then the 660 is weaker? Is that what you're you mean
[24:23] it's less effective? The 660 nanometer LEDs put out more are
[24:31] more efficient at converting energy into photons. So for a certain
[24:37] number of watts in you get more light out on the 660. And for a certain number
[24:44] of watts in, you get a little less light out on the 850, but it goes a little deeper. So, you kind of win in one way
[24:51] and you lose in another. It's not it's not a big profound thing. Is 850 still visible light or it's
[24:59] infrared? It's infrared. So, you don't see it. So, basically the redness you see actually is
[25:05] between 660 and 8800 or something like that. And and I will say nobody should
[25:12] fortunately nobody does. Nobody should make a light that puts out this kind of
[25:18] power that's all 850 because you won't see it and it could be if you were
[25:25] looking right at it can burn your head. It might it might do some thermal damage to your retina. Not as bad as a laser,
[25:32] but it might do some. and you wouldn't know it because you couldn't see it and your body wouldn't react to it.
[25:39] Okay? But so it's better to have a mix. If you're going to have 850, you should have some 660 along with it so that at
[25:45] least you see it. But this one is purely 660. That's pure 660. Okay? If you're finding our conversation
[25:52] helpful, please make sure to subscribe so that you don't miss our future
[25:57] episodes. We talk about everything from stem cell science to holistic healing
[26:04] approaches all grounded in research and real results. But then um
[26:12] you said the um as long as the device has heat the fan to dissipate the heat
[26:20] they're okay. Right. That's the way that a consumer would know whether you're buying one that has
[26:26] a reasonable amount of power. Right? Because if the manufacturer didn't need to put a fan into it, then it doesn't
[26:34] put out very much power and it's not going to help you very much. So those blankets that wrap around you,
[26:41] they don't put out very much power. You know, this thing by itself puts out more
[26:46] light than two of those whole blankets put together. Okay. So then how deep can the red light
[26:55] or 660 light go through the tissue? The treatment threshold depth for this
[27:03] thing is probably 1 and a half to 2 cm.
[27:08] Okay. It it goes through further than that, but it's dim enough by then that it's
[27:14] not helping you that much. Right. But then um is is the LED putting out around 240
[27:25] matt per square meter per square square cm is the maximum LED power you can get for
[27:33] the LED bulbs or you can have even higher powered LED bulbs.
[27:39] I have a unit that puts out twice what that puts out. I actually have a unit that puts out almost three times what
[27:45] that puts out because I was thinking if we want to treat somebody say certain brain issues.
[27:51] Yeah. Or if you even just use to shine through your nose trying thinking it can go
[27:58] through the oactory nerve uh cre form plate
[28:04] to the brain. You need to travel certain distance through the tissue. This is
[28:12] probably better when it comes to so if you're trying to go really deep
[28:19] um you want to have a larger source. This is this is so a way to think about
[28:26] it is this is designed to go about as deep as it is wide.
[28:33] So if you want to go further you should have a wider aperture. Ah
[28:40] because what's happening when you first enter you get scattering. Okay. So if if the source is too pinpointed
[28:50] the fact that it's getting so diffuse as it goes in then it weakens so much is losing a lot of intensity.
[28:57] Okay. So so it's good to have an aperture that's about as wide as how deep you
[29:03] want to go. So if that's the case that means if you have a big panel Yeah. then you have a wider
[29:11] aperture. That's true. If you have a big panel, you have a very wide aperture. But then
[29:16] so there are two things that can lose you. Uh one is just the attenuation from
[29:23] the depth and the other is the attenuation from the scattering, the defocusing.
[29:29] So, you don't need to be any bigger than
[29:36] in aperture than the depth you're trying to go to. You won't gain anything by being much
[29:42] bigger than that. Okay. But if you're much smaller than that, you start to lose. Right.
[29:47] All right. So you're you're right that a big panel if it had the same intensity as this would do just as well as this
[29:55] and would go to more depth if you weren't being uh
[30:03] if if you weren't being limited by the scattering. It'll go to more depth. So if the panel is right here in front
[30:09] of me like this close y I think it can go deeper. Right. Because it's wider.
[30:15] It won't go deeper than this. No. No. Because you don't, how do I want to
[30:21] put this? You lose when the aperture is smaller than a certain amount.
[30:27] Mhm. But once you get out to that amount, you don't gain as you keep going. Oh, no.
[30:32] No. So, do you think this you gain as you keep getting brighter? Okay. But you don't gain as you get wider.
[30:39] Oh. So, what's the maximum with that? You mean depth? Uh the aperture
[30:46] this is the aperture. This is the this is the biggest aperture that can go
[30:52] you you can go so this is this has an aperture like this right which means it can go about that far in
[30:59] and give effective treatments. thing. Now, if the if you had a source as bright as this on
[31:07] a big panel, um then it could go uh
[31:16] how do I want to put this? The only reason that this can go that
[31:23] deep is because it's also bright enough. It's not just that it's wide enough, but
[31:28] it's that it's bright enough. If I turned the brightness down on this and kept the same aperture, it still
[31:35] wouldn't go as deep. Right. But what do you think if there's a panel this white but the panel is
[31:42] comprised of many if the radian
[31:47] nano thing like this if the irradiance so this
[31:52] this is designed to go this deep
[31:58] right? So, if I wanted to make a panel go twice as deep as this goes, I would
[32:04] make the panel at least twice as wide. Yeah. And I would make it twice as bright as this.
[32:10] Oh, so each one has to be twice as bright. Yeah. But then there are no panels that
[32:16] are twice as bright as this. This is twice as bright as any panel. Okay. So, tech technologically you can
[32:23] make even this light twice as bright. Uh, I'd probably have to use different
[32:29] LEDs because this one runs near its limit. But yeah, you could. But then technologically, what is the
[32:36] brightest LED you can get for this? Three times, four times.
[32:44] You can. So, these are tiny LEDs. You can get bigger LEDs that are, let's
[32:52] say, 10 times as bright, but they take up more room. So they don't wind up gaining you that
[32:59] much, right? But I think probably the limit of what could be done is maybe
[33:04] four times what this is at. Okay? Because if it's four times, then you
[33:10] make it wider. Let's say you have two, three, four. Then they can go deeper.
[33:18] Four times this. Well, but this is already half the thickness of your head. I know. you know, so if you put one on
[33:24] each side, you're done anyways. So, unless you're planning on growing a really big head,
[33:29] but the problem is what if like what you want to reach is like really deep inside
[33:36] right in the middle of your brain. And then there's nothing anywhere in your brain
[33:41] that's much longer than this from the surface. But then if you say get to this
[33:47] death in the brain from here to here, how much power do you still have left?
[33:54] You have enough to make a difference. Okay. I don't have a probe inside my brain and
[34:00] I don't plan on putting one there. So I couldn't tell you for sure how much power you have.
[34:08] And the only the only uh things that are easy for me to make measurements on is
[34:14] like I can I can shine this and I can see it coming through my hand and I can actually measure the intensity right
[34:20] here. Okay. Um but there's no real good equivalent way to do that with your brain, you
[34:26] know. So the I don't know what the translucence
[34:32] of the brain is compared to bone or compared to muscle. Right? And we haven't done any study
[34:40] there. There are some people who are concerned that red light for brain
[34:45] treatment is a bad thing. There have been demonstrated cases where it's good.
[34:51] But there was a guy at um one of the national research labs uh did a bunch of
[34:57] experiments on mice where he found that uh brain treatment
[35:03] made the mice uh less healthy in certain ways. So what do you mean less healthy means
[35:10] they will have more dementia? They I don't remember what his measurements were. I'd have to look the article up
[35:16] and send it to you. I'm just saying I don't think it's fully settled whether this is always good
[35:22] right on your brain in the cases where you're recovering from something really traumatic like a stroke there you look
[35:30] in Norman Deuts's book the brain's way of healing and you'll see experiments that have been done where it shows yes
[35:37] the red light actually does make the stroke recovery better but you're not
[35:42] starting out with a fully functional person there and measuring whether you cause anything to go wrong. It might be
[35:50] that yes, it helps the healing, but it hurts something else. It just hurts it less. So, I don't know if this is always
[35:58] a good thing to use on someone's head. There isn't enough stud. Yeah, exactly. Okay. I was more thinking
[36:06] about like say treating Parkinson's or Alzheimer's
[36:12] after stem cell treatment. It's it's a good question and I don't know and you can run the experiments and
[36:18] you can see I think you know stem cell treatments
[36:25] I think the red light will help stem cell stuff happen it will accelerate that process. Yeah, because the stem
[36:32] cell when you get the stem cell infused into your body, what stem cell does is to transfer through vesicles called
[36:39] exosomes to your own body stem cell. And then these vesicles contain
[36:44] mitochondria, the young mitochondria from the young stem cells and and and it's going through a
[36:50] biological process that you can accelerate with this. Yes. So as long as there's not some competing biological process that you don't want
[36:56] to accelerate like an infection or cancer Exactly. then you'll win, I think. But
[37:03] whether it's overall good for your brain, I don't know. But then there's also research saying if
[37:09] you shine the red light on your thyroid, it can help Hashimoto's or thyroid
[37:16] condition. It can definitely change what's going on there. And it's not obvious to me when
[37:26] like if if you have part of your endocrine system, right, and it's job is to put out a certain quantity of a
[37:33] certain chemical and stay in balance with other parts of the endocrine system. If you shine light on it and it turns
[37:40] out that the light accelerates one of its processes more than another, is that
[37:45] good? I don't know, you know. So, I think you'd have to experiment and see if you, you know,
[37:52] you're a medical professional, right? So, you're used to looking and being careful and seeing, okay, I'm going to
[37:59] try this and does this work well on this patient. That's that's a good thing to do, but I wouldn't want somebody who's
[38:06] sitting at home to just assume that I can just take this thing and I can treat anything and it's going to automatically
[38:12] make it better. It it might, but it might not, right? I never tried on thyroid yet. I
[38:19] only read about it recently like within the past month. So I haven't tried it on anybody having Hashimoto's. But the idea
[38:27] of having Hashimoto thyroid condition is some people say it's because of the toxin building up in your body. Then it
[38:34] causes autoimmune reaction killing your own thyroid cells. So if you shine the
[38:40] red light, I guess because it like we talked about previously, it speeds up
[38:47] the reaction in the cells and also helps the mitochondria. So maybe it can help
[38:53] whatever cells are remaining there to produce more thyroid normally.
[39:00] It it is often true that red light
[39:06] makes the immune system work more the way it's supposed to. Right. So,
[39:13] one of the things that this helps people with is rheumatoid arthritis.
[39:19] Yes. So, in rheumatoid arthritis, you're attacking your own joints. Yes. And when your immune system cells
[39:27] get enough red light, they stop misbehaving or at least they misbehave
[39:32] less. Mhm. There's another uh time when you can say
[39:38] that this helps the immune system. If somebody, let's suppose somebody gets occasional
[39:44] herpes outbreaks on their lip, the herpes virus hides in nerves,
[39:49] right? and it comes out of the nerves and when your system is weak.
[39:54] Yeah. Or when you didn't get enough sleep. Same thing. And people will say
[40:00] they feel a tingling before they get the blister. If you use this on your lip at the time
[40:06] you feel the tingling, the whole thing will reverse and you'll never get an outbreak. Really? I think I'm going to try that
[40:14] next time. And if you it takes uh for that it's about a 3 to five minute
[40:20] treatment and it will reverse it. So you only need to do it once. If you get it right at the beginning you
[40:26] only need to do it once. So the virus is different from the bacteria that's causing infection. Viruses don't have any mitochondria in
[40:33] them. Okay. Yes. So they can't get any energy from this. Okay. But your immune system can.
[40:39] Okay. And the bacteria can get there. There's no competition. Whereas if you sign shine this on an infection,
[40:45] the bacteria bacteria get Yeah. So, but it's it's a win-win situation when it's
[40:51] a virus that you're dealing with, but it's not a win-win when you're dealing with a with a bacteria. Okay. So, when we talk about infection,
[40:58] not using red light, actually, we have to be specific that it's for bacterial
[41:03] infection. Bacterial infection, not viral infection. Viral infection. Yes. Okay. Viral infection. If your body is going
[41:10] to heal from that virus, this will probably help you speed the healing. And
[41:16] you know, similar to herpes, the shingles virus, which is part of the same family, um if somebody's got a
[41:23] painful shingles outbreak on their torso, and they stand in front of one of
[41:28] the red light panel things, you might speed the healing of that by a factor of 10.
[41:35] It's it can be really really profound. Okay. Uh and and same with a herpes
[41:43] outbreak that's already happened, you can speed the healing. But the amazing thing to me is that you can prevent the
[41:49] outbreak from ever being there because you get that initial tingle
[41:54] if you can shining the light triggers your system to start its healing process
[42:00] before it would have normally kicked in. Okay. I I'll next time I'll try that
[42:07] because I get that maybe once every two years. So, never thought about that.
[42:13] Didn't know that. Yeah. But I do know like I read that it will help Hashimoto's and then there are a
[42:20] lot of especially women suffering from Hashimoto's. Yeah. I I don't have experience with that.
[42:26] And that is autoimmune. And then like you said rheumatoid autoimmune too. Yep.
[42:31] Okay. So, now we learned how to choose the right device.
[42:38] And what other things do you want to tell the audience?
[42:44] Um, well, one of the things that I use the handheld one for is as a first aid
[42:51] thing. And, uh, I haven't seen any people advertising this, although I
[42:57] think some of the companies that make them know. I certainly do. Let's suppose you're getting something
[43:04] from under a table and you accidentally hit your head on the table, you know, and you know you're going to get a bruise.
[43:10] Okay? Right? If you know where you hit yourself and you shine this for 3
[43:15] minutes, you will not get the bruise because what will happen is the under
[43:21] the intense light all of the capill capillaries that broke
[43:27] that would normally let blood out are going to uh rest renit themselves almost
[43:35] instantly. Oh, and so likewise, if you pinched your
[43:40] finger in between the handles of a pair of scissors or something and you knew you were going to get a blood blister,
[43:45] if you shine the light on it for three minutes, you won't get the blood blister. What about uh you burn yourself?
[43:53] Well, that is an interesting question. I have done this experiment, so I will tell you
[44:01] the result is very good and the process is very painful. Very painful.
[44:07] Yes. So, I burned the back of one of my fingers on the muffler of my chainsaw
[44:13] when I was cutting up a tree that fell in the yard. And I thought,
[44:19] "Okay, this is going to be a nasty burn. I've never experimented with red light on a burn. I'm going to run inside, grab
[44:25] this thing, and experiment." And 30 seconds later, I had the thing in my hand and I I put the light on from like
[44:32] this far away and it hurt like hell. And I turned the light off and it didn't hurt. I turned the light on and it hurt.
[44:40] And I thought, well, it's not an infection, but there is something going on. Maybe
[44:47] it's that the healing process is happening so fast that it's putting a lot of signals out on the nerves.
[44:53] I have a solution for that. But so anyway, I just decided I'm gonna just grin and bear it. And I I didn't put it
[45:00] right in contact, but I was holding it about this far away. And
[45:05] there was already a blister there. Yeah. Because usually after that you would get a blister. Yeah. And because
[45:10] you say you can prevent from the blister from forming. So So the blister
[45:17] stopped inflating. Okay. Started decreasing. Okay. In one minute or less, it was
[45:24] totally flat. And I'm thinking, that is freaking
[45:29] amazing. And and it still hurt. I kept shining it for another couple of minutes.
[45:36] And then I went, you know, three or four hours and the blister did not reform.
[45:42] M and I treated it again 3 hours later for a few minutes and it hurt but not nearly
[45:49] as much with the light shining on it. And then I treated again 3 hours later and it didn't hurt.
[45:56] And instead of the blister uh being all white and puffy and then
[46:04] there being a big wad of dead skin eventually and having to pop that and
[46:09] get the uh fluid out of it, it it was a kind of a darkish red. Um,
[46:18] and it just stayed dark red and slowly faded over days and then there was some
[46:24] dead skin at the top that came off. New skin was growing from underneath.
[46:29] So, it helped enormously like I Yes. But it was very painful. So, I don't
[46:36] like to tell anybody to do anything that's going to hurt and it's so I I
[46:42] have not put that in the instruction manual. Okay. For I have a solution for that. Oh, all right. So there's an herbal
[46:48] ointment we use in Chinese medicine. After you burn, you have burn, you just
[46:54] apply that directly because even like you don't do red light, it hurts right after you burn yourself.
[46:59] Yeah, but it hurts a lot more red light. So if that's the case, I believe because that herbal oil can reduce the pain.
[47:06] Oh, it might. So maybe if you combine that with a red light.
[47:11] I don't burn myself very often and I'm not going to do it just to do experiment with it, but If you happen to get a burn
[47:17] sometime, try it out. Okay. All right. That's what I'm going to try next time. So, I'm going to try the herpes when I feel the tingling and
[47:25] then I'm going to try the burn if I burn my hopefully I have enough time to gather all these stuff to apply at the
[47:32] same time. Okay. Want to hear one more interesting one? Yes. Okay. So
[47:38] every once in a while, almost everybody probably accidentally gets a paper cut, you know, so they hurt, they sting,
[47:47] right? And they can take a few days to heal. Yes. If you get a paper cut, it's a very
[47:54] clean cut. Um, and if you put a piece of tape on it, clear tape, that's taping the cut
[48:02] closed, and you treat it for 3 minutes. And then six hours later, another three minutes.
[48:09] And then the next morning, another three minutes, take the tape off and it's all healed. Oh, okay.
[48:16] So, does it mean if you have any skin scrape or anything? Scrapes are totally different because
[48:21] scrapes, a whole bunch of tissue has been removed and a bunch of tissue needs to regenerate. paper cut
[48:27] or if you had a surgical cut from surgery,
[48:33] the stitches, I have a feeling it would help that quite a bit, but I don't have access to
[48:40] people who've just had surgery. And the other thing is that usually there's a
[48:45] bandage there and the bandage doesn't let the light through, right? So
[48:52] uh there are these uh dermatological bandages now
[48:59] that are clear. Right. Right. Surgical sight bandages that are actually clear. If you had that kind of
[49:06] a bandage and you could get the light right on there, I would definitely treat that every six hours for a few minutes.
[49:14] Okay. And I think that would he that would speed the healing process a lot. Okay.
[49:20] And also next time I'm going to next month I'm going to try on somebody with ear problem.
[49:25] With an ear problem? Yeah. What kind of ear problem? Actually it's autoimmune. Do you ear?
[49:30] Yes. Meniers. Oh okay. So I'm going to try that. Don't know. Try it out. See what
[49:36] happens. Okay. It has been a great pleasure uh learning a lot from Lee and uh we can
[49:44] have more episodes coming talking about many other things he knows. So very nice
[49:50] having you here. Thank you for having me.