Red lights preserve brain cells…and make more of ‘em

Prof John Mitrofanis gave an excellent presentation today to clinicians at the Royal Hobart Hospital.

He took the audience through the ten plus years of research into red lights and Parkinson’s in animal models.

Continue reading “Red lights preserve brain cells…and make more of ‘em”

Pulsing light and Alzheimer’s disease

I’ve been reading articles suggesting that Alzheimer’s disease is linked with a disruption of brain wave patterns, especially the gamma waves which are predominant in the brain when we are concentrating and focussed.

One group increased gamma wave activity in Alzheimer’s mice by pulsing light. In this research, it wasn’t the light that was of interest to the researchers, it was the pulse rate. They used 40Hz, in the gamma brainwave frequency range.

Here is a great report about that experiment and it’s implications.

stimulating neurons to produce gamma waves at a frequency of 40 Hz reduces the occurrence and severity of several Alzheimer’s-associated symptoms in a mouse model of the disease. 

It seems that pulsing the light does more than enable red light to penetrate more deeply into the brain. Pulsing at 40Hz seems to stimulate the brain’s immune and clean-up cells, the microglia to get cracking with brush and pan.

I have visions of microglial cells dancing to the 40 Hz rhythm as they clear up brain rubbish, including the proteins that accumulate in Alzheimer’s – amyloid and tau.

In 40Hz pulsed red light, the brain gets the benefits of the red light action inside the cells, and the benefits of brain-protection activities stimulated by brainwaves responding at 40Hz.

Fascinating stuff, isn’t it.

Meanwhile, if you are feeling worried that your Eliza or Cossack doesn’t pulse, don’t fret. The daily light dose is doing its work. More.

What wavelength is best for my condition?

If you have looked at the availability of rolls of red and near infrared LED lights, you will see that there is a bewildering array, between orangey-red (630nm) to out of the visible spectrum so that you can’t see it at all (940nm).

So what, you ask. Surely it doesn’t matter? Surely red light, near infrared light – it’s all the same? One wavelength is as good as another?

Wavelength matters – please be cautious!

Continue reading “What wavelength is best for my condition?”

Introducing the Coronet

The ABC story showed photos of Ron Brown and me.

On the right hand side of the picture, you can see an Eliza bucket light hat, like the one Max Burr now uses.

In the middle you can see what look like coronets. Which is what we call the light device we have designed. It doesn’t have jewels on the outside, but it has fabulous pulsing individual LED lights, all controlled by sophisticated firmware.

Ron is an electronics engineer and he the genius behind this astonishing design.

  1. It is very lightweight – around 125g.
  2. It can be quickly set up to fit different head shapes, large and small.
  3. Each of the eight legs has two rows of individual LED lights, one is 670nm and the other 810nm.
  4. The Coronet has special firmware that allows us to modify key parameters:
    power pulse rate – timing – location of the light on the head
  5. It also comes with an app for android phones only (sorry, iOS users), which allows the user to pause and resume a session  –  see how long here is to go before the session finishes  –  see the technical details of what the device is doing while you wear it   –  monitor your own progress using a tremor-test and reaction test.

For Parkinson’s disease, we ensure the settings we think will work the best, based on what the research is currently indicating, for example:

  • pulsed light is far more effective than continuous red light.
  • 670nm followed immediately by 810nm works better than either alone or both together

We might be biased, but we believe the Coronet to be the most sophisticated light device available now for people with PD to try.

We have nearly sold out our first batch but will be ordering more.

If you would like more information please contact us here.

Who should get the credit?

The original research grant application would have seemed odd – to shine red lights on mice. But look what that research has given us.

With all the media attention on red and near infrared lights, let’s celebrate the people who meticulously documented the effects of red and near infrared light.

Professor John Mitrofanis, University of Sydney.

Prof John has been the driver – he recognised that the problem in Parkinson’s Disease was cell battery malfunction – the mitochondria.

The first paper describing the effect of red light on Parkinsonism mice was published in 2010, nine years ago. The animal evidence was convincing way back then. Continue reading “Who should get the credit?”