He introduces what we now call Planck 's constant, and it has the units of action. Planck 's constant, h is a quantum of action. Planck later proposed that any time any change happened in nature, it would be some whole multiple of this quantum of action.So it's kind of spooky, this breakthrough that starts the ball rolling toward quantum theory brings action in not energy
But besides that, it was over. But Planck didn't listen. By 1897, he was a professor himself, and for the next three years he struggled to find a theoretical explanation for blackbody radiation.
So any atom could emit any wavelength of light with an arbitrarily small amount of energy. But Planck tried restricting the energy so that it could only come in multiples of a smallest amount. A quantum. And he made the energy of one quantum directly proportional to its frequency.
So Einstein did that in 1905. And Planck did that about 10 years later. And everywhere along the way, until the mid 1920s where we really-- where physics really got to a theory, a quantum theory that was pretty well developed, people kept saying,
I'm a physicist, not a cartoonist. The Planck energy is the energy of which space and time become unstable.
Yeah. So what would be their wavelength? The wavelength is the Planck constant over the momentum, right? So if we calculate that, we come to around between 2 to 3 picometers.
But that, people had a hard time accepting. Even Max Planck didn't accept that. And Max Planck later wrote, well, that was one of Einstein's greatest mistakes, but he's really smart anyway.
Even Max Planck didn't accept that. And Max Planck later wrote, well, that was one of Einstein's greatest mistakes, but he's really smart anyway. So Einstein did that in 1905.
of what the Greeks called the "atom." You know, a-tom, "that which cannot be cut." They were in search of that final particle that size cells that are Planck -length size cells which have a number of these symbols in them.
And it's a combination or fundamental constants, H bar squared over me squared. H bar is Planck 's constant divided by 2pi, that's right. m is the math on electron and e is its charge.
So we can compare. This is the Planck data that was just released last year in its latest format. And it's really fun to just sit and flip these back and forth and see A+ for both experiments.
We also know that hand dominance is a factor. Researchers at Max Planck Institute for Psycholinguistics in the Netherlands have found that we tend to make decisions based on hand dominance. In other words, if you're right handed, you may be more likely to hire somebody who's sitting on your right side than who
And so it's a crazy star. And now the Planck satellite, the latest instrument, has observed the sky with even greater resolution.
opened up before me. He introduces what we now call Planck 's constant, and it has the units of action. Planck 's constant, h is a quantum of action. Planck later proposed that any time any change happened in nature, it would be some whole multiple of this quantum of action.
Atoms, molecules, even you yourself have a wavelength. And the formula for this wavelength is Planck 's constant, divided by the object's momentum, that is, mass times velocity. So here what you actually see, that's the column of the microscope where we accelerate the 300 kV electrons down.
I'm Matt Bongiovi, and I'm delighted to be welcoming, as our guest for today Gerd Gigerenzer. Gerd is director emeritus at the Max Planck Institute for Human Development and the author of several books on risk and decision making, including "Calculated Risks," "Gut Feelings," and "Risk Savvy." Throughout his career, he has trained judges, physicians, and managers in decision making and in understanding risk.
Today. Yeah, I would probably choose the computer. mostly by public money-- so the Max Planck Institutes are all funded by public money.
They know this whether or not they think with Schrodinger, for example, and I quote, "the material universe and consciousness are made out of the same stuff." Or whether they think with Max Planck , for example, I quote, "that consciousness is fundamental and matter is derivative from consciousness." I'm not sure I'd put it that way. Or whether they know with DeBroglie, the wave function guy, I quote, "that consciousness and matter are different aspects of one and the same thing.
This, for obvious reasons, became known as the ultraviolet catastrophe. The person to solve this problem was Max Planck , but Planck almost didn't make it into studying physics, because when he was 16 years old, he went up to his professor and asked him, well, maybe I could do a career in physics.
So here the spectrum must drop to zero. With this approach, Planck got a new formula for the radiation spectrum. Now all that was left for him to do was to tune the parameter h.
Electrons, basketballs, people, absolutely everything has a wavelength. And he defined this wavelength analogously to light as Planck 's constant, divided by the particles momentum or mass times velocity. Now, if an electron is a wave, the only way it could stay bound to a nucleus in an atom is if it exists as a standing wave.
It's made by atoms, whatever you want. The perspectival aspect that forbids a coherence down to the Planck constant scale.
At almost every step, people said this couldn't be true. This is ridiculous. Max Planck discovered kind of a trick to explain something called blackbody radiation, that was important around 1900 in physicists' minds. And everyone could see that his theory worked for that, but no one really thought it was a theory that had any more
might have an avatar in "World of Warcraft" or "Second Life." Consciousness exists outside the simulation. And so when you look at some physicists like Max Planck , who is one of the founders of many aspects of modern physics, he says he views consciousness as fundamental and matter as derivative.
And what does a rendering engine do? Do we have pixelated space-- going back to Max Planck .
And what does a rendering engine do? The smallest physical distance we can measure is called the Planck length.
So he made his equation ugly for 10 years. Rutherford died. Max Planck , the great physicist, once said, "You never out argue your opponents, you out live them." And that's something.
That is, until a 26 year old patent clerk came on the scene. In 1905, Albert Einstein claimed that Planck 's theory wasn't just a mathematical trick. It was telling us that light actually comes in discrete packets, or photons, each with an energy HF.
I'm a physicist, not a cartoonist. Type three, you can access the Planck energy.
of what the Greeks called the "atom." You know, a-tom, "that which cannot be cut." They were in search of that final particle that was truly indivisible. And perhaps with the Planck length, it's not so much the particle but it's the fact that we know how small a particle can be.
Another example, quantum mechanics. So if you think of the birth of quantum mechanics-- so Max Planck famously said that it was an act of desperation. He really want to save the laws of physics, and he had to do this crazy thing.
And there was an important mission that released its data recently called Planck that was an all-sky map at a relatively long wavelength.
And this was done by a team of two German scientist from Max Planck Institute, where one of the experiments involve the experimenter trying to dry clothes
And big data is the wrong idea here. So what we have done is, at the Max Planck Institute together with colleagues in England, we have done what I call psychological AI. So what does it mean?
I'm a physicist, not a cartoonist. By the time you're type three, you have access to the Planck energy.
radiation. This is the map of the whole sky as seen by the Planck satellite, our latest instrument for this.
An interesting spin off from my post-doctoral research was a collaboration with astronomers from the Max Planck Institute now at Cornell University.
And suspicion started to fall on dust from our own galaxy. Last fall, in Europe, this Planck satellite dimension that had the 50 megapixel picture of the baby universe released some data saying, yeah. It might be that everything they saw was dust, or maybe half of it.
chances are it came from his lab, the Max Planck Institute in Leipzig, Germany.
I could go into all kinds of different ways that that is demonstrated-- the Einstein-Podolosky-Rosen Experiment, the validation of Max Planck 's unified field
And they're planning-- there's a group, particularly in Germany, called the Max Planck Institute for Ornithology that are planning to deploy enough sensors that you get