AISubs v3.7
Yaro...te...te...te...ryo and...
- Ryoma and... - Shime!
So, today we're going to be learning together with Baka.
It's a strange story, isn't it?
I've been active for about ten days now.
If we talk about my academic ability, I'm definitely not good at it.
But Ryo and Tetsuya...
I mean, Ryo and Tetsuya can do exactly what I tell them to do, right?
- Well... - Well...
For example, "Remember this," or "Do this within the time limit,"
you guys were able to leave a clear result, weren't you?
So I thought, "Why couldn't they study?"
- I'm happy for you to say that. - I'm happy, too, but...
I think we use our brains in different ways.
But in the end, studying at school isn't about remembering what you're told to do or not.
- It's supposed to be. - It's like a project.
- Well, yeah. - It's supposed to be, but it's not.
So you guys definitely have a "smart" side to you.
- I have a good memory of it, too. - So why can't you make use of it?
Why couldn't you make use of it in your studies?
- I thought it was strange. - What about me?
- Wait, Shizu-san. In other words... - Huh?
- This time... - Can you hear me?
- "Do your best!" - I see.
Let's listen carefully to the lessons we're about to teach for an hour.
- That sounds good. - I think you guys are smarter...
- than steamed glasses. - If you plan and do it.
- That's right. - I think you guys didn't have motivation.
- That's true. - That's true, too.
Let's do our best for an hour.
- That's all we can do. - That's all we can do.
- We have to go to bed by 5 or 6 PM. - That's right.
- Let's do it for 6 hours. - Let's do it for 6 hours.
- So we're going to call a teacher... - We're going to call a teacher...
- and have them teach us for an hour. - Yes.
- And after the lesson is over... - Yes.
- we're going to have a simple test. - Yes.
- I think you guys did pretty well. - You two, right?
- If that's the case... - What about the other two?
- I think you guys didn't have motivation. - I don't think you guys had motivation.
- What about me? - I think you guys did pretty well...
- because you've done it before. - We're here because we're stupid...
- so we can hear stupid voices. - What about me?
- Some of you are here for a target experiment. - I came here because you called me...
- but I didn't know you guys would treat me like this. - But we've been together for 10 years.
- I think you guys have some elements... - that make you think you're smart.
- You two, right? - What about me?
- You guys have some elements like your brain. - Maybe I'm...
- an Ultraman monster? - Is there something like that?
- I called a teacher because I wanted to take this lesson. - Yes.
- She's really smart and she knows what I know. - She has a lot of knowledge.
- So I asked her if she could teach me for an hour...
- and there was only one person in Japan. - There was only one person?
- I called a teacher. - Yes!
- Hello, I'm Emei Narumiya. - Nice to meet you!
- You're the only one in Japan. - Yes, I was told three days ago...
- that I'm the only one in Japan who can teach for an hour. - That's true.
- I think that's your mohair. - I heard you were going to teach three people...
- so I'm excited. - Did you say three people?
- I'm missing out! - Hey!
- What's the difference between someone who can study and someone who can't? - That's true.
- It's how much you were able to concentrate when you were a student. - I see.
- You didn't concentrate at all. - You didn't concentrate at all.
- I think it's just about concentration. - Yes.
- I think there are a lot of people who know a lot after they become adults. - I see.
- In fact, today's topic is really hard for me. - It's hard!
- If you don't take the test you're preparing now, you'll definitely get 0 points. - Really?
- That's how hard it is for people who only know about it in class. - That's interesting.
- If you don't take it, you won't be able to go home. - I see.
- I want you to give me a dream. - I want you to be able to study again after you become an adult.
- I came here with the feeling of trying it out. - I see.
- I think people who are watching this... - I see.
- will be smarter if they just concentrate. - That's right.
- If you don't do well in your first test in middle school... - I see.
- you'll give up and say, "Oh, I was born with a bad brain." - I see.
- That's not true. - I see.
- I want you to show me that you can get 0 points even if you're a genius. - I'll become a star of hope!
- So, can we start now? - Yes!
- The class has already started. - The class has already started!
- It's been a while. - If you don't chime in, it's a bit...
- Shut up! I don't care about you! - Wouldn't it be better if you chimed in?
- You're the type of person who doesn't like extra seats.
- I'll teach you some tips that will stay in your memory for a short period of time.
- First of all, I recommend you take notes honestly.
- I think it's quite different to raise your hand and ask something and not move your head. - That's right.
- That's why I prepared a notebook and a pen for you. - Wow, I didn't know it was a class.
- It was usually chopsticks. - Chopsticks or PSP or something like that.
- Why are you a girl? - The other tip that will stay in your memory is...
- I think you'll ask a lot of questions in class, so please come with all your might. - I see.
- I have one request for you to make it easier for you to do it. - Yes.
- You don't have to say anything when you're on whiteboard, right? - Oh, of course.
- Are you a teacher? - Yes, I'm a teacher.
- I think it's easier for you to ask questions. - I see.
- Well, Tetsuya, are you ready? - Oh!
- Yes, I'm a teacher! - You're funny.
- You're only a year older than me. - I feel like I'm a teacher all of a sudden.
- I was a little scared just now. - Are you too close to a teacher?
- I'm a sports teacher. Are you scared of me? - I'm scared of you.
- Okay, let's get started. - Yes, please.
- First of all, this class will be about the Nobel Prize. - Nobel Prize!
- Actually, there are various fields in the Nobel Prize, but do you know what fields there are? - Economics!
- Oh, I know economics. - Literature!
- Physics! - Yes, physics.
- Something like science. - Yes, I know science.
- Well... P.E. - Nobel Prize.
- That's right.
- It's not like P.E., but it's still close. - Oh, I know!
- Oh, I know! P.E. - That's right, it's P.E.
- There's also economics, which is a little different. - Oh...
- In this field, there is my specialty, which is physics. - Oh...
- This is my specialty. The Nobel Prize started in 1901.
- Who here has heard of the first Nobel Prize won in physics in 1901?
- I'm sure you know the name of it. - Edison!
- Oh, it's a good feeling, but it's like that. - Einstein!
- Einstein, but it's a good feeling. It's really narrow. - Newton!
- Newton is good, but it's actually more minor. - Galileo Galilei!
- It's more minor. - Is it too high?
- I think you'll hear about it in hospitals. - Oh!
- Dentogen! - That's correct!
- Dentogen-san? - Yes, in 1901, Dentogen won the X-ray discovery award.
- First of all, I'd like you to know about the historical background of this research.
- Until now, light and electrons were thought to be different things. - Oh, that's bad.
- I know what you're talking about. - Light and electrons were named the same thing, but they were actually the same thing.
- That's what's in the historical background. - If you look at light, you'll get confused.
- That's right. - You're not a Pokemon.
- People say, "Huh? Light and electrons were the same thing?"
- I want to know more about it, and I want to know more about it, but everyone said the same thing in this era.
- There was an experiment tool that people were addicted to. It's called an "introductory tube."
- People thought something was coming out of it.
- It's because this side shines a little.
- I don't know what you're talking about.
- Suddenly, you said something weird like that, and people thought something was coming out of it.
- I think it depends on who made it.
- Are you being scammed right now? - I don't know what you're talking about.
- Everyone was paying attention and studying what it really was.
- That was one of the events.
- But one day, when I was about to take a break from drawing with Kuroiro and said, "Well, it's over,"
- It was shining somewhere else than this introductory tube.
- Huh? - Wow.
- I was like, "Huh? Kuroiro didn't draw it, so it shouldn't be shining."
- I looked it up and looked it up.
- After that, I noticed a lot of things.
- It shines even in books over 1,000 pages. - Wow.
- It shines even in glassware.
- It shines like crazy. I was like, "Something's coming out of it."
- I didn't know what it was back in the day, but for now, I know what it is.
- Do you know the symbol you put on something unknown in mathematics?
- Do you know algebra? - It's x. - It's x, right?
- That's why it's unknown, so it became x. - Oh, I see.
- I'm going to do a lot of things I can't do with this.
- Since it has such a high luminosity, I enjoyed a lot of things like this.
- Thick books and glassware.
- And I put my wife's hand on a fluorescent board and x-rayed it.
- And what I got was...
- It's what we imagine when we think of lenticular photography.
- The bone and finger didn't melt, so only that part turned white and I got the picture.
- Wow. - Wow.
- I know what x-ray is now.
- It's a part of electronic photography.
- The reason why I thought it was completely different is...
- Even though electronic photography is electronic photography, the length of the wave was different.
- So there are waves, right? I'm going to draw one.
- It's like this. - I know that.
- It's the same wave, isn't it? - It's the same wave.
- The length of the repeating pattern is called "wave length". - The shape changes between short and long waves, even in the same electronic wave.
- I would like to compare the wave length from a small one to a large one. - The color we see on the left is called "wave length".
- Among the wave lengths, the large one, which is always long, is called "wave length". - For example, this is red.
- The small wave length is purple or blue. - The wave length with short light is more intense and has higher energy.
- On the other hand, the wave length with large energy is smaller. - If you listen to it as a set, you can find interesting things.
- For example, there is something like UV rays. - UV rays are invisible to the eye.
- Even if there is a lot of UV rays in summer, you can't see the purple light. - That's because we're out of sight.
- Therefore, UV rays are smaller in wavelength and have higher energy. - Since it's purple on the outside, it's called "UV rays".
- Oh, I see. - It's not one step closer to politics.
- Red line. - That's right.
- UV rays are those that are off the red side. - Interesting.
- I don't think there is such a thing in another school. - I don't think there is such a fun class.
- The more powerful electromagnetic wave is the X line. - Oh!
- So, from now on, when you say "sudden electromagnetic wave", you just think that the wavelength is different. - Hmm.
- This is the X line, which has a lot of energy and has a small wavelength electromagnetic wave.
- By the way, the Nobel Prize is like this. Every year, the hottest person wins it, so it's fun.
- I also explain it in a video every year. I make a video the day it comes out. - Do you know that?
- So, I'll do my best without sleeping that day. - Oh.
- As soon as it comes out, I'll collect all the knowledge I know and all the information and documents that are circulating on the Internet and publish it to the world.
- That's amazing. - Where do you look for Apple's new book cover?
- That's amazing. - By the way, I made a mistake in 2019.
- I'm still doing it in front of the blackboard, but in 2019, I was in Thailand and I was at the airport the moment it was released.
- But I couldn't make a video for hours from the airport, so I made a video in the airport.
- Oh, that's funny. - Yes, I made a mistake.
- That's amazing. - Yes, it is.
- I'm curious about that video. - Yes, only in Thailand.
- Are you good at something or bad at something? - Because I'm a foreigner.
- For an airport, a normal train is usually a Bangkok one. - Only in Thailand.
- Thank you very much. - I just woke up.
- Can you teach me how to ride a train? - Yes, of course.
- In 1913, there is a thing called "chodendo". - Chodendo?
- Someone called "ones" found it. - What is "ones"?
- Is it the one with money in it? - What "ones" did is...
- They like to cool things down. - What does "ones" mean?
- Do you like to cool things down? - Yes, I love to cool things down.
- Do you wake up when it's too cold? - Yes, I wake up when it's too cold.
- What "ones" did is... - At first, they created a liquid helium.
- It's a very cold liquid. - How cold is it?
- It's - 269 degrees Celsius. - Is it colder than liquid nitrogen?
- Yes, it is. - It's - 269 degrees Celsius.
- Can you write down liquid nitrogen? - Liquid nitrogen is - 196 degrees Celsius.
- Why is it so strong? - It's the smallest temperature limit in the world.
- It's called "zettairendo". - It's - 273 degrees Celsius.
- It's the limit in the world. - There is a limit to temperature.
- It's because of the intensity of things moving and the vibrations.
- For example, there are many small elements on the desk.
- The temperature is determined by how much it is shaking.
- So, hot flasks and other things move violently in a mess.
- If they stop, it will be the coldest temperature.
- So, when it's stopped, it's - 273 degrees Celsius.
- It's called "zettairendo". So, it's about the same temperature as liquid helium.
- So, what did they do to make a liquid that was insanely cold?
- They cooled things down. What they cooled down was...
- They cooled down mercury metal.
- Do you think it's mercury at first?
- I think it's meat.
- It's like a chocopie. - It still touches you.
- It's still moving. - Everyone wants to measure electric resistance with mercury, right?
- Huh? - Oh no, oh no. - He suddenly left it behind!
- This is it! - Why do you want to measure it? - You want to measure electric resistance, right?
- Why? - I'll look up electric resistance. - He's saying it.
- Can I write it down? - When the temperature gets lower, I look up mercury resistance and it suddenly becomes 0.
- Huh? - It suddenly became 0. It really became 0.
- So you can use electricity without electric resistance. - This is called "superconductivity".
- Oh, superconductivity. - Yes, superconductivity.
- As I said earlier, this technology allows you to use electricity without energy consumption.
- It's said that if you can use this technology well, you can go anywhere.
- If you happen to find mercury, and if you keep cooling metal in the same way, superconductivity is confirmed even in liquid or lead.
- OMES discovers this. So superconductivity is discovered and received.
- This is also called "measurement". For example, there is a famous example of water becoming ice.
- Water suddenly becomes ice at 0 degrees, right? - Yes. - Water vapor at 100 degrees, etc.
- That's also called "measurement". The state of things suddenly changes.
- Let's move on to 1921. There is a phenomenon called "superconductivity".
- It's Einstein. - Oh, okay.
- Before I explain superconductivity, I want to talk about Einstein's greatness.
- Isn't Einstein famous for something else other than physics?
- What kind of researcher did Einstein have an image of? - Relativity theory.
- That's great. Relativity theory by Einstein.
- It's "e.all". - No, it's "f.sys".
- It's "relo".
- As you just said, it's not superconductivity, but relativity theory.
- Actually, superconductivity theory was announced in the same year as the year the paper was published.
- But relativity theory hasn't been approved yet. - I see.
- So I want you to know this first.
- In 1905, a researcher called it "miracle year".
- "Miracle year". - "Miracle year".
- One of the relativity theories we just talked about is called "special relativity theory".
- The second one is called "superconductivity".
- The third one is called "reverse motion".
- The special relativity theory we just talked about is a part of relativity theory.
- It's a theory about time and space.
- It's one of the revolutions that changed people's perception of time and space.
- It's called "reverse motion".
- It's based on the existence of atoms and molecules.
- Wow.
- Atoms and molecules used to be fake.
- They didn't work.
- So they decided to make it real.
- Even Einstein did it.
- Wow.
- Even Einstein did it. - Even Einstein did it.
- Einstein is amazing.
- I want you to admit that you're a genius.
- I haven't approved it yet.
- I'll explain it.
- There's metal.
- You shine a light on the metal.
- It won't be interesting if you just hear it.
- But you'll understand it.
- If you shine a light on it, electrons will jump out of it.
- Yes, if you shine a light on it, electrons will jump out of it.
- That's why it's called "light bulb".
- It doesn't sound interesting, but I couldn't find a reason for it.
- I couldn't explain it.
- I couldn't explain it because...
- Do you think light is an atom or a wave?
- I think it's a wave.
- I just wrote it down.
- People have always said it's a wave.
- There are many things that show the nature of a wave.
- For example, light is a wave.
- Electrons and atoms are the same thing.
- At that time, scientists also decided that light is a wave.
- However, Einstein was too unique.
- He said, "Let's forget about waves for now."
- And he said, "Let's think about atoms."
- That's amazing.
- Even though he already had a common sense.
- He made a hypothesis.
- That's amazing.
- He's a genius.
- We call it "high-value hypothesis".
- People have always said light is a wave.
- I want to say, "Why do you think it's an atom?"
- But the moment you think it's an atom...
- You can explain this phenomenon very well.
- That's why it was successful in explaining.
- The hypothesis of high-value hypothesis...
- Explained the effect of light on electricity.
- What's amazing about it is...
- Light is both a wave and an atom at the same time.
This way of thinking is the basis of modern physics.
In modern physics, the thing that shows which one is light and which one is an atom is called "atom".
If you keep pushing the small things that are at the foundation of the world, an atom will appear.
Light is both a wave and an atom at the same time.
This part is quite difficult.
It is not about which one is right or wrong, but which one is bold.
In 1935, the discovery of neutrons...
Wow, I've seen this name a lot in space quizzes.
You're studying space, aren't you?
You're the strongest in U.I.S.Q.T.
The discovery of neutrons was by Chadwick Dixon.
I'd like to confirm the structure of the atoms we know now.
Everything you make is made of atoms.
The atoms of your hands and fingers are made of atoms.
But what they look like is...
There's an atom in the middle.
And there's an electron spinning around it.
This is the basic structure.
It's like the sun and earth.
It's a pretty mysterious structure even in such a small world.
If you look at the atomic number more closely, you'll see two types of atoms.
One of them is the one with a positive electron.
This is called an atom.
The electron has a negative electron.
Another atom is the one with a positive negative electron.
This is the basic structure of the atoms we know now.
Chadwick Dixon discovered this positive negative electron.
He's been saying this for a long time.
Isn't there something like this?
But historically, what happened was...
When you hit something you don't know...
There's something that pops out of this container.
Something you don't know?
I don't know what it is, but I'll give it a try.
When you hit an object, most of it goes straight.
It's hard to think of anything else that goes straight like this.
Usually it hits something and bends, but it only goes straight.
What is this?
Sometimes it pops out of a paper.
This is amazing.
Electrons and papers are quite different in size and shape.
But papers are really heavy.
It's about 2,000 times heavier.
There's something that pops out of a paper like that.
So, in theory...
If it goes straight like this...
I think it doesn't have electricity.
If it had electricity, it would rebound.
Or it would be pulled by force and bend.
So I think we don't have electricity.
Also, since it pops out of a paper...
I think it's about the same size as a paper.
That's why we can find something like this.
Even if you fix it, you can still find it.
How did you find it?
How do you have it?
I don't know.
If you hit a particle with it, it will fall apart.
There's something like that in a broken object.
If you collect it like this...
Even if you collect it, it will fly away.
If you collect it and chase it away...
There's something like that.
It's the smallest one.
You can't see it, can you?
You can't see it with your eyes.
Even if it's the smallest one, it will scatter even more.
But you can make a device that leaves traces of it.
You can't see it with your eyes, but you know you hit it.
You know you hit it.
That's how it's found more and more.
Chadwick fixed it and found it.
When you connect a particle and a fixer...
Even in junior high school, there are about ten people who think it's strange.
There are people who don't think it's strange.
I learned that "plastoplast is repulsive".
So it's true.
It's really strange.
Plastoplast is repulsive when you look closely.
You think there's something stuck together.
That's the middle particle.
Fixer and middle particle?
Yes.
It's like a test.
So the role of the fixer is like glue.
Plastoplast sticks things that are supposed to be repulsive.
- Let's go back in time and go back to 1972. - That's a long time ago.
- Three people won prizes. - What?
- They were called "BCSL" or something like that. - Oh, so that's what it was like.
It's easy to remember the names of the winners.
- The winner was Bardeen. - Bardeen is crazy.
- Bardeen. - And Cooper. - Cooper.
- Schlieffer. - Whoa!
These guys did it on purpose, didn't they?
The reason for this is...
What do you call it?
Superconductor!
Yeah!
It's huge!
This is the theory of superconductors.
Before superconductors, experiments were first.
Therefore, no one could explain why electricity resistance became zero.
So we made a theory of superconductors.
But we also made a theory of micros.
This is the first theory that explains superconductors at the level of electronics.
It's called BCS theory.
It's still used today.
I'll tell you what it was like.
It's physically very strange for electrons to move forward suddenly without electricity resistance.
Because there should have been a resistance if you hit something on the way.
There was a way to get through without hitting anything.
Two electrons were considered as a way to get through.
Electrons.
This is a mysterious force that occurs when other electrons around it are distorted.
It's called Cooper's law.
Don't forget that matter is a crystal.
The atoms are lined up correctly.
And the things around it that make it up are called electrons.
When electrons pass through, they distort it a little.
Electrons mainly have positive electrons.
When electrons pass through, they are pulled back a little.
And this structure is distorted.
It's quite difficult to understand.
By making up an image like this, electricity passes through more and more.
This is a strange thing.
Instead of electrons and atoms reacting, electrons and atoms should have reacted.
This is a strange theory that can be explained without reacting.
It's very difficult to choose a theory like this.
But I've been able to explain many superconductors.
This is a future topic.
What I can explain with this is only superconductors that are very cold.
Recently, higher superconductors have been found.
There are superconductors that are okay at the level of liquid nitrogen that does not require liquid cream.
However, as temperatures get higher and higher, there are phenomena that cannot be explained in BCS theory.
That theory is not yet possible.
So, the theory of superconductors may still be useful for you.
I found a chance.
There is a chance.
There is a chance for something special to occur.
I found a Nobel Prize.
There is no doubt about the Nobel Prize.
There is no doubt about it.
Finally, this is the last topic.
It's been about an hour.
I didn't know that.
It's a discovery of an alien planet.
The person who won the prize is a person named Mayol and his student is a person named Kerol.
What is an alien planet?
An alien planet is a solar system.
Is there a planet outside of that solar system?
This has been one of humanity's questions for many years.
Even if you look up the solar system well and do your best, it doesn't seem like there is one.
But I don't think we need to narrow it down to the solar system.
There are many other possibilities.
For example, when you look outside at night and there is light shining, it's all possible.
One of them is like the sun.
But what I want to know now is that there may be planets orbiting around the stars, not stars.
I want to find out about planets that are not absolute in the naked eye.
That's what we call an alien planet.
This has been a question for many years, whether it exists or not.
First of all, Mayol decided that there were no planets.
He said that there were no alien planets in the range he surveyed.
You can't get a Nobel Prize for that, can you?
But Kero, that student, got it in an instant.
Really?!
I'll tell you why.
We basically know only about the sun system, so we think of the sun system basically but ...
Mercury, Uranus, Venus, Scorpius ...
We only know about the solar system.
I think there are other planets out there, and I probably know about this shape.
There is such a theory.
There is such a theory that shapes are made like this, so I believe in it.
I believe in it more than before.
And in this, Jupiter is convincingly big.
If you want to look for something really small in the distance,
well, you can't find it from Jupiter, which is normally long.
Because it's big.
So at first I tried to find a planet like Jupiter.
And Jupiter revolves around Saturn.
It's called the high point, and the cycle of the high point is about 12 years.
Of course, Earth is one year.
Jupiter is shorter, about three months.
Even if you think about it intuitively, it works more strongly, so you can think of it as spinning faster.
So basically it's bigger and bigger.
In Mayol, if you want to find something like Jupiter,
they searched for one structure for 12 years.
If you have a structure and you take data while students spin for 12 years,
if there is any change there, it may be evidence of students.
So they did a lot of work that takes a lot of time.
And they spent 12 years trying to find it.
Wow.
What did you find?
Then there was no change, nothing.
So I say, "No, there weren't any students."
However, the fact that Kero entered as a student means that in that short period of time,
Kero entered as a student.
The reason for this is that the planet around the structure that Kero was looking at was spinning insanely fast.
How fast was it?
This is about four days.
It's fast.
There shouldn't have been such a thing in the conventional concept.
However, they discovered a case where a huge guy was spinning around the structure and found the planet in that insanely short period of time.
Then I will introduce you to two ways of actually finding planets outside the solar system.
One is the line of sight speed method.
Line of sight speed method.
The other is the transit method.
Both are insanely intuitive and easy to understand.
This is a structure.
I don't think it's a big structure.
And maybe the planet is spinning around it.
The planet is small and doesn't look like this.
It may be spinning.
It pulls the structure a little.
For example, if you throw a hammer and it gets pulled by the hammer a little, it's the same.
Even if it's a very heavy one, sometimes it has a little influence on the structure.
This one is also pulled and moves a little.
This is the point.
What kind of star is a structure?
It's a star that shines with its own light.
And now we're back to the wave story.
Other than machines, waves are famous for sounds.
It's a wave called "sound wave".
When an ambulance approaches, the sound gets louder, doesn't it?
It's called "Doppler effect".
I'll explain why.
The sound is also a wave.
And there's an ear here.
And this is a sound source.
For example, an ambulance is an ambulance.
When an ambulance approaches, the sense of the wave narrows, doesn't it?
Then it's a vibration wave.
If you have a high vibration, you can hear a high sound.
This also happens to waves called light.
The heart rate of light changes.
It's not just about sound, is it?
Yes, it happens all over the wave.
When the structure moves a little and approaches, it becomes larger than the original vibration of light.
When it's far away, the vibration of light becomes weaker.
In this way, a little movement can be confirmed by the vibration of the wave.
It's a very precise device, but you can capture the movement of the structure like this.
This is what we call "visual speed wave".
There's one more more direct one.
It's called "transistor wave".
It has a structure.
If there is a planet, it will turn sideways in front of you, like this.
If you look at it from the outside, you can see how the brightness changes.
If you don't wear it in the direction you're looking at, it's bright.
The brightness should drop a little the moment you wear it.
If you look at the brightness and it gets dark the moment you turn sideways,
If you look at the pattern, you can see how fast and where it is turning.
I think "transistor wave" is chasing the moment it gets dark.
Actually, at first, there was a big news that there was only one solar solar system.
I found one interesting thing and it was found in an instant.
The reason is that everyone was too attracted to solar models.
I thought I might have one of my own and I showed it to someone who already had one.
That's it for our one-hour class.
Wow!
This is fun!
Teacher!
I've never clapped for a teacher in my class before.
It wasn't good.
The problem is whether or not knowledge can be tested.
It's hard to say that.
There's no one here, so it's no good.
I'll give you the test, so please take a look at it.
I'm sorry for making it for you.
Thank you very much.
It's a big deal for a collaboration item like this.
It's not for us.
You're making it easier for me.
Let's start the test.
It looks like it's starting.
I'm glad I didn't watch the anime during the test period.
It's going to be like this.
It's okay.
Let's do it together.
Are you ready?
It's difficult.
Let me ask you a question.
Okay.
It's a question about whether Denziger should line up in order of magnitude.
In order of magnitude,
Sekigaesen, Kashikobu, Shibaesen and X-sign are in order of energy.
That's right.
It's just the opposite of order of energy.
That's right.
I made a mistake.
But the level of mistakes is high and it's cool.
I wrote it in order of energy.
That's right.
It's cool.
It's in order of energy.
I made a mistake.
It's the opposite of order of energy.
But the level of mistakes is low and it's cool.
Let me ask you a second question.
The name of the metal that was first identified as Denziger is...
Silver.
Let me ask you a third question.
What is the name of the metal that was first identified as Denziger?
The name of the metal is Erythronium, so it's E-c- s-e- r-y-t-h-o-n-e.
I suddenly feel like I don't know it.
It's B-c-s-e-r-y-t-h-o-n-e.
Let me ask you a fourth question.
The name of the two electrons that were born in B-c-s- e-r-y-t-h-o-n-e is Cooper's law.
What is the name of Cooper's law?
Cooper's law...
Did you say it already?
Cooper's law...
You sound like an old Japanese man.
You sound like a human being.
Then, Cooper's law is wrong.
What!?
Let me ask you a fifth question.
What is the absolute zero degree and how many degrees are there?
The answer is -273 degrees, which we introduced in this video.
By the way, if you don't have a negative number, you're an enemy.
That's an enemy!
Of course, you're an enemy!
I didn't have a negative number!
You're amazing!
Let me ask you a sixth question.
This may have been the most difficult one.
What is the name of the metal that was first identified as Denziger?
Light, atoms, hypothesis.
It says "light", "atoms", and "hypothesis".
Let me ask you a seventh question.
There were two answers other than Einstein's theory introduced in 1905.
One of them is special relative theory.
The other one is Brownian theory.
Let me ask you a eighth question.
What is the name of the two atoms that make up the atomic nucleus?
The answer is different between atoms and neutrons.
Let me ask you a ninth question.
What are the two main directions in which atomic nuclei are found?
They are speed of sight and transit.
Let me ask you a tenth question.
Water, earth, and planets are arranged according to this standard.
However, this standard was small until recently.
So, according to this standard, planets, earth, and water...
Are we starting with water?
That's right.
Let me announce the results.
Okay.
Kawaii Taiki got 95 points.
Wow.
For now, Tetsuya got 90 points.
Fukuo got 80 points.
Chimpoko Taro got 65 points.
(Laughing)
It's not even close.
I'm sad that I got minus and brain and got 20 points.
That's sad.
Tetsuya got 90 points.
That's right.
He got 90 points for the Nobel Prize in Physics.
That's amazing.
If I were to give a standard question, I wouldn't be able to get this point.
That's right.
If you gave a question for about an hour, you would be able to answer it.
Only people who can answer it every hour were strong.
That's right.
That's where talent and sense come in.
That's right.
I don't think anyone is stupid.
I don't think anyone is stupid like you.
I think I was able to show that side of me today.
Of course, I had fun listening to Yorinori's lecture.
Studying is fun.
I don't know if you enjoyed it or not.
There are people who enjoyed it a lot.
There is also a teacher gacha.
There is.
The best gacha right now is like this.
It's like you gave it out.
It's like you're introducing it.
I think there is also a teacher gacha.
I don't think I can study with videos right now.
That's right.
I can't make excuses for gacha.
I see.
Gacha is gone.
I have no choice but to buy it on Biola.
Thank you for today, Mr. Yorinori.
Thank you.
If you don't want to be like me, just focus on studying for an hour.
Good luck.
Goodbye.