Stuff You Should Know - Solar Power: The Future or What?
Episode Date: August 13, 2019We’ve been promised solar energy for a while now – where is it? Turns out, it’s been quietly and steadily growing across the world. And with a few breakthroughs, we just may be able to say goodb...ye to fossil fuels. Learn about sun-based energy in this episode. Learn more about your ad-choices at https://www.iheartpodcastnetwork.comSee omnystudio.com/listener for privacy information.
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On the podcast, Hey Dude, the 90s called,
David Lasher and Christine Taylor,
stars of the cult classic show, Hey Dude,
bring you back to the days of slip dresses
and choker necklaces.
We're gonna use Hey Dude as our jumping off point,
but we are going to unpack and dive back
into the decade of the 90s.
We lived it, and now we're calling on all of our friends
to come back and relive it.
Listen to Hey Dude, the 90s called
on the iHeart radio app, Apple Podcasts,
or wherever you get your podcasts.
Hey, I'm Lance Bass, host of the new iHeart podcast,
Frosted Tips with Lance Bass.
Do you ever think to yourself, what advice would Lance Bass
and my favorite boy bands give me in this situation?
If you do, you've come to the right place
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Hello, Maine and Greater New England.
Hello.
We're coming to see you guys in Portland,
and we can't wait, we would love to see you there.
Yep, we'll be at the state theater on August 30th,
and if you're interested, you can get tickets
and information at sysklive.com.
There's some lobster at us.
Welcome to Stuff You Should Know,
a production of iHeart radios, How Stuff Works.
Here we go.
Hey, and welcome to the podcast.
I'm Josh Clark.
There's Charles W. Chuck Bryant.
There's Jerry over there.
The sun is shining.
Our collars are popped.
Tongues of our shoes are hanging out.
And it smells really nice in here.
That's right.
Which must mean one thing, Chuck.
It's time to talk some stuff you should know, shiz.
Some shizat.
Can I say that?
Sure.
All right, good.
Well, I just did, didn't I?
You did.
So we are actually talking about solar power today,
and I'm a little psyched about this one,
because I was putting this thing together over months, dude.
You would think solar power is such a hot, sexy topic,
that there would be just reams and reams
of just stuff to research.
And there is, but it's all really wonky
and really technical,
and there's a lot of stuff that contradicts other stuff.
And I got this feeling of dread researching this,
that the cheerleaders and champions of solar power
are losing their resolve to an extent.
They'll still sell you a solar panel.
They'll still tell you a solar is great.
And I know that they truly believe that.
But I think that they are worried
that it's not taking off like they expected it to.
But then let me just caveat that with one other thing,
and then we'll get started and I'll be quiet
for the rest of the podcast.
If you look at the numbers and the figures,
solar has quietly made a name for itself
and established itself, at least in the United States,
to an astounding degree.
So I'm not quite sure what I'm picking up on
when I get the sense that they're worried,
because if you look at it,
it's actually doing really, really well
and growing all the time.
Let's discuss.
Solar power.
Yeah.
Power from the sun, converted into electricity.
Right.
So you can say, screw you power company.
Yeah.
Or pay me power company.
Yep.
You can say take this power bill and shove it.
So the sun, this is pretty neat here
at the beginning of this that you put together here.
The sun rays give off about 1,000 watts
of energy per square meter.
So if you pull the camera back a bit
and you look at Texas, let's say,
a lot of sun in Texas, a lot of land in Texas.
There's a lot of stuff in Texas.
There really is.
And not much of some stuff.
No, that's true.
I was gonna say the good thing about Texas
is you could completely cover it with solar rays
and no one but the people who live in Texas
would have a problem with it.
Oh boy.
Oh boy.
Oh, gear, gear, gear, gear.
All right, so if you look at a mass,
land mass that's as big as Texas,
they receive a little under 700 terawatts
over the course of one hour at noon on a sunny day.
700 terawatts.
Yeah, it sounds like a lot but is it a lot?
Who knows?
Who could possibly know?
If you wanna compare that, you're being coy.
In that same hour, the total amount of human-mage
energy production on planet Earth,
and this is all energy production
that you could possibly dream of,
is 17.7 terawatts compared to 700 terawatts.
That's 40 times less than what the sun delivered
to Texas in just that hour.
Yeah, right, and the Union of Concerned Scientists
happen in group who I love.
They say that 18 days of sunshine
that hits across the entire Earth
contains the same amount of energy
stored in the entirety of the planet's reserves
of coal, oil, and natural gas.
If you dug up and burned every bit
of coal, oil, and natural gas,
it would only produce as much energy
as 18 days worth of global sunlight.
That's astounding.
Yeah, and these are facts that have
50 caveats beneath each of them,
which we're gonna talk about,
but it is a prime example,
and I think just a good way to kind of indicate
just how much energy, potential energy
there is coming from the sun every day.
Yeah, and just, I mean, to point out the obvious,
the great thing about solar is there is no greenhouse gas
emissions when you use solar electricity.
It's just clean energy, and it's free
because it's from the sun.
That's right, and before you start typing,
oh yeah, but what about you cost a lot
to make these things for me to silicon,
and then meh, meh, meh, meh, meh, meh, meh.
Before you do that, we were gonna talk
about all that stuff, but Josh very clearly said,
once you have these things set up,
that's when the real benefit comes.
Yes, and if I hadn't said it, I was going to eventually.
Well, no, you basically said it,
like when they're working, when they're active,
they're not using fossil fuels.
Thank you, Chuck.
All right, so let's go back in time a bit
because if you think solar power,
you think, well, this stuff was invented in the 1970s.
Not so.
You have to go all the way back to 1839, believe it or not,
when a French physicist named Alexandre Edmond,
Josh says this.
Becquerelar.
Man, I practiced it a million times.
Becquerelar, I think.
Becquerelar, yeah, yeah, yeah.
It's a tough word.
Yes, it is.
There's a couple extra continents in there
that just shouldn't be there.
That's right.
So this dude, he's the one that first demonstrated
the photovoltaic effect, which is basically the ability
of a solar cell to turn sun into electricity
all the way back in 1839.
Right, but no one knew exactly how this worked.
They just knew that it worked.
He was burned at the stake later on
for his black magic.
Right, so just about 40 years later,
there's a guy named Charles Fritz.
And he, in the 1880s,
built the world's first rooftop solar array.
Coincidentally, just a year after Edison launched
the world's first coal fire power plant.
But this early solar array was terribly inefficient.
It didn't do very much.
We could basically power, jeez, I don't even know what it,
it could power a mousetrap.
How about that?
Sure.
Which doesn't even need electricity.
That's how little power that this thing produced.
But it definitely demonstrated that it was possible
to generate an electrical current from sunlight
in a way that it was a proof of concept, basically,
saying just give it like 90 years
and we'll understand this better.
Yeah, and who was that?
That was Fritz.
Charlie Fritz?
Yep.
Fritz was a good guy, but he was no Einstein.
No.
Einstein, it would take Einstein, that is,
to really explain how this all worked in 1905.
Cause he had a knack for doing that.
I'm not sure if people realized that.
He was a good explainer, maybe the original explainer.
Well, he would put it in terms
that you could really understand.
Like to be like, consider the sandwich.
Imagine the sandwich is the sun
and then it just go from there
and you'd be like, I understand what he's saying.
Yeah, and if you think Einstein, oh yeah,
he won a bunch of Nobel Prizes for relativity, not so.
He won the Nobel Prize in physics in 1921
for explaining the photoelectric effect.
He didn't win for relativity?
No.
I didn't know that, holy cow, what a snow.
Unless I'm wrong and if I am,
I'm gonna have a lot of egg on my face.
That's all right.
We'll cook it off with some good old solar electricity.
Gross.
It is gross, but also shows the idea
of cooked egg in your beard.
So Bell Labs in 1954,
if you want to talk about the modern PV cell,
that was in 1954.
And thanks to the US government really in the US military,
they funded a lot of this early research
because if you've ever looked at a picture of Skylab
or any of our great satellites,
you'll notice that they all have these big solar wings.
Yeah, yeah, they're solar powered.
It was because of US government research in the 50s
that we were able to develop those.
I think they launched the first solar powered satellite
in 1954, no, 58.
And then just six years later,
they launched the first solar powered satellite
whose solar panels could track the sun,
which is still a pretty whiz bang thing
to have for your solar array.
And this was 1964.
Yeah, amazing.
So the US government invested in the earliest research
and everything was going along really smoothly.
But one of the things that's always been a problem
for solar is oil and natural gas and coal are just so cheap
and our infrastructure is set up to burn those things
and get electricity for them.
So solar has always been an upstart.
But at one point in 1973, oil was not very cheap
all of a sudden because of the OPEC embargo
that created the energy crisis that made it really uncheap.
So much so that the United States looked around
and said, we need to find other sources of energy.
And they really looked really hard at solar
and it actually gave solar technology a big old boost.
Yeah, and that boost came by way of offering tax credits
for the first time in the United States
for businesses and residents said,
hey, if you wanna put in solar power
and they still do this today,
we'll give you some tax credits.
It'll make it a lot cheaper for you.
There has been, I guess we could call it
the solar battle at the White House since 1979.
Jimmy Carter had very famously had solar panels installed
on the roof of the White House
to heat water for them and for the pools
and for the kitchen and stuff like that.
Sure.
And Reagan had them taken down in 86.
So there are a couple of stories about how this went down.
The cynic will say Reagan as a statement
had them taken down even though they're working fine
because he was all for the fossil fuel industry.
And it was a very symbolic gesture.
Other people will say, that's not what happened at all.
The roof needed repair that the solar panels were on
and they took down the solar panels to repair the roof.
And then the White House officially says
they did not put them back
because it would be very unwise based on cost
is a direct quote.
So that's the party line right now.
I've never heard that one.
That sounds like a new gingrich yarn if you ask me.
Well, that's the direct quote.
George W. Bush put solar power back into the White House.
What?
Say what?
What?
Yeah.
I didn't know that, okay.
Yeah, he put solar for the water heaters
for the White House pool
and then put solar panels on top of the roof
of the grounds maintenance building to help out there.
He did not have them on top of the actual White House
but he had solar power installed
at various places around the White House.
This was W or HW?
This was W.
Okay, wow, that's really surprising.
Yeah, Carter's for his part,
one of his, he has two on display,
one of them's at the Smithsonian
and one of them is right here in Atlanta at the Carter Center.
You can go look at one of those solar panels.
There was also like a museum of science in China
that got their hands on one.
It's on display in China too.
Oh yeah.
Which makes sense because after the US government
kind of turned its back on solar,
China came along and said,
oh, we'll take that ball and ran with it.
Sure, going back to Reagan though,
he didn't, I don't want to let him up too easy with this,
the fact that they just said it was unwise based on cost
because he gutted the Department of Energy's
renewable energy research and development budgets,
like totally gutted them
and he eliminated the tax breaks for wind and solar.
I'm not sure for how long.
But for a million years, I would guess.
No, because they're back.
And it was Obama who came back
and very publicly installed solar panels
back on the roof of the White House.
And of course the first thing I thought was
that Trump probably went in there
and smashed him with a sledgehammer
on his first day in office.
But apparently they're still there.
They're still there, huh?
Still there and still working.
He didn't take them down.
Wow, we, so one of the other things that the government did
to help solar along during the Carter era
was to offer tax breaks like you were saying.
But because of the really, really high cost
of installing a solar electric system,
it was basically viewed as a sweetheart deal
tax break for the rich.
That's how the first solar tax credits were viewed
because solar was so expensive.
So they were a little bit before their time.
But over the course of those ensuing years
from the early eighties onward to today,
because we've had breakthroughs in technology,
of manufacturing, of creating new kinds of semiconductors,
of making traditional kinds more cheaply,
the price of solar has dropped 88% in the past decade.
Yeah, I mean, it's really to the point now where it's,
I mean, I looked at some of the prices and I was like,
you know what, that's now, I think, fairly affordable
for most kind of middle class Americans
if they wanna put in solar power
because eventually it's gonna pay for itself.
That's the whole idea.
Either you're trying to pay this,
get cheaper bills and have it pay for itself over the years,
which it's gonna happen regardless.
Or you're someone with some money
that just wants to do the right thing by the environment
and get off the grid as much as possible.
Yeah, it's just that upfront cost.
Not the cost over the life of the setup,
it's the upfront cost.
But there are things like energy saver, renewable energy,
mortgage home loans basically you can take out
that have really special good financing
and rates and stuff like that.
There's a lot of things you can do
that we'll talk about to get around that upfront cost.
But you hit the nail on the head
and it's really worth saying again,
you can expect your solar electrical home system
to pay for itself over the lifetime of the setup.
Yeah, and we'll talk more about price later,
but just poking around,
like it's sort of an average US household,
you can plunk down about 15 grand
to cover 100% of your electricity needs.
Which, and that's I think after the tax credit,
if I'm not mistaken.
Oh, is that right?
And again, there are so many factors,
where you live, how much energy you use,
how big your house is,
the weather where you are.
So this is a big, big broad statement.
But if you're just looking for a general range,
it's not like it costs 50 or $60,000 anymore to do this.
Right.
So you wanna take a break and then come back
and talk about what actually is going on
in those solar cells?
Heck yeah.
Let's do it Chuck.
Let's do it, let's do it, let's do it, let's do it.
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Okay, dude, so there are three ways, as far as humans are aware
of right now, that you can get energy from the sun.
You can get it by converting it into electricity.
Hooray.
What we're going to talk about, basically.
You can turn it into chemical energy.
Boring.
It's far out, though.
It's like storing energy in the bonds of molecules,
like through artificial photosynthesis.
That's pretty cool.
It's news.
And then you can also convert it into heat.
But when you're talking about solar energy,
most people think of the solar into electricity,
which is called photovoltaic energy.
And that's basically what we're going to be talking about.
Yeah, like when you drive through a neighborhood
and you see those shiny panels on a roof,
and think, my god, those are ugly.
That's true.
Man, it's true.
We'll get to that, too.
So that's what we're talking about.
These photovoltaic cells, they are
made up of semiconductors, materials
called semiconductors.
And these days, and we'll talk in a sec
about how this might be changing in the future.
But about 90% of all these solar cells these days
are using silicon as the semiconductor.
Right.
Silicon is a crystal, which means that it has a really tight
atomic composition.
It's not very, it's extraordinarily stable,
which is kind of a thing because you'd
want a somewhat unstable arrangement of atoms,
or else you won't get this electricity to work.
But.
Can't be too stiff.
No, you can't.
You've got to go with the flow.
That's exactly right.
The flow of electricity, basically.
But with the reason why they use silicon
is because it is a semiconductor, which
means that it gives you a large measure of control
over where that electricity flows and how it flows.
So rather than just using pure silicon, which
will allow you to direct the control of electricity,
but won't produce any electricity,
they actually dope it with other materials
to produce two different types of silicon film.
N-type and P-type.
That's right.
So for the N-type, which stands for negative,
they're going to dope it, and I love that word in this case,
with phosphorus that has five electrons.
So it's going to bind to the silicon that has four electrons.
And so that leaves you, I can even
do this kind of simple math, with one free,
one extra electron left over.
Just dangling out there like it's wearing shorts that
are way too short.
Yeah, it's looking for a place to go, basically.
Sure.
The way I sort of saw this was like a couple of apartments
next to each other.
One has an empty room, and one has an extra roommate.
OK, that's a great one.
So the other type is this P-type, the positive.
It's doped with boron, has three electrons,
and so this is the other apartment.
This is the one.
It's going to bind with silicon, and it
leaves that unused bond open.
So that's where you have your extra space
where the electron can go.
Right.
So when you take N-type silicon film and P-type silicon film
and you put them up against one another,
you have a situation where that extra electron wants
to flow to the other side and fill that unused bond.
Because again, the universe is always
moving toward homeostasis, right?
Yeah, that roommate's like, hey, you got an extra room.
Can I come crash in there?
Yeah, and they say, wait, wait, we
need somebody to get you off of the couch.
And in this case, that somebody is sunlight.
Because sunlight is made up of photons,
which are energy carriers of the electromagnetic spectrum.
And when they hit this doped silicon,
they come bursting into the room,
and they kick that lazy electron into the other apartment
where there's an open bedroom, and everything
is filled very nicely.
That's right.
So this electron flow, these electrons moving around
and flowing in this single direction.
I don't think we said that yet.
It only flows in one direction.
Electricity does.
Well, it does in this one, in this case.
Yeah, that's the basis.
This electron flow is the basis of electricity.
And what they do is they put these metal contacts
on the top and the bottom of the cell.
And then you can direct that electron flow out of the cell
to be used as electricity in your home.
Yeah, that's a solar cell in a nutshell.
And the solar cell is the basic unit
of what you think of when you think of a solar panel
or whatever.
It's that one little square.
And that square is connected to other squares.
And they form what's called the module.
And when you put a nice little frame around it
and put it on a stand or whatever,
you have yourself a solar panel.
And when you have a bunch of solar panels together
in a group all working together, that's a solar array.
So technically, when you point at someone's roof
and you say, look at that solar panel,
you're saying, look at that solar array.
And now you can correct that person from the back seat,
and they'll make you get out of the car.
Do people say that?
Look at that solar array in my universe.
I would think people would more say,
look at those solar panels.
Well, then that would make sense.
I had to set it up so it didn't make any sense.
So someone would swoop in and correct.
So the person who knows what it's really called
hangs around with complete morons who
say things like, look at that solar panel when
they see a group of solar panels.
All right, now I got you.
We're talking about morons here.
Right.
All right, so it sounds simple, and it is kind of simple.
And it's complexity.
That makes no sense at all.
But it's a little more complicated,
because like we said, electricity in this case
is only flowing in one direction, which
means it creates a direct current.
And that's a problem, because we talked about in the Bone Wars
episode about the, what were they called?
Not the power wars.
The current wars.
Current wars.
A war of current.
That's right, DC did not win.
So we have to convert that DC current to AC current.
So what these solar panels need is something
called an inverter.
Yeah, and the inverter is basically
like the brains of the whole setup.
And there used to be a big problem with inverters.
They were very clunky, and you would basically
have one inverter for an entire solar array.
And the solar inverter would kind of modulate
the amount of electricity that was going through it
out to the house or the circuit panel.
And it would base whatever it was doing
on whatever the lowest common denominator of the whole array
was giving it.
So if you had one dirty solar cell
or there was a cloud going over just one solar panel out
of like 20, the inverter was basically
delivering electricity based on that one cloudy panel
or that one dirty cell.
That's not the case anymore.
Yeah, not very smart, was it?
It really wasn't.
The solar industry wised up and they said,
we can do better than this.
And they came up with what are called microinverters.
And now a microinverter is responsible
for either one panel or just a single cell.
And so that one cell could be dirty or cloudy at any given
point, but it's not going to drag down the whole thing
because there's all these other inverters
that are running the show on their own too.
How can you go to clean these things?
Did you see that?
I didn't, but I did see that they were virtually maintenance
free.
Oh, really?
Yeah, that's what I saw.
All right.
All right, so let's talk about powering a house.
And just like four years ago, 2015,
and these are pretty good numbers, 800,000 houses
and businesses in the United States had solar panels.
And that's not to say they were 100% dependent on them,
but they were at least doing some of the work, which
is not bad.
And like you said, once it's up and running,
not much maintenance going on.
And you're looking at probably, and the number they often
throw out is just for 20 years, you
can expect this thing to work like a charm.
Yeah, 20 years is the low end.
I saw the averages about 25 years
when you buy a solar setup that you can just put it up there
and be like, oh, this is great.
I don't even need to think about this anymore.
But if you do want to invest in this,
if you're like, OK, I can swing this, I want to contribute,
I'm going to go solar, there are some steps
you want to take to kind of wisen yourself up
so that when you deal with the installer,
you'll know what you're talking about.
And one of the first things you want to do
is to do an energy audit on your energy consumption, which
is basically figuring out how much electricity you use
in your house at any given time.
Probably want to figure out where your peak is
and then just kind of plan for that.
See, what I don't get is you can look at your power bill
and tell that you need to do a separate audit
outside of that.
Well, the reason why it's good to do a separate audit
outside of that is you can identify areas
where you can improve things.
It's kind of like, no, you don't have to do it,
but you could do an energy audit.
And when you do, you can be like, oh,
I think if I added insulation to the attic,
it would come out of the consumption by like 30%.
I've heard of these.
This is a much larger thing.
Right, yeah, yeah, yeah.
It's kind of like, if taking on the project of getting solar
installed on your home wasn't a big enough headache for you,
add this to it.
You know what I'm saying?
But it's a good, it will definitely,
you will find some places where you can cut
your energy consumption.
That's the benefit of an energy audit.
And this just happens to be a good time to do it.
Yeah, and the other thing you have to decide
as you're pricing this out, and you can call a company,
they will come out these days
and basically tell you what you need.
If you get a good, highly recommended company,
and apparently some of the smaller companies
are much more highly recommended than the larger companies
from what I read online, but they will come out and say,
the question they're gonna say is,
and this is really the most important thing for you
to decide is how much, what percentage
of your household energy do you want to come from solar?
And if you're like 100%, they'll not say, okay,
well, here's what you need.
If you say, you know what, if I can cover,
I don't have much roof space,
I'm happy with covering 50% of my power usage,
then they'll say, all right, well,
then let's work within your system.
Or you may just be, you may not have a choice
unless you, it all depends on your roof
and the way it's sloped and the way it's faced
and all that stuff.
Right, yeah, there's a lot of considerations.
And again, the person you hire to do this
is going to be able to provide you
with all this information and ask all the right questions.
But if you want to know what you're talking
about going into it, you can find out
kind of about how much electricity
you could expect a solar array on your roof
to produce down to your actual house.
Like there's all sorts
of solar potential maps online.
Yeah, and calculators, it's really,
they make it kind of really easy on you these days.
It's easy and let's just be honest, Chuck,
it's fun too.
Cause it'll show you like how much money
you will actually, not only like,
how much you'll save over the course
of the lifetime of the solar array
and you'll have a pretty good idea
of how fast the thing will pay for itself.
It's pretty cool to do.
But you'll have an idea of,
this thing's gonna pay for itself in eight years
or this thing's gonna pay for itself in 25 years.
And that will largely depend
on where you live in the country.
But everything I saw from everywhere
from Union of Concerned Scientists to Energy.gov
is that everywhere in the United States
you can expect your solar array
to pay for itself eventually
over the life of its, over its own life.
Yeah, it might take a little longer
in Seattle than in Phoenix.
Right.
But you know, that's how things go.
You got better music in Seattle and better food.
Well, sure.
Maybe the food's a wash.
You got the music though for sure.
Sorry, Phoenix, we love you.
Yeah, sorry, last of the meat puppets.
So I talked about the angle of these panels
and the angle of your roof.
It's called the angle of inclination
is how you have to set these.
If you have all the money in the world
and nowhere to spend it,
you can actually get systems that have motors
that will move and follow.
These panels will follow the sun across the sky,
stay in perfect,
stay at the perfect angle of inclination.
That is super expensive though.
It is, that's the technology I was talking about from 1964
that they had figured out for satellites.
Yeah, it is.
But yeah, it is still kind of expensive.
What I've seen though is rather than invest
in figuring out how to make those kinds of setups cheaper,
they figured out how to catch more diffused sunlight,
the kind that gets scattered by clouds on a solar panel.
So you don't necessarily have to have it,
the kind that tracks the sunlight
and you can still get as much electricity
as you're gonna need to power your house basically,
no matter where you are in the country,
just from the solar panels that they make these days.
Yeah, so ideally your array is gonna be pointing true south.
That's not to say if your roof is set up in such a way
that it doesn't point true south,
you can't have solar.
Because like you said, they've come a long, long way
over the years with how they can collect the sunlight.
But if you're facing true south
and you're at a good angle that's as close to the area
that you're in as close to the latitude as possible,
you don't have a lot of trees around and no big buildings,
then you're a really good candidate
to provide energy for your house.
We should say also,
that's if you're in the Northern Hemisphere,
we have listeners in the Southern Hemisphere.
Yeah, that's true.
So I would say if you're in Australia,
you would want it to face true north,
but everybody knows that the sun is so ridiculously hot
in Australia that you don't even need solar panels,
it just powers everything,
just blazing down on everyone.
You can bury your solar panels underground in Australia.
It'll still work better than here.
It's like, you couldn't scrape me the sun.
So the other thing is weather,
like it's never, weather is never predictable,
but what you're gonna do is look at the data in your area,
look at average monthly sunlight and stuff like that,
take into account rainfall.
And in the end, you wanna design for,
cause you want power all the time if you're going 100%.
Sure.
You wanna design for your worst month,
sort of like, well, not really.
I was about to say just like those initial inverters,
you're only as strong as your weakest member.
Right.
But you wanna take into account,
let's say it rains every single day in a month.
You lose your job, dog dies,
just your absolute worst month.
Right.
So then they might say, all right,
throw on an extra panel for your dog.
You're right.
And you'll be just fine.
Right.
So if you're all hyped up about this,
there's, we just kinda open the can of worms.
There's a lot more to take into account.
But again, just hire somebody reputable,
do your research, and they should be able to guide you
through this process a lot more than we can.
But I do strongly advise going on and figuring out your,
like you need to know what you need to know kind of thing.
Does that make sense?
Yeah, for sure.
And you know, earlier you mentioned
that these things were ugly.
And for a long time, they were the bane of existence
of a lot of people in certain neighborhoods.
Some homeowners associations still won't allow them.
But they've gotten better looking over time.
They've gotten closer to the roof line,
a little bit more attractive.
And I think, in my opinion, this is just me speculating,
just the perception has changed.
And now when you see them, you don't think,
oh my gosh, look at that ugly thing on the roof.
You think, well, you know, those are solar panels.
And it might not blend in perfectly with the roof,
but there, you know, there's a big benefit as well.
You don't even think like hippies live there anymore.
No.
Normal people live there.
Normals.
So there's also solar roof tiles
that are really starting to come along.
Yeah, those are pretty cool.
Have you seen the Tesla versions?
Yeah.
They're nuts.
How they're also, they're super durable.
They're very pretty.
I don't own any because they're extremely expensive.
But if they can get the cost down to anything approaching
like a normal size roof, it's just like game over, man.
That's it.
Game over, man.
Exactly.
Like each one of these tiles is like a solar cell
or a solar panel, and it's a whole roof's worth of them.
They're super durable.
It's pretty cool.
But they also cost about five to 10 times
the amount of a normal roof these days,
which is just, you're never gonna pay for,
it's never gonna pay for itself.
Yeah, I mean, if you're spending, I don't know,
12 to 15 grand on a roof and you have to spend
up to 150,000 for that roof to be solar.
That's a lot of dough.
I saw like 200 in one case, but yeah,
somewhere between 100 to 200 for a new roof.
Yeah, but the people that are doing this are,
the very well-heeled who want to be able to brag
about their solar roof, quite frankly.
Sure, yeah.
And I mean, if they're doing that and they're generating
solar for their house, more power to them.
That's fine.
Sure.
It's just, Tesla needs to get that price down quite a bit.
Come on, Tesla.
Hurry up, Tesla.
So we need to talk a little bit about efficiency.
So, how much of the sun's energy we can convert
into electricity is that efficiency?
And way back when they first started this stuff
in the 19th century, it was not even 1%.
So it was mainly just like,
hey, look what we can do now a little bit.
Now, it's at 98%, not true.
It's about 25% now.
It's not as much as I would have thought
when I started doing this research.
And you can't ever get to 100%.
I think they said at the very max these days
because of energy loss and conversion and stuff,
the tip-top upper limit's about 87% that we could ever get.
That's like the physical limit for conversion.
Yeah, but 25%, I mean, it's the sun.
It's not like the sunlight you don't use fills up landfills.
You know what I'm saying?
For sure, for sure.
But there is a lot of room for improvement
between that current 25% and that 87% limit, right?
And we're actually starting to make those kinds of gains.
One of the ways to do it is to make solar panels cheaper.
So even if they are just at 25% efficiency,
if the process of making them is cheaper,
you can put more solar panels up
and the average person can afford it.
That's one way to go.
A better way to go is to focus on making those materials
as ridiculously efficient as possible.
And they found a promising new material called perovskite.
I think that's how you say it.
Yeah, it's kind of a clunky word.
It really is.
And I think it was discovered by Russians or Soviets
back in the day.
It really does.
But one of the things about perovskite, this mineral,
is that it is really, really efficient
when it comes to the blue end of the spectrum,
the blue to ultraviolet high energy photons
that come streaming through.
Normally those kinds of photons are too energetic
to interact with the phosphorus or the boron
that silicon is doped with.
So it just passes through
and it's like completely wasted high energy light.
The perovskite actually interacts with those
way more efficiently.
The problem is is it doesn't really interact
with the lower energy stuff that silicon does.
So the highest efficiency solar cells that you can get
are typically made with silicon
and perovskite put together.
So it captures as much stuff as you can hope for.
And these are starting to creep up
into the high 20s, low 30s range.
And as perovskite manufacturing gets easier and easier,
we should be able to expect to see solar panels
that are 30, 32% efficient, which is a lot.
That extra 7%, that's a huge difference.
Yeah, and I don't think we mentioned the reason
that we're trying to make this move to perovskite anyway
is because it's cheaper.
You can make it cheaper than the silicon ones.
Right, that's true.
So one day, hopefully, they could be all perovskite
because they're developing stuff
that's gonna capture more of what the silicon
can capture, isn't that right?
Yeah, that would be wonderful if they figure out
how to tinker with perovskite
so that they don't need the silicon at all.
Cause there are a lot of problems with silicon,
which we'll talk about.
Right, so I mentioned earlier in the show
about selling your, like pay me power company.
And that wasn't a joke.
In fact, I didn't even know this was a thing
until like, shamefully, like five years ago
when I learned that if you produce more energy
with your system than you use,
you can actually, not everywhere,
but in many, many places now,
you can sell that back to the power company.
And not only are you not paying,
in fact, we talked about this in one of the episodes,
might've been the Sun or the Bill Gates
renewable energy episode.
Mm-hmm, I thought that's what it was, yes.
Yeah, yeah, I remember.
But I knew we talked about like grids and stuff like that
and now that's where it was, man, good call.
I think so.
But they will cut you a check, which is pretty amazing.
And here's the best part even.
To me, I was like, well, I mean,
do I wanna check from Georgia Power
for whatever, $19 a month?
Yes.
I sorta do, but what I would really rather do
is pass that forward, pay it forward, like they say.
And there are places that have programs
where if you have excess solar energy,
you can send that to the power grid
and then apply the leftover as a credit
to the bill of a family in need, which is awesome.
It is pretty awesome.
Everybody comes out super great.
Yeah, I wonder what the money,
I mean, that's the one thing I don't know.
It's like, how much more are you making?
Is it a check for $19 or is it like 300 bucks a month?
I don't know.
And it would definitely depend on a couple of things,
how much electricity costs in your area
and how much your utility company pays
for buyback electricity and then also
how much you're overproducing too, you know?
Yeah, there's a bunch of factors,
but I'm just kinda curious if it's like a lot of money
or is it literally?
I really honestly don't know.
But every little bit counts
if you're a family in need, right?
Absolutely.
So there's another thing that would be great
if you have all this excess solar energy
when it's really, really sunny out.
If you could somehow capture it to use it later
during nighttime or on a cloudy day or something like that.
And so a lot of people have said, well, that'd be great.
I mean, that'd just make a solar electric home system perfect.
Let's build batteries that do that.
And so there are home batteries
that are meant to be connected to solar outfits,
like Tesla makes one of those too, LG makes one,
Mercedes-Benz makes one, it's a home battery.
The problem is that they are also really expensive
on the order of five, six, seven grand.
And so if you're spending 12 grand on your solar array
and you spend an extra six grand on your home battery,
you just spent an extra 50% of the cost of your solar array
to back up your home with solar electricity
when the sun's not shining as much.
That's a huge, enormous added expense.
Yeah, and the one thing I was,
cause like you, I think my interest got peaked
a little bit for my own house.
It's like, man, this is really appealing to me now.
Here in my late 40s, I could buy a system
that'll see me through to my death probably.
I don't know about that.
By the time it starts breaking down, I'll be long gone.
Let's hope not.
And my first thought was, you know,
we get a lot of brownouts and blackouts and power outages
for some reason in my neighborhood,
it's just, it just happens a lot.
It seems like every rainstorm, certainly anytime there's snow.
Is it brown out where it's like,
the power's like almost out, but it comes back
and then almost out?
Yeah, I think it just sort of flickers.
I wish they'd call it something else.
It sounds so gross.
The brown out sounds gross.
Yeah, it does.
It sounds gross.
Gray out, how about a gray out?
Let's call it that.
Are you thinking about like a butthole?
Yeah, or poop or something, you know?
Like poop's just squeezing out of your electrical outlets
or something like that.
Oh, like that sounds like a very archibunker thing
to say, like, I'm going to go upstairs
and have a brown out.
Yes, yes it does.
Dropping the browns off at the Super Bowl or something like that.
Right, okay, I get you.
So the only way the Browns could make it to a Super Bowl.
Oh man, Texas and Ohio, super happy with you today.
That's right.
So my first thought was like, oh man, I get on solar
and there's a blackout going on.
Because we went out, I think I talked about this on one episode
when we had the big snowstorm a couple of years ago.
We were out for three and a half days.
That's unconscionable.
Yeah, I mean, it was a long time to be without electricity
to the point where it was like, all right,
I'm a little bit worried about my family, right?
So I thought, man, I'll get solar
and all those suckers will be without power
and I'll have power.
That is not the case.
Unless you're, if you're storing on a battery,
you can do that, but during a power outage,
there's something called islanding.
It's very dangerous.
It's basically when you're pumping electricity
back into the power lines that Georgia Power thinks
and the linemen are dead.
So they're going to work on these
and you're still pumping power back into it.
They can't have that.
So power goes out as well.
It'll kill a lineman for sure.
But if you have a battery backup, you're fine.
Like you said, that's where you're getting your juice from.
But your solar system is going to disconnect you
from the grid to keep that from happening.
But there's actually, that happens elsewhere, Chuck,
if people have a generator,
some people will plug the generator
into an outlet in their house and reverse the flow
of electricity from their generator throughout their house,
which can create islanding as well.
Isn't that crazy?
Yeah.
Yeah.
Well, I mean, that's kind of a thing now
is a lot of new houses have whole house generators built in.
Sure.
And as soon as the power cuts off,
that thing automatically fires up.
Right, right.
But this is like a portable generator
that they're plugging in reverse into their home wiring.
It's not a good idea for anyone.
I mean, there are safe ways to do it.
That is not one of them.
That is not one of them.
Should we take another break?
Yeah, let's.
All right, we'll take one final break, everyone.
And we're going to talk a little bit about some
of the downsides because there are some to solar power.
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I want to say there's one other type of battery I found.
It's a mechanical battery, where your solar power system
uses all that excess power to power a pump that pumps water
up to a raised area.
And then at night or on a cloudy day
when you need the extra electricity,
it releases that water to spin over a turbine, which
creates an electrical current.
Isn't that awesome?
You got a little power plant in your house, basically.
Yeah, you do.
And it's green, too.
It's hydroelectric.
Solar powered hydroelectric batteries, what that is.
Pretty amazing.
So we mentioned silicon not being great.
There are, it's obvious that to create,
and this is an argument a lot of times against electric cars
and hybrid vehicles, we all like to drive them and stuff.
But there is a greenhouse effect when
it comes to making the stuff.
Mining these materials is not great.
It is very environmentally, it's very harsh on the environment.
And I don't think anyone makes any bones about that.
Transporting all this stuff, going
to burn a lot of fossil fuels, manufacturing all the stuff,
burns fossil fuels.
But like you said earlier, that is true.
But once that process is finished, that's it.
No more greenhouse gases forever.
Right, and some people will double down at this point
and be like, whoa, whoa, whoa.
Like creating solar cells is actually really, really
harmful because it requires the production of something
called nitrogen trifluoride, which
is a greenhouse gas that's 17,000 times more
potent than carbon dioxide.
That's a lot.
Bad stuff.
And when you work into the idea that you
have a whole house battery that's made of cadmium, lead,
nickel, all of which have to be mined,
and which has to be replaced every, say, 10 years,
your solar array seems much, much less green.
And these are all very legitimate arguments.
They're not incorrect at all.
But they're also current limitations.
And they're all surrounding production and transportation.
And all that stuff can be worked out.
And when that stuff gets worked out,
you still have solar producing clean energy with fossil fuels.
Even if you worked all that stuff out,
when you deploy them and actually create electricity from them,
they're still going to produce greenhouse gases.
So solar will always have that advantage.
And it just has a bunch of kind of front-loaded obstacles
that need to be overcome through breakthroughs
in the short term.
Yeah, for sure.
I mean, it's no contest in the end,
especially if you're talking about the life of a solar system
considering, like, 25 years, let's say,
over the 25 years of burning coal and natural gas,
it's just not even close.
Yeah, and I mean, if you start getting more and more solar
involved in transportation, then you
knock out those greenhouse gases for transporting solar panels
from place to place.
Because it's solar powering the transportation, too.
There's a lot of stuff we can do that we just haven't quite
figured out how to do yet.
But it's not physically impossible to overcome them.
Yeah, and there's also people that say, hey,
the entire country could run on solar and wind.
Some people say, maybe not.
Other people say, no, it totally could.
But there are a lot of big obstacles
when you talk about converting a nationwide system
from a fossil fuel system to renewables.
It's not easy.
And frankly, it will probably never happen on that scale.
Maybe I'm cynical.
I think it's cynical.
I think if we look 150 years in the future, maybe even 175,
even, I would say, it's entirely possible.
I could see it.
Well, that would require, and if you do the math,
that's about right, that would require several generations
of people dying out who would fight this tooth
and nail to their grave.
Right, certain people would have to die out first, yes.
But there are a lot of real obstacles to this.
I mean, our infrastructure just is not built for this.
Like, we would have to completely rewrite how we do things.
Yeah, so the infrastructure is set up in a centralized manner
where you have a power plant.
And that power plant is built wherever.
And you burn coal or whatever and create steam,
which turns it to a turbine that creates electricity.
And that electricity goes out to the area
that that power plant serves.
That's not how renewables like solar or wind work.
They have to be built where the wind or the sunlight is.
And so you have to build a bunch of them wherever you can.
And then those things all have to be connected.
So it's a decentralized way that you
have to connect them together to the current grid, which
means running a lot more transmission lines
from these new solar arrays that you're
going to build wherever to connect them
to deliver that electricity throughout the country.
Yeah, and there's also, and there are fluctuations
in the weather.
We already talked about you're sort of at the behest
of what your weather is giving you.
And we're not saying when the wind doesn't blow,
your lights go off, believe me.
But it does have an effect.
And so you have to compensate for this stuff.
And compensating for this stuff on a national grid
is expensive.
And I don't even think we've quite figured out
how that's going to work yet, have we?
No, there's some proposals.
One is to basically create batteries,
like just use the same solution that people
have for their houses.
We just need to take that excess stuff
and store it for use when the sun isn't shining.
They figured out that for an electrical storage system,
to store 12 hours worth of electricity
for the US electrical grid would cost more than $2.5
trillion to the world.
That's quite a bit.
Other people are saying, no, no, we just
have to get better at more efficient, long-distance
transmission lines.
That's what we talked about in that Bill Gates episode.
One of the things was that smart grid,
where we can easily shuffle solar that's generated
in Scottsdale up to Portland, Oregon, or Portland, Maine,
for that matter.
Yeah, I mean, everywhere in the United States,
at some point, there's a lot of sunshine going on at once.
And you can send that to places.
I know we're picking on Portland and Seattle again,
but if you can produce in Phoenix and send it to Portland,
that's great.
And I mean, let's be honest here, $2.5 trillion
is a lot of cheese.
But I saw somewhere, someone point out
that there is an estimate that to fully convert over
the US electrical grid to solar only
would be about $4 trillion, which again is a lot of money.
But in the grand scheme of things,
and when you really think about what that investment is going
toward, it's not that much.
And frankly, it's kind of doable if there's
a political will to do it.
Yeah, I get you.
Another solution would be for every house
to have its own solar array, every car
to have its own solar power.
That's what I'm thinking more on is more and more people
doing this to the point where it's not
part of the infrastructure of the grid,
but it's still making a big dent.
But that's going to be the hardest sell
because you've just completely eliminated
all of the power companies.
And they're not exactly known as lightweights
when it comes to things like lobbying.
That's true.
And you look at the subsidies going on now,
and that's really clear who's better at lobbying.
The federal subsidies for power companies
who produce solar are about $533 million
bucks compared to $32 billion for natural gas alone in 2016.
Right.
That's just tax breaks and subsidies
for investing in deploying that kind of energy.
Yeah, and solar still is pretty expensive per megawatt hour
compared to, like you said, fossil fuels are just cheap still.
They really are.
And here's the problem, too, Chuck.
There's a conundrum where when you deploy a lot of solar
electricity in a utility, it actually
tends to depress wholesale electrical prices
across the board.
So a company has an incentive to not deploy solar
because they can charge more for electrical produce
from coal and other fossil fuels like they normally do.
That's right.
But if you put one in your house,
you're not only paying for your own electric or whatever.
You're subsidizing your own electrical bill.
You possibly are getting money back
or helping a family in need.
And it's also an investment in your house.
It actually increases the value of your home
because unless someone just hates them
and wants to Reagan it up and yank them off the roof
when they come in there, it's going to be a selling point.
You're like, hey, move into this house.
They've already paid for it, and you don't have a power bill.
Yeah, there was a study from the Lawrence Berkeley National
Lab that found that the solar setup increased
the value of a house in America by about $15,000.
All right.
So when I said they've already paid for it,
what I really mean is they're passing that on to you.
Exactly.
They passed the cost on to you.
True.
You got anything else?
I got nothing else, man.
I'm going to legit look into this.
Let me know how it goes, man.
I'm really interested.
I have a dude out.
I don't think we could do our whole house,
but we have this one roof in particular now
that you can't see from the street.
You can only see it from one place in the house,
and I think it faces south.
And I have to measure the panels,
but I could probably fit eight panels up there.
That's not enough for my whole house.
Hey, whatever little bit works.
It could power my Frankenstein experiments.
Right, exactly.
You're bringing inanimate matter back to life.
That's right.
One other thing, Chuck, there's a big obstacle
that's facing us worldwide,
and that is that we haven't figured out
how to get solar energy from the oceans,
collected over the oceans to the rest of the world,
which is going to be a big challenge.
But if we could figure that out, problem solved.
Just build a solar array the size of Texas,
maybe over the Great Pacific Garbage Patch,
and there we go.
I feel like I've seen research into that,
and maybe not the oceans,
but solar blankets over water, no?
Am I making that up?
I mean, I'm sure that you could have them
in coastal areas or whatever,
but that means you couldn't swim in those coastal areas,
which is going to depress the value of the real estate there.
So I would guess we would want them really far offshore,
but how do you get that electricity back
to where it's needed on land?
That's the question, I think.
Yeah, just though a big floating solar blanket
over an offshore oil rig.
And just plug it in.
Just plug it in.
Yep, there you go.
Solving problem. Problem solved.
If you want to know more about solar, go check it out.
See if you can maybe swing it for your house,
and if so, let us know about it.
We want to hear that,
and Chuck will keep you updated too, won't you?
Sure.
And since I said Chuck will keep you updated, friends,
that means it's time for Listener Mail.
Oh, no, sir, I know you're being coy,
because to your right in Jerry's chair
is Alexander Williams and not Jerry.
No, Jerry's standing over there.
This is all getting weird.
It is getting a little weird.
We're playing musical chairs and Jerry's the loser.
That's, no, Jerry's not for the loser.
What we've done though today is ask Alex Williams,
one of our colleagues in Powell's here in the office
to come in, and we don't do this much,
but when we really love a show,
and someone sits 14 feet from us.
Well, and they do something really special.
I mean, this is special stuff we're talking about here.
Well, that's why I said we really love it.
Okay.
We ask him in, and here he is,
to talk about your great show, Ephemeral.
What a comfortable chair.
Jerry, I can see, what a great chair.
Is that Frank?
That is Frank.
Oh, wow.
He's sitting on Frank.
That's right.
So welcome, Alex.
We wanted to have you here
to kind of tell everybody about your show,
because we love your show,
and we could talk about it all day,
but we thought it'd be better if you came in
and kind of told the folks like the thought behind Ephemeral
and what prompted you to do it
and what they can expect from it, so go.
Okay.
Well, it's a podcast about artifacts, right?
The stuff that gets left behind,
and trying to illuminate,
maybe dark or sort of forgotten corners of history
by, you know, when we have them,
by playing the artifacts, I mean,
it's an audio show, so specifically, you know,
we started with ideas of like tape and, you know,
film and video, but then, you know,
sometimes you get into areas
where there's just really no artifacts
or artifacts that don't really translate
into the audio medium,
and then so you experiment a little bit.
And so the series itself, it's 10 episodes,
plus a trailer, right?
That was the first season, yeah.
The trailer itself stands on its own,
I think you've said before.
I hope so, yeah, it's an eight minute little story
about, we'll call it like my first,
there was no podcast then, my first radio show,
a show that I,
a loose, you know, connection of thoughts
that I would make on my parents' answering machine.
That was my fully produced first show,
at least that I remember.
And so in each episode,
you kind of find a recovered or formerly lost
or just kind of overlooked piece
and then kind of dissect it and explain it
and talk about like its place in the universe, right?
And I think one of the episodes was about
of kind of a long lost original TV network, right?
The Dumont television network, yeah.
You guys ever heard of Dumont?
I had not, no.
In the golden age of television,
there's four TV networks, ABC, CBS, NBC,
all still with us today.
All big radio companies beforehand.
I mean, big, big huge brands.
And Dumont was a television manufacturer
that got into the broadcasting game at the very beginning.
They were the fourth network when there was only four.
They were only around for, I think,
just a little over a decade
and something like 20,000 broadcasts
have been almost completely lost
because things just weren't recorded then.
There was no real way to record live television.
What they would do is they'd make something called
a kinescope, which you take a TV screen
and you film it with your film camera.
And then you have a reel that looks terrible.
And the only reason they make that
is so they could send it off to, you know,
you're in California and your affiliates not connected
to New York, D.C., Philadelphia, et cetera,
on the coaxial cable.
And so then they'd show it once in California
and then they would trash that thing
or tape over it or, you know, film over it
because there was no reruns then.
Early TV was live and it was weird because of it.
So the little snippets that we have of it
left the few kinescopes that got saved.
It's something like 300, you know,
somewhat complete broadcasts that are mostly
held by individual collectors
and a fewer in institutions like the Museum of TV
and Radio in New York.
Nice.
That's awesome.
You also covered one of the topics
that we have covered in the past
about the Collier Brothers, which was very cool.
And I think that's one of my favorite things
about the show is it's so wide ranging.
It's like the best episodes of this American life
or 99% invisible as far as your approach goes.
And that's why I think I loved it from the beginning.
You were in the Collier Brothers episode very briefly.
I know.
You did a walk-by, huh?
I did a line reading.
Nice.
We'll just leave it at that.
It'll be an Easter egg for listeners.
So all 10 episodes plus the trailer out,
they're available now, wherever you get your podcasts, right?
Indeed.
Is the second season coming?
Second season, we did our first recording for yesterday.
Nice.
Yeah.
How's it going?
So far, so good.
I got a lot of reading to do, man.
Right on.
We'll get to it.
We won't keep you any longer, but thank you for coming by.
And if you want to check out ephemeral, everybody,
you can go check it out on what?
The iHeart Radio app, Apple Podcast,
wherever you get your podcasts, go check it out now.
All of those things.
Someone asked me to put it on an old tape for him,
but I haven't done that yet.
That would be a cool way to get it.
It would be.
Thanks for coming by, Alex.
Thanks for having me on, guys.
Well, if you want to get in touch with us like Alex did,
you can just drop by the studio.
J.K., instead, go on to StuffYouShouldKnow.com,
check out our social links, or you
can send us an email to stuffpodcast at iHeartRadio.com.
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