Shadowing Practice: What If We Moved All 8 Billion People To Mars? - Learn English Speaking with Video

Bir pratik modu seçin

Her mod tam ekran bir pratik odası açar.

269 cümleler

Cümleler çok kısa veya çok uzun ise, ayarlamak için Düzenle'ye tıklayın.

War?

Environmental destruction?

Global warming?

Species extinction?

Spaceship Earth is being trashed by its crew.

It's looking like humanity.

It needs a plan B.

Fast.

And the obvious candidate?

Well, it's staring down at us every night.

Mars.

It has a total surface area almost equal to Earth's entire land area.

So there's room for all of us.

And unbelievably large sums of money are being directed to space exploration.

So it's not so out there to ask, what if we moved all 8 billion of us humans to Mars?

When you measure it, Earth is 71% ocean.

The livable area we live on is just a small part of the total.

So even though Mars is a planet with roughly half the diameter of Earth,

its livable surface area is strikingly similar to what we have on Earth.

So Mars has room for us.

Now, the most important element to sustain human life is water.

Wherever we move to, we're going to need lots of water.

And Mars may look like a dry rock, but unlike closer destinations like the Moon,

it secretly has water, and plenty of it.

Water on Mars exists as ice at the poles, or it's hidden in deep rock formations beneath the surface.

The scientists have estimated that there's enough subsurface water on Mars to cover the entire planet one to two kilometers deep.

Now, the next thing we'll need is air to breathe.

And Mars has air.

It's thin compared to Earth, but Mars has an atmosphere and weather systems to go along with it.

Currently, the air can't sustain human life without a space suit, but it is something to build on.

And given the choices of other close-by options, Mars is much better than the completely airless Moon,

or our closest neighborhood planet, Venus, where the atmosphere is mostly carbon dioxide and sulfuric acid.

It also has a surface temperature of a blistering 464 degrees Celsius.

That's 867 degrees Fahrenheit.

And an atmospheric pressure 93 times that of Earth.

So when you look at the hellscape that's Venus, Mars is pleasantly inviting.

And then there's light.

Wherever we go, we're going to need some sunlight.

Mars is only one and a half times the distance from the Sun as Earth is, so it's only a little farther away.

At that distance, Mars might seem like a cold environment compared to Earth, but it's close enough to the Sun to receive a useful amount of sunlight

that can be turned into solar power and to grow crops.

And Mars has seasons, like on Earth.

Mars' longer orbit means it takes longer to go around the Sun, so a Martian year is longer, at 687 Earth days.

But it has a similar rotation to Earth.

A day on Mars lasts 24.6 hours, compared to our 23.9.

Plus, it has a very similar axial tilt of 25 degrees, compared to Earth's 23.4 degrees.

And wherever we move to needs to be as close as possible.

There are closer destinations than Mars, like Venus or Mercury, but by any measure, they're completely unlivable.

So we're left with Mars as our closest habitable option.

Now, the Red Planet is the only logical next step after the Moon, which itself is an unimaginably harsh environment.

It's fit only as a launching pad to space.

The Moon is a great stepping stone to other places, maybe a small colony, but certainly not for 8 billion of us.

So Mars looks very promising.

And colonizing Mars isn't just wild speculation.

The race to Mars has already begun.

We're about to see one of the most technically ambitious and well-resourced space programs in human history shift into high gear.

The financial markets are already going there.

Just look at the valuation of SpaceX in 2026, which came in around $1.7 trillion.

Compare that with the operational budget of NASA's entire 13-year Apollo project in the 60s.

That cost around $300 billion, adjusted for inflation.

That shows that this is by far the most well-funded space project in human history, by a multiple of five.

This is getting real, real fast.

There's no question Earth is dying and Mars has space, Mars has water, Mars has an atmosphere and sunlight.

It's relatively nearby and we've already got remote rovers exploring it.

And one of the most valuable companies in the world is throwing all its capital and resources into getting there.

All that's left is to get all 8 billion of us off Earth and onto Mars.

So how many humans have we put into space so far?

10,000?

Maybe 1,000?

Nope, 781.

Not exactly an inspiring start.

SpaceX is leading the charge right now, constantly wrapping up its launch schedule.

But even with all that effort, the numbers are still tiny.

The SpaceX managed 96 launches in 2023, upping it to 134 launches in 2024,

and hit an all-time high of 165 launches in 2025, which was their busiest year ever.

But most of those launches have been without human passengers.

Of the 781 people who have left Earth and touched space, SpaceX has only lifted 78 of them.

Its Dragon spacecraft took six years and 20 different missions to get to that number, too.

That's the entire track record of the most active rocket company on Earth, set against our target of 8 billion people.

In the short human history of space travel, the single best year on record put about 70 people into space,

which was a record set by a combination of NASA and other countries during the peak of the space shuttle program.

And that was back in 1985.

Now, the record for the most people in space at the same time was set much more recently, in 2023.

And that record was tied again in 2024 when, drumroll please, Eleven people were on the International Space Station,

three on China's Tiangong Space Station, and six were aboard Virgin Galactic's VSS Unity space plane,

which spent only part of its hour-long flight in suborbital space.

So the record is 20 people, and it lasted less than an hour.

Humans establishing a permanent presence in orbit is an incredible achievement, and more are on their way,

but we're talking about evacuating Earth's entire population.

So how difficult is this really going to be?

SpaceX's most favorable projections for its Starship have a goal between 100 and 200 passengers per launch.

For argument's sake, let's be incredibly generous.

Elon loves to plan big and go even bigger, so let's give him the benefit of the doubt and multiply the high end of those numbers by 10.

So every launch would have 2,000 passengers.

Well, even at that accelerated rate, you'd need 4 million launches to move 8 billion people.

Okay, let's frame this from the perspective of a human lifespan,

not some abstract future, but as a project that someone born today has a chance of seeing reach completion.

At 4 million launches spread across a century of continuous non-stop launching,

that works out to about 110 launches of 2,000 person starships every single day for 100 years straight.

100

Put that beside the actual record, SpaceX's busiest year ever was about 165 launches.

101

Moving everyone within a century means sustaining roughly 240 times that annual rate.

102

Not for one record-setting year, but for every single year, 100 years straight.

103

And there's a huge complication to this scenario.

104

They can't launch every day.

105

Because Mars and Earth are moving in relation to one another, they only line up for an efficient journey every 26 months.

106

So launches can't be spread out.

107

They need to be crammed into the 46 or so windows of opportunity that occurred during that 100-year period.

108

Okay, well, that would be 87,777 launches during those precious windows and a standing fleet of ships ready to go,

109

numbering in the tens of thousands.

110

Now, if we were to dial back this hypothetical fantasy

111

and use the number of ships that Elon Musk himself floated as an eventual goal of SpaceX,

112

a fleet of 1,000 ships carrying 100 passengers each, launching during the windows of opportunity,

113

well, the job would take 173,300 years.

114

we're definitely going to need a bigger lifeboat.

115

Let's take our number and multiply it by 100, a measure of scale that's way beyond our current thinking,

116

but also still inside the bubble of what's conceivably possible.

117

Let's imagine that we can build ships that could carry 20,000 people per launch, a design that has no real engineering behind it.

118

But to get a sense of this scale, think of the world's largest cruise ship, Royal Caribbean's icon of the seas.

119

It's 365 meters long.

120

That's 1,200 feet long, longer than three football fields.

121

And it weighs 250,000 gross tons.

122

Between the crew and the passengers, it holds about 10,000 people.

123

So double that, stand it on end and shoot it into space.

124

Even at this gargantuan size, we would need 400,000 launches to get everyone off Earth.

125

That's 11 launches a day for a century.

126

And again, you can't launch every day.

127

Even carrying 20,000 passengers each trip, the size of the fleet would still need to be enormous.

128

A quick trip to Mars, given current technology, would take 200 days one way, a 400 days round trip,

129

with no time for turnaround.

130

But the ship that went to Mars would have to wait there for a window of opportunity to return to Earth,

131

so they wouldn't get back in time for the next launch window 26 months later.

132

We'd have to maintain a fleet double the amount.

133

That's 17,390 ships to keep to this launch schedule.

134

And here's the kicker.

135

Even if we start with a static base figure of 8 billion people, that figure is going to rise daily.

136

To make it simple, let's say we stick with the wildly optimistic figure of 11 launches of 20,000 people a day.

137

So that's 220,000 people a day leaving Earth.

138

But there are approximately 360,000 births a day on Earth and about 160,000 deaths for a daily population gain of around 200,000.

139

To get everyone off Earth and to safety, we'd have to launch a minimum of 10 ships with 20,000 people on them every day

140

before we even started to evacuate any of the waiting 8 billion people alive today.

141

And all this is without getting into the mind-numbing cost of lifting that much tonnage into space.

142

The per kilogram cost of energy spent to send payloads into space is just the start.

143

Humans need incredibly complex life support equipment, food and waste management systems.

144

So unless we build a fleet of thousands of gigantic ships

145

and focus all of humanity's resources on this project for over a century, we won't be moving to Mars.

146

Elon Musk's aspiration is for a 1 million person city on Mars within 20 to 30 years.

147

Even if we ran the numbers for a fraction of Earth's population, say 8 million, and we went back to the most optimistic numbers floated by Elon,

148

we would be looking at between 40,000 and 80,000 launches.

149

But the math we're dealing with is for 1,000 times that population.

150

But let's say human engineering, labor, and resource allocation all rise to the occasion,

151

and humanity pulls together and commits to this project for a century, and we move the human population of Earth to Mars.

152

What happens next?

153

How do we survive?

154

Okay, the problem with Mars is that when you shine a critical light on it, and look past the surface comparisons,

155

It has none of the basics we humans need to survive.

156

If you think Earth's resources are stretched thin, well, let's take a look at a planet that has virtually nothing to offer.

157

The water on Mars is trapped in ice, the air is almost non-existent,

158

there's no food source, the dust that covers the planet is toxic, radiation levels are sky-high, and the sunlight is weak.

159

When it gets down to the simple facts, Mars is going to try and kill you over and over and over again.

160

All that subsurface water is buried so deep that it's almost impossible to get to.

161

Drilling a hole 10 km deep on Earth would be an engineering feat in and of itself.

162

The air is too thin to breathe, so you need to wear a space suit at all times when outside.

163

Even if you could go outside without a suit, the fine toxic dust that covers every inch of the planet will poison you.

164

And even then, the planet doesn't have a global magnetic field blocking out radiation like Earth does.

165

So the radiation bathing you is 100 times Earth's natural background level.

166

Without protection, it will slowly and inevitably destroy your cells.

167

So you need to be shielded more or less permanently.

168

Plus, this barren planet would starve you.

169

This would be the equivalent of having 8 billion people live in a submarine.

170

Permanently.

171

Never surfacing.

172

Sound like fun?

173

Well, there's more.

174

Let's take a closer look at what kind of resources we'd need to survive on Mars.

175

There's a parallel right here on Earth on Earth, the harsh, unforgiving conditions in Antarctic research stations.

176

Nearly everything for human survival there is shipped in from outside.

177

780 kilograms of food per person per year needs to be imported for the crew.

178

The state-of-the-art experimental mobile greenhouse Eden ISS,

179

built to grow food for crews on space stations grew 268

180

kilos of food over about 286 days for a crew of 10, working out to about 27 kilos per person,

181

roughly 3.4% of the 780 kilos a person actually eats every year.

182

Almost all of these stations' operational energy needs to be imported too.

183

184

Locally generated wind power covers only about a fifth of the two stations' needs.

185

The South Pole station runs on a lean few hundred kilowatts of power on average to support up to 150 people,

186

but it still burns about 1.7 million liters of fuel a year.

187

scale up this Antarctic math for 8 billion people, and stretch the supply line across 54.6 million kilometers,

188

and the numbers start looking impossible.

189

Nothing grows naturally on Mars.

190

There's no viable soil, other than what Matt Damon might have left up there.

191

And you can't just add water to the dust that's on the ground, it's dead.

192

Every single calorie of food would have to be shipped in or grown in artificial greenhouses with imported soil.

193

Feeding everyone on Mars at the Antarctic per person rate would require 6.24 trillion kilograms,

194

or 6.24 billion tons of food every year.

195

An amount that grown indoors at the best Eden ISS greenhouse yield ever achieved would need a sealed,

196

artificially lit farm about the size of the United Kingdom.

197

The power for lighting and heat alone for 8 billion people on Mars, even at bare research station rates per person,

198

comes out to roughly 9 times all the electricity humanity currently generates worldwide.

199

On a planet that receives less than half of Earth's sunlight, is prone to planet-wide dust storms, and has no natural fuel reserves.

200

And building up an industrial base in the long term on Mars would have severe challenges.

201

The simple fundamentals like no hydrocarbons for plastics,

202

and no coking coal for conventional steel would leave Mars lacking industrial basics.

203

Due to a lack of critical resources,

204

Mars would never be able to sustain some of the simple industrial chains that are essential to our modern technological world.

205

Not to mention the very complex technological chains that drive Earth's current economy and tech industry.

206

Semiconductor supply chains that only a handful of Earth's most advanced economies manage would be almost impossible on a planet like Mars.

207

Mars would likely remain highly dependent on Earth for many of the survival-level basics for centuries, and maybe forever.

208

And unlike colonies of the past on Earth, Mars wouldn't be a source of new wealth for the colonial home country,

209

but an incredible resource drain.

210

In the case of a dying Earth, the resources expended on the Mars project would only speed up our decline.

211

The most radical fix would be to terraform the entire planet, transforming the dry, barren rock that is Mars into a fertile,

212

green water world like Earth.

213

But this process, even if it was possible, would take unimaginable resources and hundreds,

214

if not thousands, of years to achieve.

215

But let's say we did it.

216

Humanity pulled together all its resources and achieved the unachievable.

217

And we moved all eight billion of us to Mars and we solved the problems of water, radiation, dust, food, and energy supply.

218

Well, we still have a bigger problem.

219

The problem is us.

220

Because who's to say that the same 8 billion people who trashed Earth wouldn't do the same thing on Mars?

221

Humans have reshaped Earth.

222

We now live in the Anthropocene, a new geological epoch defined by human activity on Earth.

223

We've changed the composition of the atmosphere.

224

Atmospheric carbon dioxide is now 50% higher than it was before the Industrial Revolution.

225

The ocean has absorbed enough carbon dioxide to increase its acidity by 30%.

226

44% of Earth's habitable land has been turned into agricultural land.

227

Humans have wiped out 60% of the planet's mammals, birds, fish and reptiles since 1970.

228

In the past decades, these human impacts have accelerated at an unprecedented rate.

229

Sometimes referred to as the Great Acceleration, we're increasing carbon dioxide emissions,

230

ramping up global warming, speeding up ocean acidification, destroying habitats faster, killing off more species,

231

and doubling down on natural resource extraction.

232

This is our track record.

233

This is what 8 billion humans are capable of.

234

And there's no indication that we wouldn't just do the same thing again on a new planet.

235

Same population, but in an even more fragile situation.

236

It's hard to imagine how humanity will act living in an almost entirely artificial closed-in world on Mars.

237

But given the evidence, the citizens of Mars are likely to exploit, deplete, degrade their home in the same way they did on Earth.

238

To add to this, the fact

239

that every colony a country has ever established has eventually turned away from its colonizer and fought for independence.

240

many times violently.

241

Just like when the American colonies turned against Britain,

242

the interests of the Mars colony would eventually drift out of alignment with whatever political entity was left on Earth.

243

But in this case, even a resource depleted

244

and environmentally degraded Earth would still look like a green paradise compared to the harsh, barren surface of Mars.

245

Even a half-dead Earth probably recovering after the exodus of humans, would be a strong temptation to a struggling Mars colony.

246

Which leads us to the real deal.

247

Any problem that's big enough to make us seriously consider fleeing the planet

248

is far cheaper to fix here than to restart from nothing on Mars.

249

That's a summary of Neil deGrasse Tyson's point of view on the matter.

250

Neil, who is the director of the Hayden Planetarium, aka someone who really, really knows space.

251

The harsh fact is that there is no plan B.

252

But if we understand this profound truth, we might just have a chance.

253

If we turned the resources we're currently committing to financial fantasies toward the real world problems we face,

254

we wouldn't have to leave Earth.

255

Ironically, the global cooperation needed to plan and pull off mass immigration to Mars

256

would be exactly the international coming together we'd need to move towards sustainability and to reverse Earth's decline.

257

Fixing our problems here is far more realistic and achievable than escaping to space.

258

But there is one external existential threat that we can't fix by ourselves here on Earth.

259

It's happened before, and we probably won't be able to do anything about it.

260

That's a direct hit by an asteroid that could render Earth completely uninhabitable.

261

Even a small asteroid impact could scramble the global climate and send our complex and fragile civilization back to the Stone Age.

262

We might be able to deflect or destroy an approaching asteroid threat if we had enough early warning,

263

but there's also a chance we don't see it coming in time.

264

This is not a fantasy situation.

265

One of these asteroids has already ended an entire era of life.

266

But when the Chicxulub asteroid smashed into Earth, it changed the climate overnight,

267

wiped out the dinosaurs, and redirected the trajectory of evolution.

268

But that's a story for another WHAT IF.

269

Transcription by CastingWords

Uygulamayı İndir

Akıcı konuşmak için ihtiyacınız olan her şey

AI TelaffuzHer cümleyi puanla

IPA AlıştırmasıHer sesi ustalaştır

Kelime BilgisiKelime bankanızı oluşturun

Kelime OyunuOynarken öğrenin

QR Tara

Download on theApp Store Get it onGoogle Play

Aynı Kanal

FOR YOU

Video Öner

41 cümleler

Unit 6: Living on Mars

Daily ConversationUniversity StudentsWorking Adults

66 cümleler

5 "Impossible" Things That Can Happen On Other Planets

Daily ConversationUniversity StudentsWorking Adults

222 cümleler

What If You Lived on Mars 1 Billion Years Ago?

Daily ConversationUniversity StudentsWorking Adults

138

16 cümleler

Can Earth Run Out of Water?

Daily ConversationUniversity StudentsWorking Adults

142 cümleler

The Planets In Our Solar System

Daily ConversationUniversity StudentsWorking Adults

18 cümleler

Sometimes size does matter #stem #map #perception

Daily ConversationUniversity StudentsWorking Adults

82 cümleler

What Would Happen If Earth Started to Spin Backwards

Daily ConversationUniversity StudentsWorking Adults

23 cümleler

YOU Own the Moon. And Mars. And Venus.

Daily ConversationUniversity StudentsWorking Adults

36 cümleler

What If The World Went Vegetarian?

Business EnglishDaily ConversationUniversity Students

5 cümleler

Spending a Day on Earth 200 Million Years Ago

Daily ConversationUniversity StudentsWorking Adults

14 cümleler

Artemis II Astronaut talks about being a Crew ✨🌎 #nasa #space #artemis

Daily ConversationUniversity StudentsWorking Adults

Bu dersin kelimeleri ve konuşma notları

Bu B2 seviyesindeki konuşma dersi “What If We Moved All 8 Billion People To Mars?” videosuna dayanıyor. En çok tekrarlanan kelimeler: Mars, Earth, space, planet, billion. Bu videoda gölgeleme çalışması için 268 cümle ve 3358 kelime var. Konuşma bölümü 26:43 sürüyor. Konuşmacı dakikada yaklaşık 126 kelimelik dengeli bir hızla konuşuyor; gölgeleme için rahat bir tempo. Kelimelerin yalnızca %81’i İngilizcede en sık kullanılan 3.000 kelime arasında, bu yüzden kelime dağarcığı zorlayıcı.

Bu videodaki önemli kelimeler

Videodaki en ileri düzey 15 kelime, telaffuzu ve anlamıyla:

Kelime	Telaffuz	Anlam
sunlight isim	/ˈsʌnˌlaɪt/	güneş ışığı
asteroid isim	/ˈæst(ə)ɹɔɪd/	asteroit
harsh sıfat	/ˈhɑɹʃ/	sert
sustain fiil	/səˈsteɪn/	sürdürmek, muhafaza etmek
import isim	/ˈɪm.pɔɹt/	ithal
kilogram isim	/ˈkɪləɡɹæm/	kilogram, kilo
multiply fiil	/ˈmʌltɪplaɪ/	çarpmak
accelerate fiil	/ɪkˈsɛl.əˌɹeɪt/	hızlandırmak
greenhouse isim	/ˈɡɹːnˌ(h)aʊs/	sera, limonluk
atmospheric sıfat	/ˌætməsˈfɛɹɪk/	atmosferik, cevvi
fragile sıfat	/ˈfɹæd͡ʒəl/	kırılgan, narin
optimistic sıfat	/ˌɒptɪˈmɪstɪk/	iyimser
wipe fiil	/waɪp/	silmek
orbit isim	/ˈɔɹ.bɪt/	yörünge
technological sıfat	/ˌtɛk.nəˈlɑ.dʒɪ.kəl/	teknolojik

Duyacağınız deyimsel fiiller

Kelime	Telaffuz	Anlam
speed up fiil	/spiːdˈʌp/	hızlanmak, hızlandırmak
wrap up fiil		paketlemek, (bir şeyi) sarmak

Tekrar etmeye değer cümleler

Videodan, günlük konuşmada yeniden kullanabileceğiniz kısa ve tam cümleler:

Wherever we go, we're going to need some sunlight.
For argument's sake, let's be incredibly generous.
We'd have to maintain a fleet double the amount.
How do we survive?
We've changed the composition of the atmosphere.

Bu videodaki dil bilgisi

Konuşmacının en çok kullandığı yapılar, videodaki sözcüklerin aynısıyla:

Yapı	Videoda
Present perfect have/has + fiilin üçüncü hâli — geçmişte olan ama şimdi de önemli olan bir eylem	have estimated · has already begun · have been
Edilgen yapı be + fiilin üçüncü hâli — kimin yaptığı değil, ne olduğu önemli	being trashed · being directed · can be turned
İlgi cümlecikleri who / which + cümle — bir kişi ya da şey hakkında ek bilgi	people who have · people who trashed · someone who really

Dikkat edilecek telaffuzlar

Konuşmacı we're, can't, wouldn't gibi kısaltılmış biçimleri 34 kez kullanıyor. Bunları duyduğunuz gibi kısa söyleyin.

“sh” ve “zh” sesleri: harsh /ˈhɑɹʃ/, emission /ɪˈmɪʃ.ən/, shuttle /ˈʃʌtəl/, ambitious /æmˈbɪʃ.əs/, fraction /ˈfɹæk.ʃən/
Uzun kelimeler — vurguyu doğru yere koyun: habitable /ˈhæbɪtəbəl/, accelerate /ɪkˈsɛl.əˌɹeɪt/, atmospheric /ˌætməsˈfɛɹɪk/, optimistic /ˌɒptɪˈmɪstɪk/, technological /ˌtɛk.nəˈlɑ.dʒɪ.kəl/

Türkçe konuşanların zorlandığı sesler:

Kelime başındaki ünsüz kümesi — araya ünlü eklemeyin: greenhouse /ˈɡɹːnˌ(h)aʊs/, fragile /ˈfɹæd͡ʒəl/, float /fləʊt/, drift /dɹɪft/, stare /stɛɚ/
/æ/ — “e”den daha açık: asteroid /ˈæst(ə)ɹɔɪd/, barren /ˈbæɹən/, habitable /ˈhæbɪtəbəl/, kilogram /ˈkɪləɡɹæm/, atmospheric /ˌætməsˈfɛɹɪk/

Bu videoyla nasıl çalışılır

Videonun tamamını konuşmadan bir kez dinleyin ve bilmediğiniz kelimeleri not edin.
Normal hızda cümle cümle tekrar edin; ritminiz konuşmacıyla aynı olana kadar her cümleyi yineleyin.
Kendinizi kaydedin ve orijinaliyle karşılaştırın; sunlight, asteroid, harsh gibi kelimelere özellikle dikkat edin.

Gölgeleme Tekniği Nedir?

Gölgeleme, başlangıçta profesyonel tercüman eğitimi için geliştirilen ve çok dilli Dr. Alexander Arguelles tarafından popüler hale getirilen, bilim destekli bir dil öğrenme tekniğidir. Yöntem basit ama güçlüdür: ana dili İngilizce olan bir sesi dinler ve hemen yüksek sesle tekrar edersiniz — konuşmacıyı 1-2 saniye gecikmeyle takip eden bir gölge gibi. Pasif dinleme veya dilbilgisi alıştırmalarının aksine, gölgeleme beyninizi ve ağız kaslarınızı gerçek konuşma kalıplarını eşzamanlı olarak işlemeye ve yeniden üretmeye zorlar. Araştırmalar, telaffuz doğruluğu, tonlama, ritim, bağlı konuşma, dinleme anlama ve konuşma akıcılığını önemli ölçüde geliştirdiğini göstermektedir — bu da onu IELTS Konuşma hazırlığı ve gerçek dünya İngilizce iletişimi için en etkili yöntemlerden biri yapar.

Shadowing tekniği: adım adım eksiksiz rehberi okuyun →

Shadowing Practice: What If We Moved All 8 Billion People To Mars? - Learn English Speaking with Video

Bir pratik modu seçin

Uygulamayı İndir

Earth Becomes a Moon | What If Saturn Took Over?

What If Megalodon Fought a 13-Meter Titanoboa in the Swamp?

8 Ancient Animals Scarier Than Dinosaurs

What If Humanity Became Type 7 Civilization?

You Are Alive to Watch the Space Station Fall From the Sky

What If a Megalodon Shark Fought the Kraken?

What If Gravity Got 1% Stronger Every Second?

12 Things That Could Destroy Earth

What If the Kraken Was Real?

What If you Could See the 4th Dimension?

What If Russia Started World War 3?

What If You Were Swallowed ALIVE by a 60-Foot Sperm Whale?

What If | Channel Trailer | An Epic Exploration Of Possibilities

What If the Megalodon Shark Fought the Leviathan Whale?

What If the Megalodon Shark Fought the Mosasaurus?

What If a Needle Hit The Earth At The Speed Of Light?

What If the Mosasaurus Never Went Extinct?

What If The Megalodon Never Stopped Evolving?

What Happened After the DEADLIEST Asteroid Hit Earth?

What If We Had To Rebuild Human Society From Scratch?

Unit 6: Living on Mars

5 "Impossible" Things That Can Happen On Other Planets

What If You Lived on Mars 1 Billion Years Ago?

Can Earth Run Out of Water?

The Planets In Our Solar System

Sometimes size does matter #stem #map #perception

What Would Happen If Earth Started to Spin Backwards

YOU Own the Moon. And Mars. And Venus.

What If The World Went Vegetarian?

Spending a Day on Earth 200 Million Years Ago

Artemis II Astronaut talks about being a Crew ✨🌎 #nasa #space #artemis

Bu dersin kelimeleri ve konuşma notları

Bu videodaki önemli kelimeler

Duyacağınız deyimsel fiiller

Tekrar etmeye değer cümleler

Bu videodaki dil bilgisi

Dikkat edilecek telaffuzlar

Bu videoyla nasıl çalışılır

Gölgeleme Tekniği Nedir?