At-Home Experiments – WIF Mad Science

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– Mad Scientist –


You Can Do at Home

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For any of you who grew up watching the Back to the Future series, Dexter’s Lab, or anything that showcased zany inventions, then you probably love the idea of mad science. Experiments and projects that look really cool, and provide a lot of fun and awe factor, but may not necessarily be something with a lot of practical value. Below are several cool projects that will make you feel like Doc Brown himself.

While these types of projects can be a lot of fun, and a great way to learn new things, some of them can still pose some small dangers. Always exercise caution, especially when working with electricity or tools of any kind.

10. Make Your Own Miniature Tesla Coil

Tesla himself has basically become an internet celebrity, partly because of a Tesla revival movement, but also because the internet tends to appreciate a good showman. The inventor of the Tesla coil knew what he had created, and used it constantly to wow crowds to help increase his funding.

You can make your own smaller version to wow your friends and wow yourself. Using a capacitor, a small lightbulb, some wire and a few other parts, you will be showing everyone what a science genius you are in no time. You can check out the video above for a full tutorial.

9. Make A Sweet Potato Gun For Cheap

Potato guns are a somewhat controversial project — for those who aren’t aware, a potato gun doesn’t shoot whole potatoes, just little chunks from them. They are hardly truly dangerous for the most part, but some people have abused this childhood “weapon,” and gotten it banned in certain localities. However, the truth is that both when building them or trying to use them, the dangers generally come when trying to build an incredibly large pneumatic potato gun.

This is unnecessarily dangerous, especially for what should just be a fun project. In the video above, there is a tutorial from youtube for how to build a small potato gun using an empty spray bottle and a few other fairly common items.

8. Hack A Nerf Gun To Make It Way More Awesome

Most of us remember Nerf guns from our childhoods. They were incredibly cool, decked out in bright colors that excited the children of the time period, and often had all kinds of cool features. Some could shoot in multiple directions, some had secret hidden attachments and so on — they were the epitome of cool. However, the one thing we all wished was that they shot a bit farther and a bit harder.

It’s not like they would have hurt if they hit harder. They were soft foam and rubber, designed to be absurdly safe. However, the manufacturers made sure that the guns would be incredibly lawsuit and fun safe, and kept the pressure on them quite low. Some have found with some tinkering though, that the pressure can actually be increased. In the video a modder takes a nerf gun apart, and shows how to remove the installed inhibitor device that keeps it from shooting as far as it truly has the potential to. With just a little work, you can unleash the true power of the Nerf.

7. Build Your Own Drone For Whatever Fun Purposes You Wish

When most people think of drones, they think of gigantic remote controlled airplanes with bombs that shoot enemies in the Middle East. However, drones are becoming increasingly common, both commercially and as a hobby, and most of them are quite small. The average hobby drone involves a small body with some parts salvaged from old fans, enough electronic equipment to control it remotely, and usually a mounted camera as well.

In the video above, you can see a full tutorial that many hobbyists have found useful. While it takes a little bit of work, the parts are fairly easy to acquire, and the build is within reach for someone without much experience. Alternatively, if you are feeling really cheap, perhaps you could try strapping a GoPro to an RC helicopter.

6. Construct Your Own Theremin At Home

The Theremin is pretty much the musical instrument for mad scientists, and a must have if you want to have both the coolest and nerdiest way to make music possible. For those who aren’t familiar with them, a theremin is an instrument where you essentially move your hands through a magnetic field to make very otherworldly sounding notes. There are not many people who can play a Theremin well, but those who do provide some amazingly haunting sounding melodies.

And now, you can too, without paying huge amounts to buy a large sized Theremin you may never fully take advantage of. With the help of the YouTube tutorial above, you will be well on your way to making your own theremin. An amplifier, and a power supply are going to be some of the biggest ticket supplies you will need, and even those can be acquired for fairly cheap if you aren’t trying to be picky about sound quality.

5. Make Your Remote Controlled Robot Out Of Cheap Materials

Pretty much everyone wants their own robot. Especially those who want to impress their friends, or their enemies, with their knowledge of insane science. While a truly autonomous robot isn’t that practical and requires extremely complex programming, a remote controlled minion can still be very impressive and requires much less effort.

In the video above, you can see a tutorial on how to build a remote controlled robot that can even walk on uneven paths, and looks quite cool doing so. This robot was built with incredibly cheap and easy to use parts, such as styrofoam, glue, small pieces of crafting wood, and a small motor and battery. Most of it is incredibly easy to acquire and safe to work with. Using the same basic principles, you could easily modify the look a bit to make it feel more like your own personal robot minion.

4. Make Your Own Plasma At Home And Impress Your Friends

If you have ever seen a plasma globe, you have probably wanted to own one at least as a passing thought, and many of you probably have splurged on one at one point or another. Plasma globes are extremely cool, especially the way you can move your fingers across the globe to make it dance around inside. For those of you love science projects, making your own plasma globe is actually quite easy — although it won’t be quite as big or impressive as the commercial ones.

In the video above, you can see the full tutorial, but the parts you need will be minimal. A spark coil, a spring, an incandescent lightbulb and a capacitor. You will also need electrical tape, and you will want to read up first on safety precautions for working on electricity if you aren’t already familiar, to ensure that you stay properly grounded, just in case.

3. Make Your Own Solar Powered Radio Using Recycled Materials

For those of you who have ever went camping for a while, you may have brought along a solar powered radio. They can also be incredibly useful if the power goes out, and they often have lights built into them so you can see in an emergency as well. However, if you like to tinker, you can also take your own old radio, then salvage a solar panel from something else and put together your own solar powered radio.

In the video above, you can see an example of how the project can be completed. However, keep in mind that you really don’t need to buy your own solar panel from a manufacturer, as than can be expensive. There are many different, easy to acquire objects, that you could salvage solar panels from. And, if you are feeling really adventurous, you could always make your own solar panels.

2. You Can Build A Segway At Home For A Fraction Of The Price

Many people are familiar with the Segway, a device that was incredibly popular about a decade ago, and was more recently feature in the movie Paul Blart: Mall Cop. For those of the latest generation, a Segway is sort of like those recent hoverboards — the ones that don’t hover — except it has a giant handle on it to make standing long term easier. The segway goes for an asking price of several thousand dollars, and while the recent “hoverboards” are fairly cheap, they have been known to be fire hazards, and generally made as toys for smaller people, and aren’t high quality.

Using the video tutorial below, which also has a link to the original instructable, you can build your own full Segway, with all the power of a real one, for a fraction of the price — just a few hundred dollars. You can learn and get practice in several new skills, and the project is designed to be approachable even if you don’t have prior experience in any of them. If you want a hoverboard, you can just leave off the handle, and feel safer knowing yours is probably less likely to catch on fire abruptly.

1. You Can Do All Kinds Of Fun Experiments With Non-Newtonian Fluids

Making a non-newtonian fluid is really easy to do at home, perfectly safe, and incredibly fun to play with. Non-newtonian fluids are fluids that act differently under stress, and not just due to changes in temperature. One example of this is ketchup, which acts like a solid in the bottle when upside down, until you apply force to change its viscosity. For those who want to experiment with the properties, the best way is to use a mixture of two parts cornstarch to one part water.

Experimenting with it will show very strange results. When hit, it will act like a solid in that particular spot, even while the rest will ripple. If you pick it up and apply force you can form it into a ball, but if you release the force it will turn back into a liquid and drip through your fingers. With a large enough pool of it, you can basically walk across it and when it is put on top of speakers, it moves around like a strange alien being dancing to the music.

At-Home Experiments

WIF Space-001

– WIF Mad Science

In Love With Bottled Water – WIF Wet Facts

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5 Facts About

Bottled Water

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Angry Little Water Bottle by Pierre Thyss

The selling of bottled water can be dated back to 1622 at the Holy Well in Malvern, United Kingdom, which sold bottles of Malvern spring water. In the last 30 years, consumption of bottled water has increased dramatically and the average American now consumes 30 gallons of bottled water every year. But is bottled water actually better, safer, and worth the extra cost?

5. It’s Stupidly Expensive

As we’ll see in this list, bottled water is a big waste. One of the biggest things it wastes is people’s hard earned money.

According to a 2012 study from the University of Michigan, on average, bottled water costs $1.22 per gallon, which is 300 times more expensive than tap water. However, they point out that 2/3 of all bottles of water that are sold come in 16.9 ounce bottles, meaning that the water is actually $7.50 per gallon; that’s twice as much as gasoline.

In 2015, companies that distribute bottled water made $15 billion. That’s a whole lot of money spent on something that is so readily and easily available. If that wasn’t crazy enough, bottled water sales have gone up since then, and in 2016, for the first time ever, more gallons of bottled water were sold than soft drinks.

4. Nearly Half of Bottled Water is Tap Water

Have you ever thought about where the water in the bottle comes from? The origin of the water isn’t often listed in the ingredients, but sometimes the labels will say it’s “spring water,” “glacier water,” or “mountain water.” The problem is that the use of these words aren’t regulated so the water in the bottle doesn’t necessarily come from those sources.

In the book Bottled and Sold: The Story Behind Our Obsession with Bottled Waterauthor Peter Gleick says that several studies show that about 45 percent of all bottled water comes from municipal sources. This includes PepsiCo’s Aquafina and Coke’s Dasani.

Sometimes, taking water for bottled water from municipal sources can be a problem. For example, just outside of Guelph, Ontario, Nestle has a bottling plant and during a drought, they continued to draw water, putting the 130,000 citizens at risk of not having enough water.

3. Tastes as Good or Better… Maybe?

According to some people, they like bottled water because it tastes better than tap water. While it may be possible that some people can taste the difference, a majority of people can’t. Studies from the United States, Switzerland, Ireland, and France have found that only about one-third of people can tell the difference between tap water and bottled water. And this does makes some sense. There are differences between tap water and bottled water because different brands of bottled water contain varying levels of minerals like calcium and sodium, and water from different sources have different tastes.

While some people can tell the difference between bottled water and tap water, when it comes to taste, a majority of people think tap water tastes better than bottled water. In a few different studies, the number of people who preferred plain old tap water to bottled water can range from about 45 to 75%.

2. It’s No Safer Than Tap Water

One reason people choose bottled water over tap water is because they think it’s safer. In fact, the water crisis in Flint is one of the reasons why sales of bottled water have increased. The problem is that several studies have shown that bottled water isn’t any safer than tap water.

Usually when it comes to water in homes, there are two problems. First, the water comes from a well and the well can become contaminated. The second problem is usually caused by lead pipes in the home. Otherwise, all public water should be safe because of strict regulations and stringent testing by the Environmental Protection Agency and the Federal Drug Administration.

However, obviously it’s not a perfect system and Flint is an example of how the system failed. But bottling water doesn’t exactly solve the problem of water safety because bottling adds several unnecessary steps. Water that’s already clean goes into a factory, some ingredients are added, it goes through some filters, and machines put it into bottles. The problem is that whenever you add steps, it increases the chances that something could go wrong, like the water could be contaminated with E. coli. Amazingly,the FDA only started screening bottled water for E. coli. in 2013.

While another Flint-like water crisis is quite possible in the future, if investment in infrastructure is made, then tap water will continue to be a safe and relatively cheap resource.

1. It’s Killing the Environment

We started off this list talking about how wasteful bottled water is, and its wastefulness is no more apparent than when it comes to the environmental effects. In order to bottle water, companies use 17 million barrels of oil every year. That is just to manufacture the bottles and bottle the water, not the transportation to get it to retailers. Not only that, but the process also uses 1.39 liters to bottle 1 liter of water, which is just mind-numbingly wasteful.

Finally, in 2016, 12.8 billion gallons of water were put into bottles that aren’t biodegradable and unfortunately, only 12 percent of the bottles are recycled. So these bottles are going to sit around for the next 450 years or so until they fully decompose. That pretty much leaves us with two choices: limit the amount of water bottles we drink, or start building those big space crafts like the ones in WALL-E because we’re going to need them.

In Love With Bottled Water

– WIF Wet Facts

THE RETURN TRIP – Episode 244

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THE RETURN TRIP – Episode 244

…for those left behind by Stellar Explorer, it is impossible to learn from the mistakes — when you are not apprised of the actual outcome…

There are no concrete answers let alone solutions, in this speculative world of SOL technology, but man struggles for answers anyway.

When you test drive a new automobile/sky-car/jet-cycle, does one try out every color of your preferred model? Does the red one go faster than the black, or does it only look faster? In the case of the SOL Image result for variablesProject, the only variable being 397 pounds of human beings, could that have changed the norm to such a radical degree?

Many other like questions and some more technical ones has crossed Roy Crippen’s mind. Perhaps the most humble of those drives to the fundamental heart of the matter: Does man belong in space? In other words, are they technically capable of tackling projects such as SOL or going twenty years back, Space Colony 1?

You can have everything right, cover all your bases and this happens:

  1. a killer satellite from a rogue nation blasts the first orbiting space colony out of  Martian orbit, stranding the world’s most prominent and popular married couple and they disappear before they can be rescued
  2. the accelerator on a spacecraft, that has only been on a couple test-drives, gets stuck just as two of your young and brightest test-pilots reach the speed-of-light and those brave young men are related to their folks in number 1

Bad luck–maybe, bad science or bad math—probably, but in either case it is impossible Image result for it doesn't add up gifto learn from the mistakes, when you are not apprised of the actual outcome:

  1. Either branch of The Space Family McKinney tree is alive and well. Without the clueless people on Earth knowing, their math is incorrect
  2. Courtesy of the planet Eridanus, instead of -4, the count of McKinneys in space thought lost currently stands at +5, with the actual addition of Deimostra.


Episode 244

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Contents TRT

THE RETURN TRIP – Episode 237

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THE RETURN TRIP – Episode 237

…“Altitude 224.62, engaging vacuum induction, increasing isotope mixture to .759…

The final moments before the SLAV whisks the Stellar Explorer away pass quickly and is “put up or shut up” time. Fifteen years of R&D has dwindled to fifteen minutes of checklists. Nearly one-third of Deke & Gus’ lives have been spent in anticipation of this moment, now only a short ride to the outer atmosphere away.

Polite hand clapping grows into rousing cheers as the two deep-space pioneers climb the twenty stairs to enter the Stellar Explorer through the small side hatch. It is sleekly designed, more a side-effect of the speed it achieves, than the need for aerodynamics {no atmosphere – no friction}, but it can hold more than just the two pilots and makes less noise than an elevator door.

In contrast to that whoosh, the turbines of the generic SLAV will kick up its share of earthly dust, requiring hands over ears and on top of hats. It consumes every yard of runway one-niner to get airborne, much to the chagrin of the assembled, but not those of the informed.

All is calm in the control cabin of the Stellar Explorer, with no reason not to be, for if things go as planned, the jaunt to the edge of Solar System carries better odds than the favorite at The US Open tennis tournament. Las Vegas odds makers are taking bets that they will not re-enter Earth’s atmosphere in the predicted 30 minute window.

“I had Mindy put down a grand on at 9-2 odds,” Gus admits.

“Now how stupid was that? You are betting we have a headwind in both directions.”

“Not exactly. All we have to do is take our sweet time on the return trip.”

“I’m not sure they’ll pay off on that  Gus, when they find out who made the bet.”

“You can’t win if you don’t spin.”

“Enough of that nonsense, it’s almost time to light the fuse!” Games faces on, “Altitude 244.62, engaging vacuum induction, increasing isotope mixture to .759.”

“Five minutes to peak fusion, star drive ready,” Gus adds as he had done in the innumerable dry runs, “phase modes aligning, emergency decelerator on standby.”

Unlike the Enola Gay after it dropped its payload, the unnamed SLAV crew slows to an orbital stop to witness this milestone achievement in person. The Stellar Explorer is only visible for a blink-of-an-eye. —


Episode 237

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Down to Earth Facts – Planetary Platitudes

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Amazing Facts


Planet Earth

Planet Earth is an amazing place, to say the least. And even though we’ve been living on its surface our entire life, there are still a lot of things we don’t know about it. Many things that we do know are awe-inspiring. What’s even more interesting about some of these is the fact that they have wide-scale implications on everything around them. But why try to be so mysterious, if we can give you 10 such examples, right?

 10. Planet Earth and a Cue Ball

We all know the Earth is big, there’s no denying it. But when it really comes down to it, we have a hard time coming to grips with its actual dimensions. So, in order to make things more relatable, let’s take a look at mountains. Those of us who have been fortunate enough to see or even climb Mount Everest can attest to the fact that it’s incredibly huge and incredibly humbling. But most people don’t even need to see any of the tallest mountains in the world to know that mountains are big. Now, let’s take our mental image of mountains as points of reference when we talk about the dimensions of the Earth. We know that the average diameter of the planet is of about 7,900 miles. It’s important to note here that Earth is not a perfect sphere, but rather  an oblate spheroid. This means that, because it’s spinning on its axis, the diameter at the equator is bigger than the distance between the poles by about 27 miles. And beside these differences, the planet also has some bumps and dents, but they’re much smaller than 27 miles.

With this information in mind, if we were to scale the planet down to the size of an average cue ball, we would come to an incredible realization. According to the World Pool-Billiard Association (WPA) Tournament Table and Equipment Specifications, every new ball should measure 2.25 inches in diameter and only have imperfections that cannot exceed 0.005 inches. By making the proper calculations here, it turns out that the biggest “imperfection” on Earth can be 17 miles and fall within WPA standards. While Mount Everest is almost 5.5 miles tall, and the Mariana trench is 6.8 miles deep, if they were taken together, side by side, the sum is still below the 17 mile margin. The same thing applies to the difference in diameter between the poles and the equator. Each half of the planet is responsible for its 13.5 mile share out of the total 27, which again is below 17 miles. So, anyone who has ever held a brand new cue ball in their hand and is not amazed by the fact that the Earth is even smoother than that? Well, he or she seriously needs to revise their sense of wonder about the world.

9. The Earth’s Crust

If you liked the previous example, you’ll like this one too. The planet’s crust is the only place in the whole seemingly infinite universe that we call home; at least for the time being. And it’s not even the whole crust, per se, just the surface. The deepest humans have ever managed to go was to a depth of 7.5 miles with the Kola Superdeep Borehole in Russia. Temperatures reached well above 356 °F, so it was only the drilling equipment and measuring apparatus that made it down there, while the scientists stayed safely on the surface. The actual thickness of the crust, like its temperature, varies from one place to the other. While the average thickness is of about 9.3 miles, it can reach a maximum of 55 miles under the Himalayas and just about 3.7 miles under the oceans.

Now, by knowing the planet’s diameter to be 7,900 miles, if we were to scale it down again, but this time to the size of a basketball, the Earth’s crust would be the thickness of a postage stamp; a postage stamp floating on a ball of molten rock and metal. Yes, this is true. So, the next time you hear someone comparing the planet’s crust to that of a chicken egg shell, know that information to be false. The planet’s crust is far thinner than that. If Earth was the size of an actual egg, the crust would probably be even thinner than the thickness of human skin that peels off after a sunburn. Yuck! And since the crust is also broken up into pieces that we call tectonic plates, it’s now easier to understand how and why continents move around so much. So, now that you know these two pieces of information about the crust and the actual size of the Earth, how do you think we fare in size here on Earth by comparison to bacteria on an actual billiard ball?

8. Earth’s “Heartbeat”

With the previous two entries on this list, would it really come as a surprise to anyone that Earth might just have an actual heartbeat? Well, yeah, it would, and this isn’t actually true, but the planet does have something closely resembling one. Every moment of every day, Earth is going through roughly 2,000 thunderstorms everywhere on its surface. And these thunderstorms produce roughly 50 lightning strikes every second. And in turn, each of these lightning strikes produces a series of electromagnetic waves that are captured and then bounce between the planet’s surface and the lower ionosphere, some 60 miles up. If the wavelength is just right, then some of these waves combine and increase in strength, creating a repeating atmospheric “heartbeat”, a phenomenon known in science as the Schumann resonance. This phenomenon has been known for a while now, but in 2011 researchers came to realize that this resonance isn’t just confined to the planet’s atmosphere, since some of the waves actually extend more than 500 miles into space.

On a somewhat similar note, a Dutch artist by the name of Lotte Geeven, in collaboration with geoscientists from the German Research Centre for Geosciences, have recorded the sounds made by the planet, deep inside its crust. The recording was done in Germany, in a hole similar to the one in Russia mentioned before. The German Continental Deep Drilling Program, or more commonly known as the KTB borehole, goes to a depth of six miles inside the Earth’s crust and here, scientists were able to capture the sounds made by the planet. Some have described these sounds as a “melancholic howl” or “a bell-like alarm denoting histories in the making.”

7. The Amazing Story about Oxygen

It’s no real mystery that Earth hasn’t always looked like it does today. In fact, our planet is in constant change even at the current moment, and for the better part of its existence, the conditions on the surface have almost always been different than they are now. So, with this in mind, let’s talk about oxygen and how it got here. Oxygen only became predominant in the atmosphere roughly 2.3 billion years ago, during an incident called the Great Oxygenation Event. Before this time, oxygen levels were marginal at best, making up just around 0.02% of all the gases in the air. But during the GOE, it reached levels of above 21%. This big rise is thanks to a tiny organism that is still alive today – Cyanobacteria, or more commonly known as the blue-green algae. These organisms are not algae, as their common name might suggest, but unicellular bacteria that can manufacture their own food. They live in water, form huge colonies, and use photosynthesis to turn the sun’s rays directly into energy. A byproduct of photosynthesis, as some of us know, is oxygen.

Over billions of years , these tiny creatures inhabited the world’s oceans, releasing more and more oxygen as they multiplied and spread. It’s safe to say that we owe thanks to these Cyanobacteria for our very existence and the world we live in today. It is, however, important to note that this new change in the planet’s chemistry did not go as smoothly as some might think. For starters, oxygen was toxic for all other living creatures on the planet at that time and nearly drove all previous anaerobic life into extinction. Secondly, the growing amount of oxygen in the air reacted with the already existing methane, which was in abundance at the time, creating CO2. And since methane is 25 to 30 times more potent as a greenhouse gas than CO2, Earth went through a severe cold spell that lasted for 300 million years and almost drove even the “mighty” Cyanobacteria into extinction.

Lastly, the higher levels of oxygen triggered an explosion, so to speak, in the number of minerals on the surface of the planet – minerals that otherwise would not have existed if it weren’t for the blue-green algae. More than 2,500 of the total 4,500 minerals now common on Earth appeared during the Great Oxygenation Event. So, the next time you think of humans as being the only species capable of changing the planet beyond recognition and having the capacity to drive life, including itself, into extinction… think again.

6. The Origins of Life

For all the credit we can give our men and women of science when it comes to all the discoveries they’ve made over the years, we still have to take into account the fact that we know surprisingly little when it comes to life and how it came into being

in the first place. Up until fairly recently, we believed we knew with a relatively high degree of certainty when life first appeared on Earth, and we had our presumptions on how it happened. But it seems that this theory has now changed. According to a recent study, we can now move the appearance of life back by another 300 million years, bringing it quite close to the moment when the planet actually formed some 4.5 billion years ago.

 If the research is confirmed, then it would seem that life formed 4.1 billion years ago, from a primordial disk of dust and gas surrounding the Sun just before the Earth started forming. The researchers came to this conclusion after observing tiny specks of graphite trapped inside zircon crystals. This graphite is usually associated with signs of life. Another theory that can account for its existence in the crystals is a massive meteor impact. But given the amount needed to explain these findings, it makes the meteor theory highly unlikely, though not entirely dismissible. If proven true, however, and life is as old as this new evidence suggests, then it would seem it’s even older than the Moon itself. “With the right ingredients, life seems to form very quickly,” said Mark Harrison, a professor of geochemistry at UCLA and member in this study.

5. Two Planets Become One

Ever thought about how the Moon was formed? Probably because it’s visible up in the sky almost every other night, people have grown accustomed to seeing it and don’t give it a second thought. But the Moon’s history, and especially its birth, are amazing and terrifying, to say the least. Back in the early days of the solar system, and soon after our planet began to take shape, fate would place young Earth on a direct collision course with another planet we now call Theia. Now, even though it’s hard to know for certain if this actually happened, there are strong indications that it did. According to the calculations, this sister planet of ours was roughly the size of Mars (or slightly smaller), and because of the still unpredictable and chaotic nature of the solar system at the time, it was flung in the direction of Earth.

In the aftermath of the collision, two things happened. The two planets merged to form this one we are all standing on right now. And secondly, much of the debris that was flung into space came together and formed the Moon. Now, as we said before, this collision theory is not certain. But the relatively large size of the Moon as compared to the Earth points to this hypostasis. So do the rocks brought back during the Apollo missions, which are virtually indistinguishable from those here on Earth when it comes to their oxygen isotopes. This theory can also explain our planet’s unusually large core as compared to all the other rocky worlds in the solar system.

4. Shifting Poles

No, this has nothing to do with any voting or elections – it’s about the Earth’s magnetic field. Thanks in part to our planet’s larger-than-usual molten core and its relatively fast spin on its axis, both of which may be the result of the previously mentioned collision between Earth and Theia, our planet has a very strong magnetic field relative to its size. In fact, only Mercury, of all the other rocky planets, has a magnetic field, but it’s far weaker than our own. Venus doesn’t have one, even though we’re fairly certain it has a molten metal core. Scientists believe the reason behind this is because Venus has a slow rotation around its axis and the temperatures inside are more evenly distributed. Mars, on the other hand, did have a magnetic field once, but its metallic core has since cooled and solidified. In any case, our strong magnetic field protects us from the sun’s deadly solar radiation, it keeps our atmosphere from being blown away into space, and it gives us the beautiful aurora borealis around the poles.

But over the past century and a half, scientists have come to realize that this magnetic field is weakening. As it turns out, the magnetic poles of our planet are shifting. This means that someday in the future, north will be south and vice-versa, and the process has already begun. While in the early 20th century the poles were moving at a rate of about 10 miles per year, today that speed has increased to 40. There’s no real need to panic, though, since this phenomenon has happened hundreds of times before. In fact, over the past 20 million years, the poles have shifted every 200 to 300 thousand years or so. The last time it happened, however, was more than 780,000 years ago, so, we’re due for another one. And according to the fossil record from previous pole reversals, it seems that there were no major changes in plant or animal life.

What we would expect to see in this several-century-process would be an increased vulnerability to solar flares that could knock out entire power grids. Holes could be made in the ozone layer, exposing us and the environment to higher degrees of radiation. There would be more than two magnetic poles at a time, scattered all across the face of the planet, leading compasses to spin uncontrollably. Some animals could become disoriented, and we would see the northern lights in unusual places. The actual timeframe here is nowhere near to being exact. Scientists are still having a hard time understanding all the inner workings of our planet, but estimates say that this shouldn’t take more than 1,000 years or so. Probably even less. And before you say anything, it is important to note that from our planet’s perspective, a millennium is a literal geological instant.

3. Mother Nature is an Expert at Recycling

Over the many millions of years, Earth has become an expert at recycling. If given enough time, our planet has and will continue to reshape itself in a continuous cycle of renewal and rebirth. Every natural system on Earth is involved in this process in one degree or another, and the whole thing could take hours to explain properly. But because we know your time is valuable, we’ll keep it short. Let’s start with life. As time marches on, organisms grow, develop, and multiply, and then they eventually die. Their remains fall to the ground and become the very soil they once drew their nourishment from. Layer upon layer of this soil is produced, one on top of the other, slowly but surely turning into stone. This bottom layer of stone moves along with the tectonic plates they’re sitting on, eventually sliding underneath one another, or becoming a mountain if it ends up on top.

If this rock layer turns into a mountain, as two plate tectonics bump into each other, over time, rain, wind, the many rivers, as well as other natural phenomena, grind away at that rock, eroding it and washing it out to sea where it sinks at the bottom and turns into sedimentary rock on the ocean floor. Once here, it again transforms into metamorphic rock due to very high heat and pressure, and eventually ends up in the upper mantle of the Earth in a process known as subduction. Here, this rock is turned into magma which eventually finds its way back to the surface via an oceanic ridge system, or through the many volcanoes that dot the Earth – and the cycle repeats itself. Now, this whole process has been overly simplified here, but this cycle the crustal rock goes through, not only recycles carbon across the globe, but it also provides the nutrients necessary for life to thrive in abundance. If it weren’t for this process, life’s chances on the planet would be severely compromised.

2. The Earth is Growing

There is a theory circulating out there that states the planet has been in a continuous process of expansion and contraction throughout its entire lifetime. Known as theExpanding Earth theory, it says that at some point in the past, Earth was 80% smaller than it is today, at which point the continents formed its entire surface. Then it began expanding, forming the ocean floor. While the theory does seem to have some intriguing concepts, it does have a lot of scientific inconsistencies and is extremely unlikely. What we are really talking about here, when we say the Earth is growing, is the fact that our planet takes in roughly 60 to 100 tons of cosmic dust every single day. This can’t really come as a surprise to anyone since this is the exact same process through which all other heavenly bodies in the universe have been created since the dawn of time, including Earth itself. But we don’t really think about it still happening, right? Well, even though it has toned down a bit since the early days of the solar system, the process is still pretty much alive.

Even if space seems to be empty, it’s really littered with fine particles of dust, and these particles get swept up by our planet and, in a sense, become part of Earth. Only a small fraction of this material actually leaves a visible trail in the sky, since most of it is too tiny for that to happen. Now, even though scientists have been aware of this phenomenon happening for a while, only with the advent of more sophisticated technology did they come to comprehend its actual scale. Researchers are now looking at what effects these particles have on our environment. For starters, it was observed that these particles are incremental in the formation of the highest clouds in our atmosphere. It also acts as fertilizer for phytoplankton, and can even affect the ozone layer’s chemistry. But these effects can be just the tip of the iceberg, and scientists are trying to figure out cosmic dust’s many other implications.

1. But it’s Actually Getting Lighter

How can this be? We’ve just concluded that Earth takes in around 30,000 tons of space dust every year, so… how is this possible? It’s not like we’re throwing stuff into outer space – not that much, at least – and it’s not like we’re using any of the weight to build stuff, since that mass still adds to the overall load of the planet. Well, as it turns out, Earth is losing mass via two major ways. One is through its core, as it consumes energy in the form of heat. But this loss accounts for just 16 tons a year. The real mass loss comes in the form of hydrogen and helium. These two gases are the lightest in the universe and oftentimes they just simply float away from Earth. They do so at a rate of 95,000 tons of hydrogen and 1,600 tons of helium each year. So, even though we get roughly 30,000 tons of dust, we lose almost 97,000 tons of gas.

Now, when it comes to hydrogen, there’s nothing to really be afraid of. Even at this current rate, it would take it trillions of years before all of it could be depleted from the atmosphere and by that time, the sun will have died out, and there will be no Earth to speak of. (Um, yay?) But helium is another matter. Even though it’s the second most abundant element in the universe, it’s disappearing here on Earth. We’re now using it for a great deal of things, on an unprecedented scale, and there’s only so much to go around.

Down to Earth Facts

– Planetary Platitudes

Theories About the Universe – WIF Space

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Mind-Blowing Theories

About the Universe

Image result for the universe

As we mentioned in our first list about mind bending theories about the universe, the universe is a vast and mysterious place. For centuries, people have looked out into space and tried to explain why we’re here and where we came from. While it may take even more centuries before any of those questions are answered, it doesn’t mean scientists don’t have any theories.

We should also point out that these are just theories, so at times, some theories may not align with each other, or even contradict each other.

10. Why is Dark Matter so Hard to Detect?


Throughout this list, we will talk about something called dark matter. Dark matter makes up about 27 percent of the universe and about 83 percent of all matter. It is invisible because light doesn’t bounce off of it and it has a gravitational pull on regular matter, meaning it affects the movements of galaxies and galactic clusters. While it does have a gravitational effect, dark matter can pass through regular matter almost undetected. For all of these reasons, dark matter hasn’t been detected yet, but physicists are sure it exists.

One question is: why is it so hard to detect dark matter in Earth-based experiments? One possible answer comes from a group of particle physicists called Lattice Strong Dynamics Collaboration. In their simulation, they found that dark matter might have noticeable interactions with ordinary matter if they are both in conditions that are similar to the start of the universe, which is extremely high-temperature plasma. If their simulation is true, that means in the early days of the universe, dark matter might have been observable.

The good news is that these types of conditions can now be recreated in the Large Hadron Collider at CERN. Researchers are awaiting a chance to test the theory and for the first time, dark matter could be detected. If their theory is correct, it would suggest that before the universe cooled, there was a type of balancing act between matter and dark matter before they spread across the universe.

9. Dark Matter Killed the Dinosaurs

An asteroid is the most likely culprit for what killed the dinosaurs. However, what really kicked off the Cretaceous–Paleogene extinction 66 million years ago is still debated. A very far out and cosmic theory comes from physicist Lisa Randall is that it was an impact event that was caused by dark matter.

The basis of the theory goes back to the 1980s, when paleontologists David Raup and Jack Sepkoski found evidence that every 26 million years since the Great Dying of the Permian-Triassic, (which happened about 252 million years ago and 96 percent of life was wiped out), there has been a great mass extinction. Upon further research, going back a half a billion years ago, it appears that Earth suffered some type of cataclysmic event approximately every 30 million years, give or take a few million years.

However, scientists have never really sure why cataclysmic events would happen on a timetable like that. Randall’s theory is that dark matter is involved. Dark matter is believed to be scattered throughout the universe and it is used as scaffolding on which galaxies, including our home the Milky Way, are built. As our solar system rotates around the Milky Way, it “floats” and at times, it bobs like a cork in the water. And this bob happens about every 30 million years.

When we bob, our solar system may encounter a disk of dark matter. The disk would need to be one-tenth the thickness of the Milky Way’s visible disk of stars, and have a density of at least one solar mass per square light-year.

Matter and dark matter can pass through each other, but dark matter can affect regular matter through gravity. The result is that when some matter floating in space comes into contact with dark matter, it could send things flying throughout the universe, which ultimately hit Earth.

If Randall’s theory is true, dark matter could be responsible for major parts of the formation of the universe.

8. Life Spread Across the Universe Like an Epidemic


When talking about the universe, there’s one question that always pops up: is there intelligent life other than our own? Or are we just alone here? Well, scientists wonder about this too, and currently they are looking at how life, including our own, came into existence.

According to a research paper from the Harvard-Smithsonian Center for Astrophysics, the most logical answer is that life spread from star to star, like an epidemic. The concept that life spread from planet to planet and star to star is called panspermia, and of course, if you’ve seen Prometheus, that concept is a major plot point.

If life passed from star to star, that means that the Milky Way could be full of pockets of life. If the theory is correct, then it is possible that other planets in the Milky Way may host life as well.

Another interesting thing they found in their calculations is that life could be spread by microscopic organisms that hitched a ride on an asteroid, or it even could have been spread by an intelligent being or beings.

7. Why is the Universe Made of Matter?

Matter is everything that takes up space and has weight, and the opposite of matter is called anti-matter. When matter and anti-matter touch, they annihilate each other, which is exactly what happened at the start of the universe and helped drive its expansion. At the beginning of the universe, there should have been an equal amount of matter and anti-matter. However, if there was an equal amount of both matter and anti-matter, they would have canceled each other and the universe would have ceased to exist. This has led physicists to believe that there was slightly more matter than anti-matter. An amount as small as an extra particle of matter for every 10 billion antimatter particles would have been enough for matter to spread out across the universe.

The problem was that while physicists knew that there was more matter, they didn’t know why. That was until 2008, when researchers at the University of Chicago were observing subatomic particles that lived very short lives called B mesons. The researchers, who won the Nobel Prize in Physics for their discovery, found that that B mesons and anti-B mesons decay differently from one another. This means that it is possible that after the annihilations in the start of the universe, the B mesons and anti-B mesons decayed differently, leaving enough matter behind to create all the stars, planets, and even you and everything you touch, including the air you breathe.

6. Disorder Made Life Possible

Entropy essentially measures the amount of disorder in a system. If something is high in entropy that means there is more disorder, and low entropy means there is more organization. An example to visualize this is with Legos. A Lego house would have low entropy and a box of random, disconnected pieces would have high entropy.

What’s interesting is that entropy may be the reason that life exists in the first place, which doesn’t make a whole lot of sense if you take a look at the complexity of something like the human brain, which is the pinnacle of order.

 Nevertheless, according to a theory by assistant MIT professor Jeremy England, higher entropy may be responsible for life in the universe. England says that, under ideal conditions, a random group of molecules can self-organize themselves to efficiently use more energy in their environment. How entropy plays into this is when energy is added to a system. The molecules jump and bounce off each other. If a few were to clump together, and energy was used more efficiently, it would continue to hold together, collecting more molecules, until eventually enough molecules clump together to become a life form. However, if there wasn’t a high entropy state, the molecules would have never been bouncing off each other. Therefore they would have never clumped together and brought about life.

This theory still has a lot of testing to go through. However, if England is correct, then an expert suggested that his name would be remembered the same way we remember Charles Darwin.

5. The Universe Has No Beginning


The prevailing theory of the start of our universe is that over 13.8 billion years ago, from a point of singularity, the Big Bang gave birth to the universe and it has been expanding ever since.

The Big Bang was first theorized in 1927 and the model is based on Albert Einstein’s theory of general relativity. The problem is that there are some holes in Einstein’s theory; mainly that the laws of physics break before reaching singularity. Another big problem is that the other dominant theory in physics, quantum mechanics, doesn’t reconcile with general relativity. Also, neither relativity nor quantum mechanics explain or account for dark matter. This means that although the Big Bang is one of the best theories about how the universe started, it may not be correct.

An alternative theory is that the universe was never at the point of singularity and there was no Big Bang. Instead, the universe is infinite and doesn’t have a beginning or an end. The researchers arrived at this theory by applying quantum correction terms to Einstein’s theory of general relativity using an older model of interpreting quantum mechanics called Bohmian Mechanics. And no, we’re not exactly sure what that means, but good for them.

Their method of testing the theory will also help account for dark matter. If their theory is correct that the universe is infinite, it would mean that the universe has pockets of a superfluid filled with theoretical particles, like gravitons and axioms. If the superfluid matches the distribution of dark matter, then it’s possible that the universe is infinite.

4. The Universe Should Have Never Existed

Science fiction writer Ray Bradbury once wrote, “We are an impossibility in an impossible universe.” And according to a model based on the Higgs boson particle from King’s College London suggests he couldn’t have been more right, because the universe shouldn’t exist.

The problem is that 10-36 seconds after the Big Bang to sometime between 10-33 and 10-32 seconds, the universe underwent something called cosmic inflation, which was a rapid expansion of the universe. If that is true, the inflation would have caused quantum fluctuations, or jolts, in the energy field. These jolts would have been so strong that they would have pushed the universe out of the Higgs field, which is responsible for giving particles its mass, and the universe would cease to exist. Of course, since you’re reading this, you know that this model isn’t correct. So why does the universe exist when it shouldn’t?

One possibility is that the findings are wrong. Another is that there may be some new physics or particles that have yet to be discovered. However, until we figure it out, we should just feel lucky to be here when we theoretically shouldn’t.

3. The Universe Started Off One Dimensional


A commonly held belief about the universe is that the Big Bang was an exploding sphere, but another theory posits that for the first thousand-trillionth of a second of the Big Bang, it was actually a one dimensional line. Energy would race back and forth before creating a fabric, which is the second dimension. Then it morphed into three dimensions, which is the world we see.

If the model is correct, it would help address a few problems with the standard model of particle physics, such as the incompatibility between quantum mechanics and general relativity, and cosmic inflation. However, if this theory is true, it would only lead to more mysteries, like what mechanisms were used to make the universe morph into the different dimensions?

2. How Many Dimensions Are There?

In the last entry, we talked about how the universe may have evolved into three-dimensions; however there are many more dimensions than that. According to Superstring Theory, there are at least 10.

Here is how it works: the first dimension is just a single line, the second dimension is height, the third is depth, and fourth is duration. Where it starts to get a little bit weird is dimension five. That is where the multiverse theory comes into play. In the fifth dimension there is a universe that is very much like our own and we would be able to measure similarities and differences. The sixth dimension is a plane where there are parallel universes with all the same starting conditions, so if our universe started with the Big Bang, so did theirs. The seventh dimension is a plane full of worlds with different starting conditions.

Now, if all that wasn’t confusing enough, the eighth dimension is where things start to get really complicated and humans have problems understanding it. Basically, the eighth dimension is all possible worlds, all with different starting conditions, and they branch out infinitely. Of course, things only get more brain melting from there. In the ninth dimension, there are all possible universes that start with different initial conditions and the laws of physics of these universes can be completely different. In the 10th and final dimension anything is possible, and that is just something humans cannot even fathom.

1. We’re Living in the Distant Past of a Parallel Universe


The term “time’s arrow” was first introduced in 1927 and it aptly describes the flow of time. Humans perceive it as always going forward and it also obeys the second law of thermodynamics so entropy always increases; eggs are cracked and scrambled and they never unscramble and reform inside the shell.

The problem is that if time only goes forward, many of the best equations about how the universe works, like James Clerk Maxwell’s theory of electrodynamics, Isaac Newton’s law of universal gravitation, Einstein’s special and general relativity or quantum mechanics, would be incorrect. However, if time ran forwards and backwards, then they would all work perfectly. One way that this is possible is that at the Big Bang, two parallel universes were started. One where time moves forward, and a parallel one where time flows backwards.

The reasoning is that, if entropy increases in our universe, then when the universe started, it would have begun in a low-entropy and highly ordered state. That could be the end of another universe. That universe would start at the end and time would flow backwards, while ours flows forward.

If we could see the other universe, we would see time going backwards and we would probably see into the future of our universe (presuming that we’re not past the middle age of the universe) and we’d be living in the parallel universe’s distant past. That is, of course, if we’re not the reality that is living in reverse and don’t realize it.

Theories About the Universe

WIF Space-001

– WIF Space

THE RETURN TRIP – Episode 145

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THE RETURN TRIP – Episode 145

.. I am sure the President of the United States will be comforted to know that the property of the Korean Peninsula was not shot “down”, because there is no up & down in space…

Image result for no up or down in space


“We have gone over the mission updates and it turns out that we were crossing paths with Sang-Ashi 10 hours ago. I was under the assumption that AL was going to sound an alarm,” Cmdr. Stanley relates his version of the discussion between man and machine.

But AL did not do so?” Roy Crippen assumes.

“No, definitely not and he executed the defense protocols you instructed us to install.”


AL, you were instructed to bring us out of hyper-sleep when or if Sang-Ashi came into range.”

There is no response. Roy presses the subject.

“We shot Sang-Ashi out of the sky, didn’t we?”


“Thank you for that clarification AL, I am sure the President of the United States will be comforted to know that the property of the Korean Peninsula was not shot “down”, because there is no up & down in space.”


“This message is for Cmdr. Rick Stanley: Continue on to Mars Rick Stanley and crew; we still have a mission to complete.” While the poor mission director is left to explain this crisis to a nation with no sense of humor whatsoever and a world that is already in shock over the possible fate of the McKinneys.


“Your testimony is duly noted AL and under the authority of Code A-AB-C-CD1357, I am disabling your independent-action protocol…

“…And to you boys out there – you will have to sleep in shifts until WE get to Mars.”


Episode 145

page 179


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