Posts

Showing posts with the label thriller

The War No One Wants

Before the start of the Great War, the prevailing sentiment in most, if not all, European countries was that victory in any major military conflict was guaranteed only if it was fought with a large, durable, well-trained, and modern army. The dawn of the 20th century established the environment in which countries entered the race to mobilize the largest part of the qualified population, to create faster motorized transport for troops and logistics, to use state-of-the-art communications and the greatest range of artillery, as well as to use various new drugs in medical treatments like morphine and even cocaine to boost the troops and fuel their fighting mood. Compared to 19th-century wars, new warfare was revolutionized and upped to the next level. By June 1914, the stage was set, and only a spark was needed to fire off the conflict.

But was it really inevitable? Was the military race alone enough to cause the conflict in which 20 million died and many more were wounded? Or did it need a plot to be played in just a specific order that would lead to the unavoidable horror? Did it need at least one party to actually want the war to happen? To honestly believe that a war on that scale could be won?


When asked if the Great War could have been avoided, Ronald Spector, professor of history and international affairs at George Washington University, said that ’if Sir Edward Grey hadn't been the foreign secretary in Britain, then Britain might not have necessarily entered the conflict. Furthermore, if German Kaiser Wilhelm II hadn't been the flaky person he was, then the Germans may have made different decisions, and in the end, if Austro-Hungarian Archduke Franz Ferdinand, who at the time was the head of the faction that wanted to avoid war, had not been killed, the outcome might have been different’. According to Professor Spector and many others, the real trigger for the First World War was indeed only a combination of these unfortunate coincidences that took place in the summer of 1914—military preparations, the alliances, the people in power—all of those steps that built one after another created the Great War.

In the aftermath, the war did happen, and to many, including me, the question was not who won it four years later but rather what stage it created in the following years. It ended the Austro-Hungarian Empire, the German Empire lost a lot of territory, and the Turkish Empire ceased to exist. On the other end, new statehoods arose along with a new wave of nationalism, as many felt they hadn't achieved enough for their sacrifices and losses. History books at the end of the war never really recognized the winner or the loser. It officially ended in the Compiègne railway car on November 11, 1918, and the final document was signed as an armistice.


But what about today, a century and a change after the war that could have been avoided and the war that allegedly nobody wanted? Is there a new similar danger we could repeat again? The one that, according to Ken Follett, could also be one tragic accident, all things considered. Is there a war that no one wants today? The one that could leave a permanent mark on the surface of humanity. The one that will not be fought in trenches and the one that will truly be worldwide this time.

I think we all know the answer to that question. Yet, just like before, and even though nobody really wants it to happen, it could happen nevertheless. Just like before, it only needs a plot that, if set in motion, step by step, spark by spark, decision by decision, can lead to the point of no return. Are we today, on the first anniversary of the Russia-Ukraine conflict, already walking that path? We already have everything the Great War had before it started. Countries have already been in the arms race for a long time—the race for ultimate supremacy and world military dominance. Army budgets are filled up to the roof. More than 10,000 nuclear warheads of various kinds are already in military stockpiles for use by missiles, aircraft, ships, and submarines. We also have questionable leaders like before, even flaky ones like in Professor Spector's description. Let's just hope we will have better luck this time.


However, in light of today's story, let's get back to Ken Follett's fiction. I am really a big fan of his work, and his current thriller, "Never", is his vision of how the Great War could repeat today. In a chronological order of events that one by one led to the brink of a nuclear war, he amazingly described a fictional story that looks so real and so familiar. And so possible. He begins the book with a quote from a Chinese proverb, "Two tigers cannot share the same mountain", and it amazingly describes the entire book premise. I couldn't agree more with Stephen King when he said that "Ken Follett can't write a bad book", and I could only add that "Never" is definitely more than a book. One of his best. One of those that keeps you thinking long after you finish it.

Refs:
https://gwtoday.gwu.edu/was-world-war-i-avoidable
https://thediplomat.com/2014/08/the-great-myth-world-war-i-was-no-accident/

Technothrillers

You know that feeling with reading novels when your bookmark location is in the second half of the book and you find yourself turning pages faster and faster in order to find what happens next? If your reading interests coincide with mine, the most likely case is that you are reading either science fiction, spy or fast-paced action thrillers, or good and old adventure stories filled with espionage and politics in the background.


Well, that was before. Nowadays, if I wanted all that combined in a single novel, there's a new subgenre called technothrillers, and with some of them, especially with new authors in the self-publishing realm, and on almost all occasions, I found myself turning pages even faster. Three of those great technothrillers you could find are presented in this blog post. The premises are extraordinary, and all of them are borrowed from science fiction: smart robotic nanoparticles enhancing human bodies, evil artificial intelligence operating on Darknet, and one extraordinary idea of teleportation based on time travel.

Let's start with a nanoscaled interface between the human brain and computers. It has always been a holy grail to make this efficient ever since the invention of the first computer. Even now to create this post, I am using the old-fashioned keyboard to type the letters, checking for typos, taking care of the grammar, and rolling the mouse around the table for lots of other commanding purposes. "Interface" by Tony Batton is giving us all the potential outcomes of the system without all those helping gadgets only by using nanoparticles with remote access to everything with a CPU and with the thriller plot that is, in one word, outstanding. I will only add that I touched the icon for the sequel purchase just a couple of moments after I finished the book.


For the next technothriller in line, these three reasons were enough for me to hit the download button: DarkWeb & Net layers of the internet, villain AI, and automated corporations. It was amazing how all this, not so hard to imagine, near future inspired Matthew Mather to create this astonishing novel named "Darknet". Simply put, I felt that all that's happening in this techno adventure was as real as in any ordinary thriller. This reality, in one way or another, is really knocking on our doors, especially the part with automated corporations with no need for humans in roles of CEOs, CMOs, CTOs, and all the other C?Os. The scary part is that we don't even need supreme AI to take over, just advanced automation. The thriller part of the book is as perfect as the premise itself. Enough said.

Last, but not least, comes the boldest sci-fi premise in Douglas E. Richards' "Split Second". While at first it is not immediately comprehensible how time travel can be used for teleportation and then for the entire thriller story, it is quite simple really. I don't really like to spoil the book here, especially since the author kept the details from the reader for a big portion of the pages, but I have to say that it is an ingenious idea. I will just give you a hint to think about it: we are living in a universe with four dimensions by its nature, three spatial ones and time as the fourth. If we move along one dimension, i.e., up and down, we are not really moving left or right or forward or backward. We would be only using one spatial dimension and traveling forward in time. The other two spatial coordinates would stay the same. Similarly, the question from the book was, what if we were able to use only the time dimension and move just a fraction of a second forward or backward in time and NOT use spatial dimensions by doing so? Where exactly would our spatial coordinates be AFTER the time travel? Where would everything else be after our arrival? If you are intrigued, this book is definitely for you.


To summarize this spoiler-less review, even though I liked and enjoyed all the stories the same, the plausibility of the background science fiction is always important to me, and with these three, "Darknet" is maybe something we could witness within our lifespans, and just for that fact, if I had to rate these three technothrillers, it would be my first choice of recommendation. As much as I would love to see something similar to the nano-sized robots floating in our bloodstreams, the "Interface" premise is still going to wait for a better understanding of our own intelligence and brain activity. The wait must also include significant nano-scaling of the CPUs as well. As for the time travel, if you ask me, this might stay in the fiction only for a very long time, perhaps even to stay in the realm of the impossible, but who knows, we might witness one-day time travel of the information data somehow if sending any mass back in time proves to be unfeasible.

Nevertheless, I truly enjoyed all the twists in stories, all the characters and their interactions and development, writing styles, and how everything unfolded at the end of all three novels. A warm recommendation goes without saying.

Books:
http://www.tonybatton.com/interface/
http://matthewmather.com/books/darknet/
http://www.douglaserichards.com/split-second

More thriller reviews:
https://www.mpj.one/2017/04/cotton-alex-will-travis-and-david.html

Chasing Ghosts of the Universe

You probably heard that matter is pretty much an empty space. It's true. Everything is made of tiny particles with nuclei in their centers and clouds of electrons orbiting around. If we take hydrogen (H), for example, the smallest atom with just one proton in the nucleus orbited by just one electron, and if we scale the proton to be the size of a basketball, the orbit of the electron in diameter would be something about 15 km. Both the nucleus and electrons are electromagnetically charged, keeping everything in stable equilibrium, and also inside the nucleus, two more fundamental forces—strong and weak nuclear interactions—are keeping all the matter and energy in line. However, the smallest atom in the universe is not the smallest standalone system we know of. According to the standard model, all atoms and complex molecules found in nature or artificially produced are made of fundamental particles. Something we cannot cut into smaller pieces. Electron is one of them. But there are more. So far, as far as we know, if we count all of those basic particles inside protons or neutrons and those that represent force carriers in addition to the "god" particle that makes all the mass possible, there are exactly 17 of them. But one of them deserves its own story to tell. Its nickname is "the ghost particle," and it is literally capable of passing through any mountain like it is made of cheese.


You probably guessed, this will be a short story about neutrinos, the most elusive particles in the universe we can play with. They are products of radioactive beta decay in heavy nuclei where a proton or neutron decays into other subatomic particles, i.e., if a proton decays in a process known as 'beta plus decay', it transforms into a neutron, a positron, and a neutrino. In the moment of its creation, even if it happens in the center of the sun, it escapes the entire star immediately. There are many different beta decay types, and I mentioned just one; others help as classified neutrinos. Just like with other fundamental particles that come in three flavors—the charged leptons (electron, muon, tau), the up-type quarks (up, charm, top), and the down-type quarks (down, strange, bottom), bottom)—neutrinos can also be different in mass and property. The one created in the previous example with the creation of positrons is called an electron neutrino, but if anti-tau or anti-muons are created in the process, neutrinos that emerge on the other side of the decay will be tau or muon neutrinos, respectively. A neutrino, no matter which type it is, belongs to leptons as well. This means it is not affected by strong nuclear force at all, and it only interacts with weak nuclear force, and because it is a particle with mass, it also follows gravity as well. To simply illustrate its ghostly manner, I will just note that its tiny mass is about 4 millionths of the electron mass (and electron mass is 1837 times less heavy than the entire mass of hydrogen). Furthermore, it is not electromagnetically charged and therefore not affected by this fundamental force as well. In other words, if you like to watch horror movies or believe in ghosts, the obvious conclusion is that they are made of neutrinos. That would perfectly explain how ghosts travel through walls and doors just like Patrick Swayze did in the movie "Ghost" a couple of decades ago.

Well, kidding aside, and thankfully for these neutrino features, they are really one ghostly particle that is extremely hard to either control or detect. However, this phantom behavior of theirs immediately triggers some extraordinary ideas. If we could embed messages into neutrinos and control the path of their beam, we might literally send them through anything. If some neutrino-based portable device is possible to be built and you are located, for example, in Buenos Aires, Argentina, and you want to send a message to Beijing, China, you would have to point your neutrino device slightly toward the center of the Earth*, and neutrinos would reach the receiver with the speed of light all the way through the planet. But before we glimpse into the obvious possibility of whether or not it is possible to use neutrinos in some sort of communication, let's check some more facts about them.


Basically, neutrinos, strictly speaking, belong to the radiation realm. They are indeed carriers of radioactive energy. The same as alpha and beta particles, gamma rays, muon radiations, and tons of other types of particles floating around the universe as a result of different types of particle decays or some other processes in the universe. Actually, we are living in a soup of radioactive energy on a daily basis from various sources, as pretty much everything in the universe is decaying or decomposing toward the ultimate fate of the universe, which will in the end be just one giant soup of basic ingredients, if the everlasting expansion of the universe is the correct theory, that is. Therefore, the choice between usage of paper and plastic bags has nothing green in the potential answer. Either way, both bags will eventually decompose. Just give them enough time. Humans are also radioactive; we also emit radioactive particles thanks to the radioactive food we are consuming. Technically speaking, all food is radioactive because all organic food contains carbon-14, or radiocarbon, as it is nicknamed. Many other radioactive elements can be found in other products, and the most notable one is potassium-40. This one is actually a radioactive isotope that undergoes all three types of beta decay. In one of them it emits neutrinos as well. So, if you like eating bananas, rest assured that you are one of the neutrino producers, as well as bananas are very rich in potassium. Believe it or not, large container shipments full of bananas at ports or airports regularly trigger radiation alarms. Well, if you have not eaten the entire container full of bananas, you are safe. Radiation from a couple of bananas is harmless, way below the edge, and potassium is actually very good for you, and if you emit a neutrino here and there, nobody will notice. Believe me. Well, on second thought, don't believe me. Even though neutrinos are very hard to detect, there is still, after all, a way to do it.

Neutrinos are tiny particles, but a few of them, on rare occasions, still collide with the atom nucleus of the material they are passing through. And by few, I mean the literal meaning of the word. The Sun is producing an extremely large number of neutrinos—60 billion per square centimeter are passing through Earth and... us each second. That is maybe around 100 trillionneutrinos passing average humans. To detect that few, several extremely large detectors are created, and one of them is shown in the above image: Super-Kamiokande under Mount Ikeno in Japan. It utilizes Cherenkov radiation, optically equivalent to a sonic boom, to detect collisions. If a neutrino collides with the electron or nuclei of water, the neutrino only changes direction, but the particle that was struck recoils in sudden motion and faster than the speed of light in water (which is slower than the maximum speed of light in a vacuum). This creates a flash of light, which is amplified with photodetectors (those round bulbs all over the water pool). This flash provides information on the direction and type of the neutrino. SK is located in the old zinc mine 1 km below the surface in order to exclude all other radiation from reaching the water and ensure that only neutrinos are detected. To illustrate the small number of neutrinos detected with this approach, state the fact that the total number of collisions detected from supernova SN1987A in Kamiokande was only 19 out of trillions of neutrinos emitted by the supernova. A small number of neutrinos are regularly detected from the Sun, and their number is way smaller than predicted by the number of estimated nuclear reactions in the star, which provides proof that neutrinos are able to change their flavor during their travel, and as it seems, especially during their travel through solid matter. Different numbers of solar neutrinos are detected during the night as they pass a long way through the solid matter of the entire planet Earth, while during daylight they need to penetrate only those 1000 meters to reach the mine chamber.


Poor detection of neutrinos due to their weak interaction with matter is only the start of bad news regarding the potential communication device we are trying to build. More difficulties follow. For example, artificial production of desirable types of neutrinos is either with nuclear reactions or in particle accelerators, which are either too large or too dangerous to build. Encoded information in beamed neutrinos can also be lost with their oscillation between flavors during travel. Creating desirable beams and paths is still not perfect, and last but not least, there is too much noise on the way, as billions and billions of other neutrinos are also there, either created in stars, supernovas, or those created in the very beginning during the Big Bang. Even so, scientists with powerful proton accelerators developed a procedure to develop stable beams of neutrinos or anti-neutrinos**, which are then directed toward near and/or distant detectors. Two experiments emerged with potential scientific value: in the first, a neutrino beam at Fermilab was sent with a short, encoded message through 240 meters of rock toward the MINERvA neutrino detector, and the word "neutrino", which was binary encoded within the beam sequence, was successfully decoded. The second and most challenging one was performed in Japan. Within the "T2K experiment", both neutrino and anti-neutrino beams are created in the J-PARC laboratory and sent toward the 295 km distant Super-Kamiokande. Both are successfully detected and, in return, opened the first working neutrino beamline over large distances.

So in both theory and practice, neutrino communication might be possible, and current experiments confirm it with working proof of concepts made in large neutrino observatories and accelerators. Actually, it resembles the state of computers as they were some half a century ago, when they were large and limited in mathematical computation and built with bulky vacuum tubes. With the invention of semiconductors and transistors, everything changed, and the result is pretty much in front of you, either on your desk, lap, or palm. Perhaps a similar breakthrough is waiting to be invented so we could equip our smartphones of the future with neutrino messaging when we would be finally able to send texts to Mars from our living room without enormous satellite dishes. Who knows, maybe the search for extraterrestrials would gain a completely new angle, and perhaps many of those neutrinos that are passing through our bodies right now could be complex messages from E.T., and neutrino communication in the future might be our ticket into the Milky Way alien internet. Universe's WiFi. So to speak.


Speaking about E.T. and science fiction in general, this neutrino story reminded me about two more things I love to share in conclusion for this post. The first one is John Cramer, an experimental and theoretical physicist and professor at the Department of Physics, University of Washington, Seattle. Some seven or eight years ago, Cramer intended to perform an experiment with two quantum entangled laser beams pointed in different directions. He was trying to prove that by fiddling with one beam that was sent into a circuitous detour miles away through optical cable, it would be detectable on the second beam that ended in a detector much earlier in a different location. Detection of this form of laser beam fiddling would be an indication that quantum entanglement is a phenomenon not only between spatially distant particles but also distant in time. When asked what he expects in the outcome, John Cramer, being a science fiction author as well, said, "If this experiment we're doing works, then I will follow up and push it as hard as possible. And if it doesn't work, I will write a science-fiction novel where it does work. It's a win-win situation."

The second thing, and in the recent tradition of MPJ and its "books" thread, what partially hinted at this post is the great novel "Signal", written by Patrick Lee, with the entire plot triggered by the neutrino-based portable device capable of catching radio waves from the future by harvesting neutrinos that move against the direction of time. The device is able to hook into radio stations 10 hours ahead. Just try to imagine all the implications and applications of this kind of fictitious device. If you can't, I am encouraging you to grab Patrick's novel and read it. I literally swallowed it and, during reading, eagerly waited for another chapter. I really can't emphasize what is better, the thriller plot, the sci-fi, or the intense writing. I will say no more.

Image refs:
http://motherboard.vice.com/read/why-neutrino-detectors-look-so-cool
http://irfu.cea.fr/Sphn/Phocea/Vie_des_labos/Ast/
http://www.patrickleefiction.com/
http://www.nuclear-power.net/nuclear-power/fundamental-particles/antineutrino/
http://particleadventure.org/neutrinos.html

In text refs:
* http://www.antipodesmap.com/
** http://www.symmetrymagazine.org/article/november-2012/how-to-make-a-neutrino-beam

Refs:
http://physics.info/standard/practice.shtml
http://chemistry.about.com/od/foodcookingchemistry/tp/Radioactive-Foods.htm
http://discovermagazine.com/2007/jun/life-is-rad
http://www2.lbl.gov/abc/wallchart/chapters/03/2.html
https://profmattstrassler.com/articles-and-posts/particle-physics-basics/neutrinos/neutrino-types/
http://timeblimp.com/?page_id=1033
http://cosmiclog.nbcnews.com/_news/2007/07/17/4350992-backward-research-goes-forward
http://faculty.washington.edu/jcramer/cramer.html