Missed it. Sorry.
Website Wednesday is an occasional feature in which we highlight one (or a couple) of sites from the Billions floating around the Intertoobz that just might help you with your Herculean task of educating inquiring minds. Any and all suggestions for future editions are welcome.
I don’t like Facebook, and I don’t use it, but if I did, I would be a regular reader of this site, called, “I Fucking Love Science.”
I first learned of it when it created something of a stir and a controversy broke into the news last March, perhaps surprisingly having nothing to do with the name and everything to do with the sex of the site’s author; regular readers were shocked–shocked I tell you–to find out that the site’s author is a woman!
Anyway, for great links to new science articles, fun and funny cartoons on science and scientific topics, and much, much more, you should check it out.
In recognition of the new, formerly chemistry teaching Pope and in anticipation of some spring break free time that you may want to fill up with fascinating reading, here is a list of some interesting things I’ve found laying around the intertoobz:
~Learn about Quantum Biology;
~Black holes have firewalls and physicists are confounded;
~Check out Symphony of Science;
The rest of the list is below the “fold”…
Learn some science! (First, crack open a beer–(I’m assuming positive effects irrespective of sex)):
- Read what scientists have to say in answer the the question, “What is Science?”
“We live in a society absolutely dependent on science and technology,” Carl Sagan famously quipped in 1994, “and yet have cleverly arranged things so that almost no one understands science and technology. That’s a clear prescription for disaster.” Little seems to have changed in the nearly two decades since, and although the government is now actively encouraging “citizen science,” for many “citizens” the understanding of — let alone any agreement about — what science is and does remains meager.So, what exactly is science, what does it aspire to do, and why should we the people care? It seems like a simple question, but it’s an infinitely complex one, the answer to which is ever elusive and contentious. Gathered here are several eloquent definitions that focus on science as process rather than product, whose conduit is curiosity rather than certainty.
- Do you know what a flame is? Watch this cool video and you will.
- Read about zombie-creating parasites.
- Might be a good time to learn about the science behind “disgust“
Salon spoke with Kelly about hiding the science behind disgust, why we’re captivated by things we find revolting, and how it can be a very dangerous thing.
- Did you know dogs may be the reason that humans outthrived Neandertals?
One of the classic conundrums in paleoanthropology is why Neandertals went extinct while modern humans survived in the same habitat at the same time. (The phrase “modern humans,” in this context, refers to humans who were anatomically—if not behaviorally—indistinguishable from ourselves.) The two species overlapped in Europe and the Middle East between 45,000 and 35,000 years ago; at the end of that period, Neandertals were in steep decline and modern humans were thriving. What happened?…
There is no shortage of hypotheses. Some favor climate change, others a modern-human advantage derived from the use of more advanced hunting weapons or greater social cohesion. Now, several important and disparate studies are coming together to suggest another answer, or at least another good hypothesis: The dominance of modern humans could have been in part a consequence of domesticating dogs—possibly combined with a small, but key, change in human anatomy that made people better able to communicate with dogs.
- Learn about the Higgs-Boson particle
It is natural for those not deeply involved in the half-century quest for the Higgs to ask why they should care about this seemingly esoteric discovery. There are three reasons.
First, it caps one of the most remarkable intellectual adventures in human history — one that anyone interested in the progress of knowledge should at least be aware of.
Second, it makes even more remarkable the precarious accident that allowed our existence to form from nothing — further proof that the universe of our senses is just the tip of a vast, largely hidden cosmic iceberg.
And finally, the effort to uncover this tiny particle represents the very best of what the process of science can offer to modern civilization.
- Or about attempts to see the unseeable
Over the next few years, Doeleman says, he and his group will combine as many as a dozen of the world’s most sophisticated radio-astronomy installations to create “the biggest telescope in the history of humanity”—a virtual dish the size of Earth, with 2,000 times the resolution of the Hubble Space Telescope. Tonight the Event Horizon Telescope astronomers have a more limited goal: They want to catch as much light from Sagittarius A* as possible and study its polarization to learn about the black hole’s magnetic field. But eventually (if all goes well) astronomers using the fully scaled-up Event Horizon Telescope—a machine with resolution high enough to read the date on a quarter from 3,000 miles away—will see the silhouette of an object that is, in itself, unseeable.
Imagine trying to learn biology without ever using the word “organism.” Or studying to become a botanist when the only way of referring to photosynthesis is to spell the word out, letter by painstaking letter.
For deaf students, this game of scientific Password has long been the daily classroom and laboratory experience. Words like “organism” and “photosynthesis” — to say nothing of more obscure and harder-to-spell terms — have no single widely accepted equivalent in sign language. This means that deaf students and their teachers and interpreters must improvise, making it that much harder for the students to excel in science and pursue careers in it.
- Learn about computers running simulations of life
The idea of building artificial life forms, whether in software or in synthetic cytoplasm, has always been controversial. Mary Shelley, almost 200 years ago, wrote a deep meditation on this theme: Frankenstein, or the Modern Prometheus. In Shelley’s time the debate was framed in terms of vitalism versus mechanism. The vitalists argued that living things are distinguished from inorganic matter by some “spark of life” or animating principle. The opposing mechanist view had its greatest early champion in René Descartes, who compared animals to clockwork automata.
Within the world of science, the doctrine of vitalism is long dead, and yet there is still resistance to the idea that life is something we can fully comprehend by disassembling an organism and cataloging its component parts. In the brash early years of molecular biology, DNA was “the blueprint of life,” a full set of instructions for building a cell…Now that we read DNA sequences quite fluently, it seems clearer that there’s more to life than the “central dogma” of molecular biology.
The idea of simulating a living cell with a computer program stands in the crossfire of this argument between reductionism and a more integrative vision of biology. On one hand, the WholeCell project makes abundantly clear that the DNA sequence by itself is not the master key to life. Even though the transfer of information from DNA to RNA to protein is a central element of the model, it is not handled as a simple mapping between alphabets. The emphasis is on molecules, not symbols.
On the other hand, the very attempt to build such a model is a declaration that life is comprehensible, that there’s nothing supernatural about it, that it can be reduced to an algorithm—a finite computational process. Everything that happens in the simulated cell arises from rules that we can enumerate and understand, for the simple reason that we wrote those rules.
I would love to believe that the success of simulation methods in biology might forge a new synthesis and put an end to philosophical bickering over these questions. I’m not holding my breath.
- Did you know that taking an antibiotic is more than a little like swallowing a grenade?
What made antibiotics so wildly successful was the way they attacked bacteria while sparing us. Penicillin, for example, stops many types of bacteria from building their cell walls. Our own cells are built in a fundamentally different way, and so the drug has no effect. While antibiotics can discriminate between us and them, however, they can’t discriminate between them and them–between the bacteria that are making us sick and then ones we carry when we’re healthy. When we take a pill of vancomycin, it’s like swallowing a grenade. It may kill our enemy, but it kills a lot of bystanders, too.
- Did you know that bees have feelings, too (maybe)?
Using simple behavioral tests, Wright’s research team showed that like other lab-tested brooders — which so far include us, monkeys, dogs, and starlings — stressed bees tend to see the glass as half empty. While this doesn’t (and can’t) prove that bees experience human-like emotions, it does give pause. We should take seriously the possibility that it feels like something to be an insect.
- Read about a new experiment aimed at determining whether we live in “The Matrix” (here’s a non-sciencey explanation of why it’s an issue; more here on various theories of the universe; and here’s one more that’s really great if you ever intend to read or teach Borges (especially, “The Circular Ruins“):
The concept that current humanity could possibly be living in a computer simulation was first seriously proposed in a 2003 paper published in Philosophical Quarterly by Nick Bostrom, a philosophy professor at the University of Oxford. In the paper, he argued that at least one of three possibilities is true:
- The human species is likely to go extinct before reaching a “posthuman” stage.
- Any posthuman civilization is very unlikely to run a significant number of simulations of its evolutionary history.
- We are almost certainly living in a computer simulation.
Savage said, however, signatures of resource constraints in present-day simulations are likely to exist as well in simulations in the distant future. These constraints include the imprint of an underlying lattice if one is used to model the space-time continuum.
- And you can’t have a discussion about science around a philosopher without a discussion of its limits:
Is scientism defensible? Is it really true that natural science provides a satisfying and reasonably complete account of everything we see, experience, and seek to understand — of every phenomenon in the universe? And is it true that science is more capable, even singularly capable, of answering the questions that once were addressed by philosophy? This subject is too large to tackle all at once. But by looking briefly at the modern understandings of science and philosophy on which scientism rests, and examining a few case studies of the attempt to supplant philosophy entirely with science, we might get a sense of how the reach of scientism exceeds its grasp.
- And if that all has you a bit freaked out, don’t forget that it’s still beautiful.
I was a little hesitant about this one because of the prominent “sponsored by GE,” but I kept coming back to it because they regularly have cool stuff (corporate money and communication know-how can help, I guess).
I originally found this through a link on The Browser to “Ten of the Best Science Videos of 2011” and then once there, found this on how to define life (and I was really happy to see all of the links in it) then I was off to the races.
If you find something great, please post the title in the comments.
For the Scientist-types!
This is an old one that I’ve been saving for awhile for anyone looking for some summer reading on theoretical physics:
What can you do to top suppositions like those? Not much, it seems. The new books on physics promise “a state-of-the-art tour of cutting-edge science that is changing the way we see our world,” as the jacket blurb for The Hidden Reality puts it. But they are just recycling the once-startling propositions of Carter, Everett, Wheeler, Barrow, Tipler—and Nietzsche and Borges, for that matter.
And this is a new one about some excitement down at FermiLab:
Physicists at the Fermi National Accelerator Laboratory have observed anomalous data that suggest they may have discovered a new elementary particle or a new fundamental force of nature. Or, they acknowledged Wednesday, they may have simply observed a chance statistical fluctuation in their results.
If the results are real, they could provide the first significant change in what is known as the standard model of physics in more than five decades, and researchers are holding their breaths in anticipation.
Tuesday is Science day in the New York Times.
Check out this cool article:
Dr. Lue is one of the pioneers of molecular animation, a rapidly growing field that seeks to bring the power of cinema to biology. Building on decades of research and mountains of data, scientists and animators are now recreating in vivid detail the complex inner machinery of living cells.
The field has spawned a new breed of scientist-animators who not only understand molecular processes but also have mastered the computer-based tools of the film industry.
Lots of cool images, and video, too.
UPDATED: Now with the link to the actual article!